<?xml version="1.0" encoding="ISO-8859-1"?>
<GeneSummaries>

<!-- docurl="flybase-ugp.xml,6099682-6105121" -->

<GeneSummary id="FlyBase:FBgn0003733">
 <Title>FlyBase Gene: tor</Title>
 <Source>FlyBase</Source>
 <Type>Gene Summary</Type>
 <BASIC_INFORMATION>
  <GeneID>FBgn0003733</GeneID>
  <Symbol>tor</Symbol>
  <Full_name>torso</Full_name>
  <Species id="taxon:7227">Drosophila melanogaster</Species>
  <Synonyms>
   <Name>CG1389</Name>
   <Name>CG1389</Name>
   <Name>splc: spliced</Name>
   <Name>Tor</Name>
   <Name>splc</Name>
   <Name>spliced</Name>
  </Synonyms>
  <Date>20 Aug 04</Date>
 </BASIC_INFORMATION>
 <LOCATION>
  <Chromosome>2R</Chromosome>
  <Genome_map>complement(2766074..2770092)</Genome_map>
  <Map type="cytogenetic">43E12</Map>
  <Scaffold>AE003840</Scaffold>
 </LOCATION>
 <GENE_PRODUCT>
  <Transcripts>
   <Transcript id="FBtr0088938">
    tor-RA
    <Polypeptide id="FBpp0088012">tor-PA (923 aa)</Polypeptide>
   </Transcript>
  </Transcripts>
 </GENE_PRODUCT>
 <GENE_ONTOLOGY>
  <Molecular_function>
   <goterm id="GO:0004714">
    transmembrane receptor protein tyrosine kinase activity ;  ; EC:2.7.1.-
    <goevidence>
     inferred from sequence similarity
    </goevidence>
   </goterm>
   <goterm id="GO:0004713">
    protein-tyrosine kinase activity ;  ; EC:2.7.1.112
    <goevidence>
     non-traceable author statement
    </goevidence>
   </goterm>
   <goterm id="GO:0004713">protein-tyrosine kinase activity ;  ; EC:2.7.1.112</goterm>
   <goterm id="GO:0004714">transmembrane receptor protein tyrosine kinase activity ;  ; EC:2.7.1.-</goterm>
  </Molecular_function>
  <Biological_process>
   <goterm id="GO:0007443">Malpighian tubule morphogenesis</goterm>
   <goterm id="GO:0001709">cell fate determination</goterm>
   <goterm id="GO:0008595">determination of anterior/posterior axis, embryo</goterm>
   <goterm id="GO:0007398">ectoderm development</goterm>
   <goterm id="GO:0030381">eggshell pattern formation (sensu Insecta)</goterm>
   <goterm id="GO:0007399">neurogenesis</goterm>
   <goterm id="GO:0006468">protein amino acid phosphorylation</goterm>
   <goterm id="GO:0007362">terminal region determination</goterm>
   <goterm id="GO:0008293">torso signaling pathway</goterm>
  </Biological_process>
  <Cellular_component>
   <goterm id="GO:0005886">plasma membrane</goterm>
  </Cellular_component>
 </GENE_ONTOLOGY>
 <FUNCTION>
  <Expressions>
   <Expression type="dev_stage">
    embryo
    <Phenotype>nurse cell</Phenotype>
   </Expression>
   <Expression type="dev_stage">
    oogenesis, adult
    <Phenotype>oocyte</Phenotype>
    <Phenotype>germarium</Phenotype>
   </Expression>
  </Expressions>
  <Protein_domains>
   <db_xref>IPR000719 == Eukaryotic protein kinase</db_xref>
   <db_xref>IPR001245 == Tyrosine kinase catalytic domain</db_xref>
   <db_xref>SCOP:56112 == Protein kinase-like (PK-like); tor|FBgn0003733|pp-CT3198|FBan0001389</db_xref>
  </Protein_domains>
  <External_links>
   <db_xref>DEDB:13278</db_xref>
   <db_xref>FlyGRID:FBgn0003733</db_xref>
   <db_xref>IFly:../torstoll/torso1.htm</db_xref>
   <db_xref>NCBI_GEO:FBgn0003733</db_xref>
  </External_links>
 </FUNCTION>
 <LITERATURE>
  <Reference>
   <ref>
    <Identifier>FBrf0157176</Identifier>
    <Creator>Furriols and Casanova</Creator>
    <Date>2003</Date>
    <Source>EMBO J. 22(9): 1947--1952</Source>
    <Title>In and out of torso RTK signaling.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0141280</Identifier>
    <Creator>Johnstone and Lasko</Creator>
    <Date>2001</Date>
    <Source>A. Rev. Genet. 35: 365--406</Source>
    <Title>Translational regulation and RNA localization in Drosophila oocytes and embryos.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0159910</Identifier>
    <Creator>Casci</Creator>
    <Date>2000</Date>
    <Source>Nature Rev. Genet. 1(1): 9</Source>
    <Title>A head with no torso.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
 </LITERATURE>
 <SUMMARY>
  <text>
   The D. melanogaster gene torso, abbreviated as tor, is reported here. It encodes a product with protein-tyrosine kinase activity (EC:2.7.1.112) involved in protein amino acid phosphorylation which is localized to the plasma membrane; it is expressed in the ovary (germarium, nurse cell and oocyte). It has been sequenced and its amino acid sequence contains an eukaryotic protein kinase and a tyrosine kinase catalytic domain. It has been mapped by recombination to 2-57 and cytologically to 43E12. It interacts genetically with Ras85D, rl, Dsor1, dpp, Sos and 62 other listed genes. There are 127 recorded alleles: 35 in vitro constructs (none available from the public stock centers), 91 classical mutants (3 available from the public stock centers) and 1 wild-type. Amorphic mutations have been isolated which affect the maternal effect embryonic/first instar larval cuticle, the embryonic maternal effect labral segment, the maternal effect telson and 17 other listed tissues and are embryonic recessive maternal effect lethal and recessive female sterile. tor is discussed in 361 references (excluding sequence accessions), dated between 1986 and 2004. These include at least 55 studies of mutant phenotypes, 2 studies of wild-type function and 8 molecular studies. Among findings on tor mutants, mutation in tor results in a maternal effect phenotype with defects during the early stages of gastrulation and defects in the anteroposterior axis.
  </text>
 </SUMMARY>
</GeneSummary>
<!-- docurl="flybase-ugp.xml,31576-40713" -->


<GeneSummary id="FlyBase:FBgn0000015">
 <Title>FlyBase Gene: Abd-B</Title>
 <Source>FlyBase</Source>
 <Type>Gene Summary</Type>
 <BASIC_INFORMATION>
  <GeneID>FBgn0000015</GeneID>
  <Symbol>Abd-B</Symbol>
  <Full_name>Abdominal B</Full_name>
  <Species id="taxon:7227">Drosophila melanogaster</Species>
  <Synonyms>
   <Name>CG11648</Name>
   <Name>CG10291</Name>
   <Name>tuh-3</Name>
   <Name>Mcp: Miscadastral pigmentation</Name>
   <Name>iab-5</Name>
   <Name>iab-8</Name>
   <Name>iab-7</Name>
   <Name>AbdB</Name>
   <Name>twig</Name>
   <Name>Sab: Superabdominal</Name>
   <Name>Tab: Transabdominal</Name>
   <Name>iab5: infra-abdominal 5</Name>
   <Name>iab6: infra-abdominal 6</Name>
   <Name>iab7: infra-abdominal 7</Name>
   <Name>iab8: infra-abdominal 8</Name>
   <Name>iab9: infra-abdominal 9</Name>
   <Name>Mc: Microcephalus</Name>
   <Name>FAB</Name>
   <Name>MCP</Name>
   <Name>Fab7</Name>
   <Name>DROABDB</Name>
   <Name>Fab-7</Name>
   <Name>Abd B</Name>
   <Name>abdB</Name>
   <Name>AbdB(CA)&lt;down>26&lt;/down></Name>
   <Name>ABDB</Name>
   <Name>pH189</Name>
   <Name>abd-B</Name>
   <Name>AbdB-I</Name>
   <Name>AbdB-II</Name>
   <Name>iab-6</Name>
   <Name>Abd-b</Name>
   <Name>Abdominal-B</Name>
   <Name>Uab-5&lt;up>Sab&lt;/up></Name>
   <Name>iab8.9: infraabdominal-8.9</Name>
   <Name>iab: infraabdominal</Name>
   <Name>l(3)89Ed</Name>
   <Name>Mcp</Name>
   <Name>iab6</Name>
   <Name>iab7</Name>
   <Name>iab8</Name>
   <Name>iab9</Name>
   <Name>iab5</Name>
   <Name>infraabdominal-8.9</Name>
   <Name>Miscadastral pigmentation</Name>
   <Name>Male chauvinist pigmentation</Name>
   <Name>Microcephalus</Name>
   <Name>Transabdominal</Name>
   <Name>Mc</Name>
   <Name>Superabdominal</Name>
   <Name>Sab</Name>
   <Name>infraabdominal</Name>
   <Name>Tab</Name>
   <Name>infra-abdominal 5</Name>
   <Name>infra-abdominal 6</Name>
   <Name>infra-abdominal 7</Name>
   <Name>infra-abdominal 8</Name>
   <Name>infra-abdominal 9</Name>
  </Synonyms>
  <Date>21 Aug 04</Date>
 </BASIC_INFORMATION>
 <LOCATION>
  <Chromosome>3R</Chromosome>
  <Genome_map>complement(12752947..12797973)</Genome_map>
  <Map type="cytogenetic">89E4--5</Map>
  <Scaffold>AE003715</Scaffold>
 </LOCATION>
 <GENE_PRODUCT>
  <Transcripts>
   <Transcript id="FBtr0083385">
    Abd-B-RE
    <Polypeptide id="">Abd-B-PE (270 aa)</Polypeptide>
   </Transcript>
   <Transcript id="FBtr0083384">
    Abd-B-RB
    <Polypeptide id="FBpp0082826">Abd-B-PB (493 aa)</Polypeptide>
   </Transcript>
   <Transcript id="FBtr0083383">
    Abd-B-RD
    <Polypeptide id="FBpp0082825">Abd-B-PD (270 aa)</Polypeptide>
   </Transcript>
   <Transcript id="FBtr0083382">
    Abd-B-RA
    <Polypeptide id="FBpp0082824">Abd-B-PA (270 aa)</Polypeptide>
   </Transcript>
   <Transcript id="FBtr0083381">
    Abd-B-RC
    <Polypeptide id="FBpp0082823">Abd-B-PC (270 aa)</Polypeptide>
   </Transcript>
  </Transcripts>
 </GENE_PRODUCT>
 <GENE_ONTOLOGY>
  <Molecular_function>
   <goterm id="GO:0003704">
    specific RNA polymerase II transcription factor activity
    <goevidence>
     non-traceable author statement
    </goevidence>
   </goterm>
   <goterm id="GO:0003704">specific RNA polymerase II transcription factor activity</goterm>
  </Molecular_function>
  <Biological_process>
   <goterm id="GO:0008595">determination of anterior/posterior axis, embryo</goterm>
   <goterm id="GO:0035215">genital disc development</goterm>
   <goterm id="GO:0007484">genital morphogenesis (sensu Holometabola)</goterm>
   <goterm id="GO:0008354">germ cell migration</goterm>
   <goterm id="GO:0008406">gonad development</goterm>
   <goterm id="GO:0007507">heart development</goterm>
   <goterm id="GO:0007494">midgut development</goterm>
   <goterm id="GO:0009997">negative regulation of cardioblast cell fate specification</goterm>
   <goterm id="GO:0045843">negative regulation of myogenesis</goterm>
   <goterm id="GO:0045705">negative regulation of salivary gland determination</goterm>
   <goterm id="GO:0048066">pigmentation</goterm>
   <goterm id="GO:0048087">positive regulation of pigmentation</goterm>
   <goterm id="GO:0006357">regulation of transcription from Pol II promoter</goterm>
   <goterm id="GO:0007431">salivary gland development</goterm>
   <goterm id="GO:0007548">sex differentiation</goterm>
   <goterm id="GO:0048071">sex-specific pigmentation</goterm>
   <goterm id="GO:0007385">specification of segmental identity, abdomen</goterm>
  </Biological_process>
  <Cellular_component>
   <goterm id="GO:0005634">nucleus</goterm>
  </Cellular_component>
 </GENE_ONTOLOGY>
 <FUNCTION>
  <Expressions>
   <Expression type="dev_stage">
    embryo
    <Phenotype>parasegment 13</Phenotype>
    <Phenotype>
     parasegment 11..13
     &lt;of> embryonic central nervous system
    </Phenotype>
    <Phenotype>parasegment 10..14</Phenotype>
    <Phenotype>parasegment 14</Phenotype>
    <Phenotype>
     parasegment 14
     &lt;of> embryonic central nervous system
    </Phenotype>
   </Expression>
  </Expressions>
  <Protein_domains>
   <db_xref>IPR001356 == Homeobox domain</db_xref>
   <db_xref>SCOP:46689 == Homeodomain-like; Abd-B|FBgn0000015|pp-CT28893|FBan0010291</db_xref>
   <db_xref>SCOP:46689 == Homeodomain-like; Abd-B|FBgn0000015|pp-CT40560|FBan0010291</db_xref>
  </Protein_domains>
  <External_links>
   <db_xref>DEDB:9547</db_xref>
   <db_xref>FlyGRID:FBgn0000015</db_xref>
   <db_xref>IFly:../segment/abdomlb1.htm</db_xref>
   <db_xref>KWgx:FBgn0000015</db_xref>
   <db_xref>NCBI_GEO:FBgn0000015</db_xref>
  </External_links>
 </FUNCTION>
 <LITERATURE>
  <Reference>
   <ref>
    <Identifier>FBrf0159337</Identifier>
    <Creator>Abrams et al.</Creator>
    <Date>2003</Date>
    <Source>Trends Cell Biol. 13(5): 247--254</Source>
    <Title>Constructing an organ: the Drosophila salivary gland as a model for tube formation.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0152334</Identifier>
    <Creator>Burtis</Creator>
    <Date>2002</Date>
    <Source>Science 297(5584): 1135--1136</Source>
    <Title>Doublesex in the middle.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0156093</Identifier>
    <Creator>Christiansen et al.</Creator>
    <Date>2002</Date>
    <Source>Trends Genet. 18(10): 510--516</Source>
    <Title>Sex comes in from the cold: the integration of sex and pattern.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0151731</Identifier>
    <Creator>Duncan</Creator>
    <Date>2002</Date>
    <Source>A. Rev. Genet. 36: 521--556</Source>
    <Title>Transvection effects in Drosophila.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0155986</Identifier>
    <Creator>Simpson</Creator>
    <Date>2002</Date>
    <Source>Nature Rev. Genet. 3(12): 907--917</Source>
    <Title>Evolution of development in closely related species of flies and worms.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
 </LITERATURE>
 <SUMMARY>
  <text>
   The D. melanogaster gene Abdominal B, abbreviated as Abd-B, is reported here. It has also been known in FlyBase as CG10291, CG11648, MS:AbdB.CA26, MS:DROABDB and Mc. It encodes a product with specific RNA polymerase II transcription factor activity involved in pigmentation which is localized to the nucleus; it is expressed in the embryo (Malpighian tubule, ectoderm, epidermis, parasegment 10 and 15 other listed tissues) and larva (female genital disc and male genital disc). It has been sequenced and its amino acid sequence contains a homeobox domain. It has been mapped by recombination to 3-58.8 and cytologically to 89E4--5. It interacts genetically with Pcl, tuh1, Ubx, Scm, ph-d and 15 other listed genes. There are 186 recorded alleles: 15 in vitro constructs (none available from the public stock centers), 170 classical mutants (12 available from the public stock centers) and 1 wild-type. Amorphic mutations have been isolated which affect the somatic clone abdominal segment 5 to 8, the embryonic somatic clone abdominal segment 8, the somatic clone sclerite and 9 other listed tissues and are dominant male sterile, dominant female sterile, recessive lethal, homeotic somatic clone visible, somatic clone (with Df(3R)P9) body color defective and (with Df(3R)P9) lethal. Abd-B is discussed in 497 references (excluding sequence accessions), dated between 1944 and 2004. These include at least 24 studies of mutant phenotypes, 18 studies of wild-type function, 4 studies of natural polymorphisms and 49 molecular studies. Among findings on Abd-B mutants, recessive Mcp group mutations of Abd-B have been isolated as revertants and partial revertants of dominant gain-of-function Abd-B alleles. Among findings on Abd-B function, Abd-B divides the primordium of the posterior spiracle into two cell populations that develop using distinct morphogenetic mechanisms into the spiracular chamber and the stigmatophore. (However, there is much more information on function so that may not be representative.)
  </text>
 </SUMMARY>
</GeneSummary>
<!-- docurl="flybase-ugp.xml,5666351-5673467" -->


<GeneSummary id="FlyBase:FBgn0003495">
 <Title>FlyBase Gene: spz</Title>
 <Source>FlyBase</Source>
 <Type>Gene Summary</Type>
 <BASIC_INFORMATION>
  <GeneID>FBgn0003495</GeneID>
  <Symbol>spz</Symbol>
  <Full_name>spatzle</Full_name>
  <Species id="taxon:7227">Drosophila melanogaster</Species>
  <Synonyms>
   <Name>CG6134</Name>
   <Name>CG6134</Name>
   <Name>CG6134</Name>
   <Name>spaetzle</Name>
   <Name>mel(3)7</Name>
  </Synonyms>
  <Date>20 Aug 04</Date>
 </BASIC_INFORMATION>
 <LOCATION>
  <Chromosome>3R</Chromosome>
  <Genome_map>complement(22880157..22885155)</Genome_map>
  <Map type="cytogenetic">97E1</Map>
  <Scaffold>AE003759</Scaffold>
 </LOCATION>
 <GENE_PRODUCT>
  <Transcripts>
   <Transcript id="FBtr0085146">
    spz-RJ
    <Polypeptide id="FBpp0084516">spz-PJ (244 aa)</Polypeptide>
   </Transcript>
   <Transcript id="FBtr0085145">
    spz-RI
    <Polypeptide id="FBpp0084515">spz-PI (227 aa)</Polypeptide>
   </Transcript>
   <Transcript id="FBtr0085144">
    spz-RH
    <Polypeptide id="FBpp0084514">spz-PH (249 aa)</Polypeptide>
   </Transcript>
   <Transcript id="FBtr0085143">
    spz-RG
    <Polypeptide id="FBpp0084513">spz-PG (223 aa)</Polypeptide>
   </Transcript>
   <Transcript id="FBtr0085142">
    spz-RF
    <Polypeptide id="FBpp0084512">spz-PF (174 aa)</Polypeptide>
   </Transcript>
   <Transcript id="FBtr0085141">
    spz-RE
    <Polypeptide id="FBpp0084511">spz-PE (181 aa)</Polypeptide>
   </Transcript>
   <Transcript id="FBtr0085140">
    spz-RD
    <Polypeptide id="FBpp0084510">spz-PD (273 aa)</Polypeptide>
   </Transcript>
   <Transcript id="FBtr0085139">
    spz-RC
    <Polypeptide id="FBpp0084509">spz-PC (253 aa)</Polypeptide>
   </Transcript>
   <Transcript id="FBtr0085138">
    spz-RB
    <Polypeptide id="FBpp0084508">spz-PB (300 aa)</Polypeptide>
   </Transcript>
   <Transcript id="FBtr0085137">
    spz-RA
    <Polypeptide id="FBpp0084507">spz-PA (326 aa)</Polypeptide>
   </Transcript>
  </Transcripts>
 </GENE_PRODUCT>
 <GENE_ONTOLOGY>
  <Molecular_function>
   <goterm id="GO:0005121">
    Toll binding
    <goevidence>
     inferred from genetic interaction with FLYBASE:Tl; FB:FBgn0003717
    </goevidence>
   </goterm>
   <goterm id="GO:0005121">
    Toll binding
    <goevidence>
     non-traceable author statement
    </goevidence>
   </goterm>
   <goterm id="GO:0005121">
    Toll binding
    <goevidence>
     traceable author statement
    </goevidence>
   </goterm>
   <goterm id="GO:0016015">
    morphogen activity
    <goevidence>
     non-traceable author statement
    </goevidence>
   </goterm>
   <goterm id="GO:0005125">
    cytokine activity
    <goevidence>
     traceable author statement
    </goevidence>
   </goterm>
   <goterm id="GO:0016015">morphogen activity</goterm>
   <goterm id="GO:0005125">cytokine activity</goterm>
   <goterm id="GO:0005121">Toll binding</goterm>
  </Molecular_function>
  <Biological_process>
   <goterm id="GO:0008063">Toll signaling pathway</goterm>
   <goterm id="GO:0006966">antifungal humoral response (sensu Protostomia)</goterm>
   <goterm id="GO:0006967">antifungal polypeptide induction</goterm>
   <goterm id="GO:0006952">defense response</goterm>
   <goterm id="GO:0009950">dorsal/ventral axis specification</goterm>
   <goterm id="GO:0000578">embryonic axis specification</goterm>
   <goterm id="GO:0006955">immune response</goterm>
   <goterm id="GO:0045087">innate immune response</goterm>
   <goterm id="GO:0007311">maternal determination of dorsal/ventral axis, oocyte, germ-line encoded</goterm>
   <goterm id="GO:0007310">oocyte dorsal/ventral axis determination</goterm>
   <goterm id="GO:0009620">response to fungi</goterm>
  </Biological_process>
  <Cellular_component>
   <goterm id="GO:0005576">extracellular</goterm>
  </Cellular_component>
 </GENE_ONTOLOGY>
 <FUNCTION>
  <Expressions>
   <Expression type="dev_stage">
    oogenesis, adult
    <Phenotype>ovary</Phenotype>
   </Expression>
  </Expressions>
  <External_links>
   <db_xref>BDGPisx:spz</db_xref>
   <db_xref>DEDB:10835</db_xref>
   <db_xref>FlyGRID:FBgn0003495</db_xref>
   <db_xref>IFly:../torstoll/spatzle.htm</db_xref>
   <db_xref>NCBI_GEO:FBgn0003495</db_xref>
  </External_links>
 </FUNCTION>
 <LITERATURE>
  <Reference>
   <ref>
    <Identifier>FBrf0149180</Identifier>
    <Creator>Khush et al.</Creator>
    <Date>2002</Date>
    <Source>Science 296: 273--275</Source>
    <Title>Pathogen surveillance - the flies have it.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0148941</Identifier>
    <Creator>Stathopoulos and Levine</Creator>
    <Date>2002</Date>
    <Source>Dev. Biol. 246(1): 57--67</Source>
    <Title>Dorsal gradient networks in the Drosophila embryo.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0156068</Identifier>
    <Creator>Imler and Hoffmann</Creator>
    <Date>2001</Date>
    <Source>Trends Cell Biol. 11(7): 304--311</Source>
    <Title>Toll receptors in innate immunity.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0141281</Identifier>
    <Creator>Lall and Patel</Creator>
    <Date>2001</Date>
    <Source>A. Rev. Genet. 35: 407--437</Source>
    <Title>Conservation and divergence in molecular mechanisms of axis formation.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0139665</Identifier>
    <Creator>Silverman and Maniatis</Creator>
    <Date>2001</Date>
    <Source>Genes Dev. 15(18): 2321--2342</Source>
    <Title>NF-&amp;kgr;B signaling pathways in mammalian and insect innate immunity.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
 </LITERATURE>
 <SUMMARY>
  <text>
   The D. melanogaster gene spatzle, abbreviated as spz, is reported here. It encodes a product with Toll binding involved in maternal determination of dorsal/ventral axis, oocyte, germ-line encoded which is localized to the extracellular matrix; it is expressed in the ovary (ovary). It has been sequenced and its amino acid sequence is also available. It has been mapped by recombination to 3-92 and cytologically to 97E1. It interacts genetically with cact, tld, yeti, nec and cic. There are 49 recorded alleles: 22 in vitro constructs (none available from the public stock centers), 26 classical mutants (3 available from the public stock centers) and 1 wild-type. Amorphic mutations have been isolated which affect the embryonic ventral maternal effect cuticle, the embryonic/larval somatic muscle, the supernumerary (with spz1.9/Df(3R)Bd) ventral furrow and the (with spzbcd.3'UTR/Df(3R)Bd) embryonic/first instar larval cuticle and are embryonic maternal effect recessive lethal and conditional immune response defective. spz is discussed in 182 references (excluding sequence accessions), dated between 1984 and 2004. These include at least 7 studies of mutant phenotypes, 2 studies of wild-type function and 8 molecular studies. Among findings on spz function, spz is required for muscle development in the embryo.
  </text>
 </SUMMARY>
</GeneSummary>
<!-- docurl="flybase-ugp.xml,5435521-5443752" -->


<GeneSummary id="FlyBase:FBgn0003391">
 <Title>FlyBase Gene: shg</Title>
 <Source>FlyBase</Source>
 <Type>Gene Summary</Type>
 <BASIC_INFORMATION>
  <GeneID>FBgn0003391</GeneID>
  <Symbol>shg</Symbol>
  <Full_name>shotgun</Full_name>
  <Species id="taxon:7227">Drosophila melanogaster</Species>
  <Synonyms>
   <Name>CG3722</Name>
   <Name>cadherin</Name>
   <Name>gp150</Name>
   <Name>D-cad</Name>
   <Name>DE-cadherin</Name>
   <Name>E-cadherin</Name>
   <Name>DE-Cadherin</Name>
   <Name>Drosophila E-Cadherin</Name>
   <Name>DE-cad</Name>
   <Name>E-Cadherin</Name>
   <Name>DECad</Name>
   <Name>CADH</Name>
   <Name>l(2)k03401</Name>
   <Name>l(2)k10220</Name>
   <Name>Cad</Name>
   <Name>D-Ecadherin</Name>
   <Name>DE-CAD</Name>
   <Name>Cadherin</Name>
   <Name>DEC</Name>
   <Name>DCad</Name>
   <Name>DCAD2</Name>
   <Name>Ecad</Name>
   <Name>DE&lt;up>cyto&lt;/up></Name>
   <Name>DE</Name>
   <Name>CT12481</Name>
   <Name>shg/DE-Cad</Name>
   <Name>Shg</Name>
   <Name>DE-Cad</Name>
   <Name>E-cad</Name>
   <Name>De-cadherin</Name>
   <Name>E-Cad</Name>
   <Name>CadE</Name>
   <Name>l(2)10469</Name>
   <Name>shg</Name>
   <Name>Cadherin-E</Name>
   <Name>Drosophila E-cadherin</Name>
  </Synonyms>
  <Date>20 Aug 04</Date>
 </BASIC_INFORMATION>
 <LOCATION>
  <Chromosome>2R</Chromosome>
  <Genome_map>complement(16094146..16100703)</Genome_map>
  <Map type="cytogenetic">57B15--16</Map>
  <Scaffold>AE003452</Scaffold>
 </LOCATION>
 <GENE_PRODUCT>
  <Transcripts>
   <Transcript id="FBtr0071546">
    shg-RA
    <Polypeptide id="FBpp0071475">shg-PA (1507 aa)</Polypeptide>
   </Transcript>
  </Transcripts>
 </GENE_PRODUCT>
 <GENE_ONTOLOGY>
  <Molecular_function>
   <goterm id="GO:0008013">
    beta-catenin binding
    <goevidence>
     non-traceable author statement
    </goevidence>
   </goterm>
   <goterm id="GO:0004872">
    receptor activity
    <goevidence>
     inferred from sequence similarity
    </goevidence>
   </goterm>
   <goterm id="GO:0050839">
    cell adhesion molecule binding
    <goevidence>
     inferred from sequence similarity
    </goevidence>
   </goterm>
   <goterm id="GO:0004872">receptor activity</goterm>
   <goterm id="GO:0050839">cell adhesion molecule binding</goterm>
   <goterm id="GO:0008013">beta-catenin binding</goterm>
  </Molecular_function>
  <Biological_process>
   <goterm id="GO:0008356">asymmetric cytokinesis</goterm>
   <goterm id="GO:0007411">axon guidance</goterm>
   <goterm id="GO:0007298">border cell migration (sensu Insecta)</goterm>
   <goterm id="GO:0016339">calcium-dependent cell-cell adhesion</goterm>
   <goterm id="GO:0030031">cell projection biogenesis</goterm>
   <goterm id="GO:0007163">establishment and/or maintenance of cell polarity</goterm>
   <goterm id="GO:0030708">female germ-line cyst encapsulation (sensu Insecta)</goterm>
   <goterm id="GO:0007297">follicle cell migration (sensu Insecta)</goterm>
   <goterm id="GO:0010004">gastrulation (sensu Insecta)</goterm>
   <goterm id="GO:0008354">germ cell migration</goterm>
   <goterm id="GO:0042078">germ-line stem cell renewal</goterm>
   <goterm id="GO:0008406">gonad development</goterm>
   <goterm id="GO:0007506">gonadal mesoderm development</goterm>
   <goterm id="GO:0008258">head involution</goterm>
   <goterm id="GO:0007507">heart development</goterm>
   <goterm id="GO:0007156">homophilic cell adhesion</goterm>
   <goterm id="GO:0002009">morphogenesis of an epithelium</goterm>
   <goterm id="GO:0007399">neurogenesis</goterm>
   <goterm id="GO:0007314">oocyte anterior/posterior axis determination</goterm>
   <goterm id="GO:0030720">oocyte positioning</goterm>
   <goterm id="GO:0009993">oogenesis (sensu Insecta)</goterm>
   <goterm id="GO:0001748">optic placode development (sensu Drosophila)</goterm>
   <goterm id="GO:0007280">pole cell migration</goterm>
   <goterm id="GO:0007165">signal transduction</goterm>
   <goterm id="GO:0035019">somatic stem cell maintenance</goterm>
   <goterm id="GO:0048103">somatic stem cell renewal</goterm>
   <goterm id="GO:0035147">tracheal branch fusion</goterm>
   <goterm id="GO:0007424">tracheal system development (sensu Insecta)</goterm>
  </Biological_process>
  <Cellular_component>
   <goterm id="GO:0005912">adherens junction</goterm>
   <goterm id="GO:0005913">cell-cell adherens junction</goterm>
   <goterm id="GO:0016021">integral to membrane</goterm>
   <goterm id="GO:0005887">integral to plasma membrane</goterm>
   <goterm id="GO:0005886">plasma membrane</goterm>
   <goterm id="GO:0005914">spot adherens junction</goterm>
   <goterm id="GO:0005915">zonula adherens</goterm>
  </Cellular_component>
 </GENE_ONTOLOGY>
 <FUNCTION>
  <Expressions>
   <Expression type="dev_stage">
    embryo
    <Phenotype>gonadal sheath</Phenotype>
    <Phenotype>dorsal ectoderm</Phenotype>
    <Phenotype>ventral neurectoderm</Phenotype>
    <Phenotype>embryonic/larval tracheal system</Phenotype>
    <Phenotype>midgut primordium</Phenotype>
   </Expression>
   <Expression type="dev_stage">
    oogenesis
    <Phenotype>embryonic/larval dorsal vessel</Phenotype>
   </Expression>
  </Expressions>
  <Protein_domains>
   <db_xref>IPR000233 == Cadherin cytoplasmic region</db_xref>
   <db_xref>IPR002126 == Cadherin domain</db_xref>
   <db_xref>SCOP:49313 == Cadherin; shg|FBgn0003391|pp-CT12481|FBan0003722</db_xref>
   <db_xref>SCOP:49899 == Concanavalin A-like lectins/glucanases; shg|FBgn0003391|pp-CT12481|FBan0003722</db_xref>
  </Protein_domains>
  <External_links>
   <db_xref>BDGPisx:shg</db_xref>
   <db_xref>DEDB:1101</db_xref>
   <db_xref>FlyGRID:FBgn0003391</db_xref>
   <db_xref>IFly:../gene/shotgun.htm</db_xref>
   <db_xref>KWgx:FBgn0003391</db_xref>
   <db_xref>NCBI_GEO:FBgn0003391</db_xref>
  </External_links>
 </FUNCTION>
 <LITERATURE>
  <Reference>
   <ref>
    <Identifier>FBrf0159315</Identifier>
    <Creator>Cereijido et al.</Creator>
    <Date>2003</Date>
    <Source>Prog. Biophys. Molec. Biol. 81(2): 81--115</Source>
    <Title>Membrane targeting.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0155680</Identifier>
    <Creator>Muller</Creator>
    <Date>2003</Date>
    <Source>Dev. Cell 4(1): 1--3</Source>
    <Title>Epithelial polarity in flies. More than just crumbs.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0157202</Identifier>
    <Creator>Perez-Moreno</Creator>
    <Date>2003</Date>
    <Source>Cell 112(4): 535--548</Source>
    <Title>[title not yet available]</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
 </LITERATURE>
 <SUMMARY>
  <text>
   The D. melanogaster gene shotgun, abbreviated as shg, is reported here. It has also been known in FlyBase as CadE and l(2)10469. It encodes a product with beta-catenin binding involved in heart development which is a component of the plasma membrane; it is expressed in the embryo (Malpighian tubule, amnioserosa, dorsal ectoderm, embryonic epidermis and 11 other listed tissues). It has been sequenced. It has been mapped by recombination to 2-92 and cytologically to 57B15--16. It interacts genetically with arm, AGO1, zep, N, ct and 28 other listed genes. There are 57 recorded alleles: 39 in vitro constructs (none available from the public stock centers), 17 classical mutants (2 available from the public stock centers) and 1 wild-type. Amorphic mutations have been isolated which affect the endoderm, the ventral embryonic epidermis, the germ-line clone ovary and 20 other listed tissues and are embryonic recessive lethal and cell death increase. shg is discussed in 318 references (excluding sequence accessions), dated between 1984 and 2004. These include at least 26 studies of mutant phenotypes, 8 studies of wild-type function and 10 molecular studies. Among findings on shg mutants, phenotypic analysis of mutants suggests that shg functions to direct adhesion between midgut epithelial cells, and that this adhesion is independent of the adhesion between endoderm and visceral mesoderm. Among findings on shg function, shg regulates several aspects of tracheal tube fusion. (However, there is much more information on function so that may not be representative.)
  </text>
 </SUMMARY>
</GeneSummary>
<!-- docurl="flybase-ugp.xml,3910374-3917349" -->


<GeneSummary id="FlyBase:FBgn0002576">
 <Title>FlyBase Gene: lz</Title>
 <Source>FlyBase</Source>
 <Type>Gene Summary</Type>
 <BASIC_INFORMATION>
  <GeneID>FBgn0002576</GeneID>
  <Symbol>lz</Symbol>
  <Full_name>lozenge</Full_name>
  <Species id="taxon:7227">Drosophila melanogaster</Species>
  <Synonyms>
   <Name>CG1689</Name>
   <Name>fs(1)M69</Name>
   <Name>amx</Name>
   <Name>Lz</Name>
   <Name>fs(1)A1569</Name>
   <Name>spe: spectacled</Name>
   <Name>spectacled</Name>
  </Synonyms>
  <Date>20 Aug 04</Date>
 </BASIC_INFORMATION>
 <LOCATION>
  <Chromosome>X</Chromosome>
  <Genome_map>9023633..9042621</Genome_map>
  <Map type="cytogenetic">8D12</Map>
  <Scaffold>AE003446</Scaffold>
 </LOCATION>
 <GENE_PRODUCT>
  <Transcripts>
   <Transcript id="FBtr0071320">
    lz-RA
    <Polypeptide id="FBpp0071255">lz-PA (826 aa)</Polypeptide>
   </Transcript>
  </Transcripts>
 </GENE_PRODUCT>
 <GENE_ONTOLOGY>
  <Molecular_function>
   <goterm id="GO:0003700">
    transcription factor activity
    <goevidence>
     non-traceable author statement
    </goevidence>
   </goterm>
   <goterm id="GO:0003702">
    RNA polymerase II transcription factor activity
    <goevidence>
     inferred from genetic interaction with FLYBASE:B; FB:FBgn0000154
    </goevidence>
   </goterm>
   <goterm id="GO:0003702">
    RNA polymerase II transcription factor activity
    <goevidence>
     inferred from genetic interaction with FLYBASE:svp; FB:FBgn0003651
    </goevidence>
   </goterm>
   <goterm id="GO:0003702">
    RNA polymerase II transcription factor activity
    <goevidence>
     inferred from sequence similarity with FLYBASE:run; FB:FBgn0003300
    </goevidence>
   </goterm>
   <goterm id="GO:0003702">
    RNA polymerase II transcription factor activity
    <goevidence>
     inferred from sequence similarity with HUGO:RUNX1; OMIM:151385
    </goevidence>
   </goterm>
   <goterm id="GO:0003705">
    RNA polymerase II transcription factor activity, enhancer binding
    <goevidence>
     non-traceable author statement
    </goevidence>
   </goterm>
   <goterm id="GO:0003702">RNA polymerase II transcription factor activity</goterm>
   <goterm id="GO:0003700">transcription factor activity</goterm>
   <goterm id="GO:0003705">RNA polymerase II transcription factor activity, enhancer binding</goterm>
  </Molecular_function>
  <Biological_process>
   <goterm id="GO:0007469">antennal morphogenesis</goterm>
   <goterm id="GO:0030154">cell differentiation</goterm>
   <goterm id="GO:0045165">cell fate commitment</goterm>
   <goterm id="GO:0001709">cell fate determination</goterm>
   <goterm id="GO:0042688">crystal cell differentiation</goterm>
   <goterm id="GO:0006952">defense response</goterm>
   <goterm id="GO:0035165">embryonic crystal cell differentiation</goterm>
   <goterm id="GO:0035162">embryonic hemopoiesis</goterm>
   <goterm id="GO:0007456">eye morphogenesis (sensu Drosophila)</goterm>
   <goterm id="GO:0030097">hemopoiesis</goterm>
   <goterm id="GO:0035170">lymph gland crystal cell differentiation</goterm>
   <goterm id="GO:0035168">lymph gland hemocyte differentiation (sensu Arthropoda)</goterm>
   <goterm id="GO:0000122">negative regulation of transcription from Pol II promoter</goterm>
   <goterm id="GO:0009993">oogenesis (sensu Insecta)</goterm>
   <goterm id="GO:0045944">positive regulation of transcription from Pol II promoter</goterm>
   <goterm id="GO:0007165">signal transduction</goterm>
   <goterm id="GO:0035211">spermathecum morphogenesis</goterm>
  </Biological_process>
  <Cellular_component>
   <goterm id="GO:0005634">nucleus</goterm>
  </Cellular_component>
 </GENE_ONTOLOGY>
 <FUNCTION>
  <Expressions>
  </Expressions>
  <Protein_domains>
   <db_xref>IPR000040 == Acute myeloid leukemia 1 protein (AML 1)/Runt</db_xref>
   <db_xref>SCOP:49417 == p53-like transcription factors; lz|FBgn0002576|pp-CT4670|FBan0001689</db_xref>
  </Protein_domains>
  <External_links>
   <db_xref>DEDB:948</db_xref>
   <db_xref>FlyGRID:FBgn0002576</db_xref>
   <db_xref>IFly:../newgene/lozenge.htm</db_xref>
   <db_xref>NCBI_GEO:FBgn0002576</db_xref>
  </External_links>
 </FUNCTION>
 <LITERATURE>
  <Reference>
   <ref>
    <Identifier>FBrf0144845</Identifier>
    <Creator>Fossett and Schulz</Creator>
    <Date>2001</Date>
    <Source>Differentiation 69(2-3): 83--90</Source>
    <Title>Functional conservation of hematopoietic factors in Drosophila and vertebrates.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0127022</Identifier>
    <Creator>Brennan and Moses</Creator>
    <Date>2000</Date>
    <Source>Cell. Molec. Life Sci. 57(2): 195--214</Source>
    <Title>Determination of Drosophila photoreceptors: timing is everything.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0103259</Identifier>
    <Creator>Fisher and Caudy</Creator>
    <Date>1998</Date>
    <Source>Genes Dev. 12(13): 1931--1940</Source>
    <Title>Groucho proteins: transcriptional corepressors for specific subsets of DNA-binding transcription factors in vertebrates and invertebrates.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0102455</Identifier>
    <Creator>Parkhurst</Creator>
    <Date>1998</Date>
    <Source>Trends Genet. 14(4): 130--132</Source>
    <Title>Groucho: making its Marx as a transcriptional co-repressor.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
 </LITERATURE>
 <SUMMARY>
  <text>
   The D. melanogaster gene lozenge, abbreviated as lz, is reported here. It encodes a product with RNA polymerase II transcription factor activity involved in embryonic hemopoiesis which is a component of the nucleus. It has been sequenced. It has been mapped by recombination to 1-27.7 and cytologically to 8D12. It interacts genetically with su(f), Bgb, sv, Bc, e(we) and 19 other listed genes. There are 154 recorded alleles: 15 in vitro constructs (none available from the public stock centers), 138 classical mutants (20 available from the public stock centers) and 1 wild-type. Amorphic mutations have been isolated which affect the antennal segment 3, the sensillum basiconicum of antennal segment 3, the sensillum trichodeum of antennal segment 3 and 10 other listed tissues and are recessive visible and cell death increase. lz is discussed in 246 references (excluding sequence accessions), dated between 1925 and 2004. These include at least 23 studies of mutant phenotypes, 8 studies of wild-type function and 6 molecular studies. Among findings on lz mutants, mating studies of lz mutants suggests that antennal basiconic sensilla are important for neither the perception of the attraction pheromones of virgin females nor the inhibitory pheromone of mated females. Among findings on lz function, lz acts in a dose-dependent manner to specify the fate of the sensilla trichoidea and sensilla basiconica in the antenna.
  </text>
 </SUMMARY>
</GeneSummary>
<!-- docurl="flybase-ugp.xml,7422892-7428330" -->


<GeneSummary id="FlyBase:FBgn0004636">
 <Title>FlyBase Gene: R</Title>
 <Source>FlyBase</Source>
 <Type>Gene Summary</Type>
 <BASIC_INFORMATION>
  <GeneID>FBgn0004636</GeneID>
  <Symbol>R</Symbol>
  <Full_name>Roughened</Full_name>
  <Species id="taxon:7227">Drosophila melanogaster</Species>
  <Synonyms>
   <Name>CG1956</Name>
   <Name>Dras3</Name>
   <Name>l(3)R</Name>
   <Name>Rap1</Name>
   <Name>l(3)62Bf</Name>
   <Name>E(faf)</Name>
   <Name>Dras62B</Name>
   <Name>RAP1</Name>
   <Name>ras3</Name>
   <Name>RasIII</Name>
   <Name>rap1</Name>
   <Name>ras 3</Name>
   <Name>DRap</Name>
   <Name>DRap1</Name>
   <Name>Rap</Name>
   <Name>C-ras3</Name>
   <Name>Ras3</Name>
   <Name>BEST:GH18528</Name>
   <Name>Enhancer of faf</Name>
  </Synonyms>
  <Date>20 Aug 04</Date>
 </BASIC_INFORMATION>
 <LOCATION>
  <Chromosome>3L</Chromosome>
  <Genome_map>complement(1839743..1842863)</Genome_map>
  <Map type="cytogenetic">62B7</Map>
  <Scaffold>AE003473</Scaffold>
 </LOCATION>
 <GENE_PRODUCT>
  <Transcripts>
   <Transcript id="FBtr0072867">
    R-RA
    <Polypeptide id="FBpp0072746">R-PA (184 aa)</Polypeptide>
   </Transcript>
  </Transcripts>
 </GENE_PRODUCT>
 <GENE_ONTOLOGY>
  <Molecular_function>
   <goterm id="GO:0005525">GTP binding</goterm>
   <goterm id="GO:0005525">
    GTP binding
    <goevidence>
     non-traceable author statement
    </goevidence>
   </goterm>
   <goterm id="GO:0019003">
    GDP binding
    <goevidence>
     non-traceable author statement
    </goevidence>
   </goterm>
   <goterm id="GO:0003924">GTPase activity</goterm>
   <goterm id="GO:0019003">GDP binding</goterm>
   <goterm id="GO:0003924">
    GTPase activity
    <goevidence>
     inferred from sequence similarity with SGD_LOCUS:RAS1; SGD:S0005627
    </goevidence>
   </goterm>
  </Molecular_function>
  <Biological_process>
   <goterm id="GO:0007186">G-protein coupled receptor protein signaling pathway</goterm>
   <goterm id="GO:0046328">NOT regulation of JNK cascade</goterm>
   <goterm id="GO:0007155">cell adhesion</goterm>
   <goterm id="GO:0000910">cytokinesis</goterm>
   <goterm id="GO:0007391">dorsal closure</goterm>
   <goterm id="GO:0006886">intracellular protein transport</goterm>
   <goterm id="GO:0007067">mitosis</goterm>
   <goterm id="GO:0007459">photoreceptor fate commitment (sensu Drosophila)</goterm>
   <goterm id="GO:0006898">receptor mediated endocytosis</goterm>
   <goterm id="GO:0008360">regulation of cell shape</goterm>
   <goterm id="GO:0017157">regulation of exocytosis</goterm>
   <goterm id="GO:0030713">stalk formation</goterm>
  </Biological_process>
 </GENE_ONTOLOGY>
 <FUNCTION>
  <Expressions>
   <Expression type="dev_stage">
    adult
    <Phenotype>genital disc</Phenotype>
   </Expression>
   <Expression type="dev_stage">
    embryo
    <Phenotype>dorsal mesothoracic disc</Phenotype>
   </Expression>
   <Expression type="dev_stage">
    larva
    <Phenotype>eye-antennal disc</Phenotype>
   </Expression>
   <Expression type="dev_stage">
    oogenesis, adult
    <Phenotype>oocyte</Phenotype>
   </Expression>
  </Expressions>
  <Protein_domains>
   <db_xref>IPR001806 == Ras GTPase superfamily</db_xref>
   <db_xref>IPR003577 == RAS small GTPases, Ras subfamily</db_xref>
   <db_xref>SCOP:52540 == P-loop containing nucleotide triphosphate hydrolases; R|FBgn0004636|pp-CT6117|FBan0001956</db_xref>
  </Protein_domains>
  <External_links>
   <db_xref>DEDB:2046</db_xref>
   <db_xref>FlyGRID:FBgn0004636</db_xref>
   <db_xref>Hybrigenics:522180</db_xref>
   <db_xref>NCBI_GEO:FBgn0004636</db_xref>
  </External_links>
 </FUNCTION>
 <LITERATURE>
  <Reference>
   <ref>
    <Identifier>FBrf0128450</Identifier>
    <Creator>Dobens and Raftery</Creator>
    <Date>2000</Date>
    <Source>Dev. Dynamics 218(1): 80--93</Source>
    <Title>Integration of epithelial patterning and morphogenesis in Drosophila ovarian follicle cells.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
 </LITERATURE>
 <SUMMARY>
  <text>
   The D. melanogaster gene Roughened, abbreviated as R, is reported here. It has also been known in FlyBase as BEST:GH18528. It encodes a product with GDP binding involved in dorsal closure which is expressed in the adult (abdominal ganglion, adult brain and thoracic ganglion), larva (dorsal mesothoracic disc, embryonic/larval brain, eye-antennal disc and genital disc) and ovary (oocyte). It has been sequenced and its amino acid sequence contains a ras GTPase superfamily and a RAS small GTPases, Ras subfamily. It has been mapped by recombination to 3-1.4 and cytologically to 62B7. It interacts genetically with faf, dap, Rapgap1, C3G and cno. There are 37 recorded alleles: 10 in vitro constructs (none available from the public stock centers), 26 classical mutants (1 available from the public stock centers) and 1 wild-type. Loss-of-function mutations have been isolated which affect the eye, the ovary, the egg chamber and 6 other listed tissues and are wild-type and larval lethal. R is discussed in 70 references (excluding sequence accessions), dated between 1951 and 2004. These include at least 12 studies of mutant phenotypes, 2 studies of wild-type function, one study of natural polymorphisms and 8 molecular studies. Among findings on R mutants, R mutations disrupt the normal cell fate specification in photoreceptor cells. Among findings on R function, Ras85D and R seem to function via distinct pathways.
  </text>
 </SUMMARY>
</GeneSummary>
<!-- docurl="flybase-ugp.xml,5995799-6002216" -->


<GeneSummary id="FlyBase:FBgn0003691">
 <Title>FlyBase Gene: th</Title>
 <Source>FlyBase</Source>
 <Type>Gene Summary</Type>
 <BASIC_INFORMATION>
  <GeneID>FBgn0003691</GeneID>
  <Symbol>th</Symbol>
  <Full_name>thread</Full_name>
  <Species id="taxon:7227">Drosophila melanogaster</Species>
  <Synonyms>
   <Name>CG12284</Name>
   <Name>DIAP1</Name>
   <Name>l(3)j5C8</Name>
   <Name>D-IAP1</Name>
   <Name>diap1</Name>
   <Name>dIAP-1</Name>
   <Name>D-iap1</Name>
   <Name>Diap1</Name>
   <Name>dIAP1</Name>
   <Name>DIAP-1</Name>
   <Name>IAP</Name>
   <Name>DIAP</Name>
   <Name>dIAP</Name>
   <Name>diap-1</Name>
   <Name>Diap-1/Th</Name>
   <Name>Diap-1</Name>
   <Name>diap1/thread</Name>
   <Name>E(rpr)3-1</Name>
   <Name>Iap1: Inhibitor of apoptosis 1</Name>
   <Name>l(3)72Dc</Name>
   <Name>Inhibitor of apoptosis 1</Name>
  </Synonyms>
  <Date>20 Aug 04</Date>
 </BASIC_INFORMATION>
 <LOCATION>
  <Chromosome>3L</Chromosome>
  <Genome_map>complement(15987284..15999534)</Genome_map>
  <Map type="cytogenetic">72D1</Map>
  <Scaffold>AE003528</Scaffold>
 </LOCATION>
 <GENE_PRODUCT>
  <Transcripts>
   <Transcript id="FBtr0075500">
    th-RA
    <Polypeptide id="FBpp0075255">th-PA (438 aa)</Polypeptide>
   </Transcript>
   <Transcript id="FBtr0075501">
    th-RC
    <Polypeptide id="FBpp0075256">th-PC (438 aa)</Polypeptide>
   </Transcript>
   <Transcript id="FBtr0075499">
    th-RB
    <Polypeptide id="FBpp0075254">th-PB (438 aa)</Polypeptide>
   </Transcript>
  </Transcripts>
 </GENE_PRODUCT>
 <GENE_ONTOLOGY>
  <Molecular_function>
   <goterm id="GO:0004842">
    ubiquitin-protein ligase activity ;  ; EC:6.3.2.19
    <goevidence>
     traceable author statement
    </goevidence>
   </goterm>
   <goterm id="GO:0004842">ubiquitin-protein ligase activity ;  ; EC:6.3.2.19</goterm>
  </Molecular_function>
  <Biological_process>
   <goterm id="GO:0006916">anti-apoptosis</goterm>
   <goterm id="GO:0006915">apoptosis</goterm>
   <goterm id="GO:0008151">cell growth and/or maintenance</goterm>
   <goterm id="GO:0007275">development</goterm>
   <goterm id="GO:0008354">germ cell migration</goterm>
   <goterm id="GO:0001719">inhibition of caspase activation</goterm>
   <goterm id="GO:0043066">negative regulation of apoptosis</goterm>
   <goterm id="GO:0006513">protein monoubiquitination</goterm>
   <goterm id="GO:0042787">protein ubiquitination during ubiquitin-dependent protein catabolism</goterm>
   <goterm id="GO:0007289">spermatid nuclear differentiation</goterm>
  </Biological_process>
 </GENE_ONTOLOGY>
 <FUNCTION>
  <Expressions>
   <Expression type="dev_stage">
    embryo
    <Phenotype>eye-antennal disc</Phenotype>
   </Expression>
  </Expressions>
  <Protein_domains>
   <db_xref>SCOP:57924 == Inhibitor of apoptosis (IAP) repeat; th|FBgn0003691|pp-CT18339|FBan0012284</db_xref>
   <db_xref>SCOP:57924 == Inhibitor of apoptosis (IAP) repeat; th|FBgn0003691|pp-CT43237|FBan0012284</db_xref>
  </Protein_domains>
  <External_links>
   <db_xref>BDGPisx:th</db_xref>
   <db_xref>DEDB:3930</db_xref>
   <db_xref>FlyGRID:FBgn0003691</db_xref>
   <db_xref>Hybrigenics:521236</db_xref>
   <db_xref>Hybrigenics:521527</db_xref>
   <db_xref>KWgx:FBgn0003691</db_xref>
   <db_xref>NCBI_GEO:FBgn0003691</db_xref>
  </External_links>
 </FUNCTION>
 <LITERATURE>
  <Reference>
   <ref>
    <Identifier>FBrf0158735</Identifier>
    <Creator>Claveria and Torres</Creator>
    <Date>2003</Date>
    <Source>Biochem. biophys. Res. Commun. 304(3): 531--537</Source>
    <Title>Mitochondrial apoptotic pathways induced by Drosophila programmed cell death regulators.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0156082</Identifier>
    <Creator>Ditzel and Meier</Creator>
    <Date>2002</Date>
    <Source>Trends Cell Biol. 12(10): 449--452</Source>
    <Title>IAP degradation: decisive blow or altruistic sacrifice?</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0147184</Identifier>
    <Creator>Gorski and Marra</Creator>
    <Date>2002</Date>
    <Source>Physiol. Genomics 9(2): 59--69</Source>
    <Title>Programmed cell death takes flight: genetic and genomic approaches to gene discovery in Drosophila.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0151230</Identifier>
    <Creator>Martin</Creator>
    <Date>2002</Date>
    <Source>Cell 109(7): 793--796</Source>
    <Title>Destabilizing influences in apoptosis: sowing the seeds of IAP destruction.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0152250</Identifier>
    <Creator>Palaga and Osborne</Creator>
    <Date>2002</Date>
    <Source>Nature Cell Biol. 4(6): E149--E151</Source>
    <Title>The 3D's of apoptosis: death, degradation and DIAPs.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0149068</Identifier>
    <Creator>Richardson and Kumar</Creator>
    <Date>2002</Date>
    <Source>J. Immunol. Methods 265(1-2): 21--38</Source>
    <Title>Death to flies: Drosophila as a model system to study programmed cell death.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
 </LITERATURE>
 <SUMMARY>
  <text>
   The D. melanogaster gene thread, abbreviated as th, is reported here. It has also been known in FlyBase as Iap1. It encodes a product with ubiquitin-protein ligase activity (EC:6.3.2.19) involved in anti-apoptosis which is expressed in the larva (eye-antennal disc). It has been sequenced. It has been mapped by recombination to 3-43.2 and cytologically to 72D1. It interacts genetically with rpr, W, Nc, Ark, grim and 12 other listed genes. There are 78 recorded alleles: 41 in vitro constructs (1 available from the public stock centers), 36 classical mutants (4 available from the public stock centers) and 1 wild-type. Loss-of-function mutations have been isolated which affect the embryo and are recessive lethal. th is discussed in 206 references (excluding sequence accessions), dated between 1957 and 2004. These include at least 31 studies of mutant phenotypes, 5 studies of wild-type function and 9 molecular studies. Among findings on th mutants, th mutants exhibit cellularization defects. Among findings on th function, th is necessary to block apoptosis very early in embryonic development.
  </text>
 </SUMMARY>
</GeneSummary>
<!-- docurl="flybase-ugp.xml,6079276-6093230" -->


<GeneSummary id="FlyBase:FBgn0003731">
 <Title>FlyBase Gene: Egfr</Title>
 <Source>FlyBase</Source>
 <Type>Gene Summary</Type>
 <BASIC_INFORMATION>
  <GeneID>FBgn0003731</GeneID>
  <Symbol>Egfr</Symbol>
  <Full_name>Epidermal growth factor receptor</Full_name>
  <Species id="taxon:7227">Drosophila melanogaster</Species>
  <Synonyms>
   <Name>CG10079</Name>
   <Name>CG10079</Name>
   <Name>CG10079</Name>
   <Name>CG10079</Name>
   <Name>c-erbB</Name>
   <Name>flb: faint little ball</Name>
   <Name>top: torpedo</Name>
   <Name>DER</Name>
   <Name>torpedo</Name>
   <Name>l(2)57DEFa</Name>
   <Name>Elp</Name>
   <Name>top/flb</Name>
   <Name>Ellipse</Name>
   <Name>top/DER</Name>
   <Name>l(2)05351</Name>
   <Name>Egf-r</Name>
   <Name>DER/top</Name>
   <Name>EGFr</Name>
   <Name>DER/faint little ball</Name>
   <Name>EGF-R</Name>
   <Name>torpedo/Egfr</Name>
   <Name>Ellipse torpedo</Name>
   <Name>Torpedo/DER</Name>
   <Name>EGFR</Name>
   <Name>DER-Ellipse</Name>
   <Name>Degfr</Name>
   <Name>D-Egf</Name>
   <Name>Torpedo/Egfr</Name>
   <Name>Der: Drosophila epidermal growth factor receptor homologue</Name>
   <Name>DmHD-33</Name>
   <Name>DER flb</Name>
   <Name>egfr</Name>
   <Name>torpedo/DER</Name>
   <Name>Elp-1</Name>
   <Name>Elp-B1</Name>
   <Name>Elp-B1RB1</Name>
   <Name>epidermal growth factor receptor</Name>
   <Name>DER/EGFR</Name>
   <Name>EGF Receptor</Name>
   <Name>EGF receptor</Name>
   <Name>EgfR</Name>
   <Name>Torpedo</Name>
   <Name>DER\torpedo</Name>
   <Name>EK2-6</Name>
   <Name>Egf</Name>
   <Name>l(2)09261</Name>
   <Name>dEGFR</Name>
   <Name>EGF-receptor</Name>
   <Name>dEGFR1</Name>
   <Name>D-EGFR</Name>
   <Name>C-erb</Name>
   <Name>El: Ellipse</Name>
   <Name>HD-33</Name>
   <Name>l(2)57EFa</Name>
   <Name>l(2)57Ea</Name>
   <Name>top</Name>
   <Name>flb</Name>
   <Name>Egfr</Name>
   <Name>Der</Name>
   <Name>faint little ball</Name>
   <Name>Drosophila epidermal growth factor receptor homologue</Name>
  </Synonyms>
  <Date>20 Aug 04</Date>
 </BASIC_INFORMATION>
 <LOCATION>
  <Chromosome>2R</Chromosome>
  <Genome_map>16566556..16602978</Genome_map>
  <Map type="cytogenetic">57E9--F1</Map>
  <Scaffold>AE003454</Scaffold>
 </LOCATION>
 <GENE_PRODUCT>
  <Transcripts>
   <Transcript id="FBtr0071653">
    Egfr-RA
    <Polypeptide id="FBpp0071570">Egfr-PA (1377 aa)</Polypeptide>
   </Transcript>
   <Transcript id="FBtr0071654">
    Egfr-RB
    <Polypeptide id="FBpp0071571">Egfr-PB (1426 aa)</Polypeptide>
   </Transcript>
  </Transcripts>
 </GENE_PRODUCT>
 <GENE_ONTOLOGY>
  <Molecular_function>
   <goterm id="GO:0004888">
    transmembrane receptor activity
    <goevidence>
     traceable author statement
    </goevidence>
   </goterm>
   <goterm id="GO:0005006">
    epidermal growth factor receptor activity
    <goevidence>
     inferred from sequence similarity
    </goevidence>
   </goterm>
   <goterm id="GO:0005006">
    epidermal growth factor receptor activity
    <goevidence>
     traceable author statement
    </goevidence>
   </goterm>
   <goterm id="GO:0008313">
    gurken receptor activity
    <goevidence>
     non-traceable author statement
    </goevidence>
   </goterm>
   <goterm id="GO:0004713">
    protein-tyrosine kinase activity ;  ; EC:2.7.1.112
    <goevidence>
     non-traceable author statement
    </goevidence>
   </goterm>
   <goterm id="GO:0004713">protein-tyrosine kinase activity ;  ; EC:2.7.1.112</goterm>
   <goterm id="GO:0004888">transmembrane receptor activity</goterm>
   <goterm id="GO:0005006">epidermal growth factor receptor activity</goterm>
   <goterm id="GO:0008313">gurken receptor activity</goterm>
   <goterm id="GO:0005006">
    epidermal growth factor receptor activity
    <goevidence>
     inferred from sequence similarity with UniProt:P00533
    </goevidence>
   </goterm>
  </Molecular_function>
  <Biological_process>
   <goterm id="GO:0000086">G2/M transition of mitotic cell cycle</goterm>
   <goterm id="GO:0007443">Malpighian tubule morphogenesis</goterm>
   <goterm id="GO:0045466">R7 differentiation</goterm>
   <goterm id="GO:0007469">antennal morphogenesis</goterm>
   <goterm id="GO:0009952">anterior/posterior pattern formation</goterm>
   <goterm id="GO:0006916">anti-apoptosis</goterm>
   <goterm id="GO:0007350">blastoderm segmentation</goterm>
   <goterm id="GO:0007298">border cell migration (sensu Insecta)</goterm>
   <goterm id="GO:0007420">brain development</goterm>
   <goterm id="GO:0046845">branch cell fate determination (sensu Insecta)</goterm>
   <goterm id="GO:0045165">cell fate commitment</goterm>
   <goterm id="GO:0001709">cell fate determination</goterm>
   <goterm id="GO:0030031">cell projection biogenesis</goterm>
   <goterm id="GO:0001745">compound eye morphogenesis (sensu Drosophila)</goterm>
   <goterm id="GO:0007466">cone cell fate commitment (sensu Drosophila)</goterm>
   <goterm id="GO:0007391">dorsal closure</goterm>
   <goterm id="GO:0009950">dorsal/ventral axis specification</goterm>
   <goterm id="GO:0009953">dorsal/ventral pattern formation</goterm>
   <goterm id="GO:0030381">eggshell pattern formation (sensu Insecta)</goterm>
   <goterm id="GO:0000578">embryonic axis specification</goterm>
   <goterm id="GO:0009880">embryonic pattern specification</goterm>
   <goterm id="GO:0007173">epidermal growth factor receptor signaling pathway</goterm>
   <goterm id="GO:0007456">eye morphogenesis (sensu Drosophila)</goterm>
   <goterm id="GO:0048139">female germ-line cyst encapsulation</goterm>
   <goterm id="GO:0007369">gastrulation</goterm>
   <goterm id="GO:0007390">germ-band shortening</goterm>
   <goterm id="GO:0008314">gurken receptor signaling pathway</goterm>
   <goterm id="GO:0007444">imaginal disc development</goterm>
   <goterm id="GO:0007447">imaginal disc pattern formation</goterm>
   <goterm id="GO:0007479">leg disc proximal/distal pattern formation</goterm>
   <goterm id="GO:0048140">male germ-line cyst encapsulation</goterm>
   <goterm id="GO:0008071">maternal determination of dorsal/ventral axis, follicular epithelium, soma encoded (sensu Insecta)</goterm>
   <goterm id="GO:0002009">morphogenesis of an epithelium</goterm>
   <goterm id="GO:0016333">morphogenesis of follicular epithelium</goterm>
   <goterm id="GO:0016203">muscle attachment</goterm>
   <goterm id="GO:0042694">muscle cell fate specification</goterm>
   <goterm id="GO:0046673">negative regulation of retinal programmed cell death (sensu Drosophila)</goterm>
   <goterm id="GO:0007477">notum morphogenesis</goterm>
   <goterm id="GO:0001742">oenocyte differentiation</goterm>
   <goterm id="GO:0016318">ommatidial rotation</goterm>
   <goterm id="GO:0048112">oocyte anterior/posterior axis determination (sensu Insecta)</goterm>
   <goterm id="GO:0007314">oocyte anterior/posterior axis determination</goterm>
   <goterm id="GO:0007310">oocyte dorsal/ventral axis determination</goterm>
   <goterm id="GO:0009993">oogenesis (sensu Insecta)</goterm>
   <goterm id="GO:0007467">photoreceptor differentiation (sensu Drosophila)</goterm>
   <goterm id="GO:0007459">photoreceptor fate commitment (sensu Drosophila)</goterm>
   <goterm id="GO:0007458">progression of morphogenetic furrow (sensu Drosophila)</goterm>
   <goterm id="GO:0006468">protein amino acid phosphorylation</goterm>
   <goterm id="GO:0045468">regulation of R8 spacing</goterm>
   <goterm id="GO:0007346">regulation of mitotic cell cycle</goterm>
   <goterm id="GO:0007431">salivary gland development</goterm>
   <goterm id="GO:0016330">second mitotic wave (sensu Drosophila)</goterm>
   <goterm id="GO:0007421">stomatogastric nervous system development</goterm>
   <goterm id="GO:0007424">tracheal system development (sensu Insecta)</goterm>
   <goterm id="GO:0007472">wing disc metamorphosis</goterm>
   <goterm id="GO:0007473">wing disc proximal/distal pattern formation</goterm>
   <goterm id="GO:0007476">wing morphogenesis</goterm>
   <goterm id="GO:0008586">wing vein morphogenesis</goterm>
   <goterm id="GO:0007474">wing vein specification</goterm>
  </Biological_process>
  <Cellular_component>
   <goterm id="GO:0005887">integral to plasma membrane</goterm>
   <goterm id="GO:0005886">plasma membrane</goterm>
  </Cellular_component>
 </GENE_ONTOLOGY>
 <FUNCTION>
  <Expressions>
   <Expression type="dev_stage">
    adult
    <Phenotype>genital disc</Phenotype>
    <Phenotype>imaginal disc</Phenotype>
    <Phenotype>larval brain</Phenotype>
    <Phenotype>ovary</Phenotype>
   </Expression>
   <Expression type="dev_stage">
    embryo
    <Phenotype>larval brain</Phenotype>
    <Phenotype>dorsal mesothoracic disc</Phenotype>
    <Phenotype>nurse cell</Phenotype>
    <Phenotype>ectoderm</Phenotype>
    <Phenotype>stomodeum</Phenotype>
    <Phenotype>labral segment</Phenotype>
    <Phenotype>embryonic gnathal segment</Phenotype>
    <Phenotype>embryonic/larval midgut</Phenotype>
    <Phenotype>embryonic/larval proventriculus</Phenotype>
    <Phenotype>embryonic/larval fat body</Phenotype>
    <Phenotype>embryonic/larval pharynx</Phenotype>
    <Phenotype>cephalic furrow</Phenotype>
    <Phenotype>ventral midline</Phenotype>
   </Expression>
   <Expression type="dev_stage">
    larva
    <Phenotype>eye-antennal disc</Phenotype>
    <Phenotype>oocyte</Phenotype>
    <Phenotype>celular blastoderm</Phenotype>
    <Phenotype>mesoderm</Phenotype>
    <Phenotype>embryonic/larval posterior spiracle</Phenotype>
    <Phenotype>antennal disc</Phenotype>
   </Expression>
   <Expression type="dev_stage">
    oogenesis
    <Phenotype>follicle cell</Phenotype>
   </Expression>
   <Expression type="dev_stage">
    pupa
    <Phenotype>imaginal disc</Phenotype>
   </Expression>
   <Expression type="dev_stage">
    pupa, adult
    <Phenotype>embryonic telson</Phenotype>
   </Expression>
  </Expressions>
  <Protein_domains>
   <db_xref>IPR000494 == Epidermal  growth-factor receptor (EGFR), L domain</db_xref>
   <db_xref>IPR000719 == Eukaryotic protein kinase</db_xref>
   <db_xref>IPR001245 == Tyrosine kinase catalytic domain</db_xref>
   <db_xref>IPR002174 == Furin-like cysteine rich region</db_xref>
   <db_xref>SCOP:48695 == Multiheme cytochromes; Egfr|FBgn0003731|pp-CT28361|FBan0010079</db_xref>
   <db_xref>SCOP:52058 == L domain-like; Egfr|FBgn0003731|pp-CT28361|FBan0010079</db_xref>
   <db_xref>SCOP:56112 == Protein kinase-like (PK-like); Egfr|FBgn0003731|pp-CT28361|FBan0010079</db_xref>
   <db_xref>SCOP:57184 == IGF binding domain; Egfr|FBgn0003731|pp-CT28361|FBan0010079</db_xref>
  </Protein_domains>
  <External_links>
   <db_xref>BDGPisx:Egfr</db_xref>
   <db_xref>DEDB:1232</db_xref>
   <db_xref>FlyGRID:FBgn0003731</db_xref>
   <db_xref>IFly:../torstoll/egf-r1.htm</db_xref>
   <db_xref>NCBI_GEO:FBgn0003731</db_xref>
  </External_links>
 </FUNCTION>
 <LITERATURE>
  <Reference>
   <ref>
    <Identifier>FBrf0155681</Identifier>
    <Creator>Affolter et al.</Creator>
    <Date>2003</Date>
    <Source>Dev. Cell 4(1): 11--18</Source>
    <Title>Tube or not tube. Remodeling epithelial tissues by branching morphogenesis.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0158927</Identifier>
    <Creator>Shilo</Creator>
    <Date>2003</Date>
    <Source>Exp. Cell Res. 284(1): 140--149</Source>
    <Title>Signaling by the Drosophila epidermal growth factor receptor pathway during development.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0158727</Identifier>
    <Creator>de Celis</Creator>
    <Date>2003</Date>
    <Source>BioEssays 25(5): 443--451</Source>
    <Title>Pattern formation in the Drosophila wing: the development of the veins.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
 </LITERATURE>
 <SUMMARY>
  <text>
   The D. melanogaster gene Epidermal growth factor receptor, abbreviated as Egfr, is reported here. It has also been known in FlyBase as HD-33 and l(2)05351. It encodes a product with epidermal growth factor receptor activity involved in eye morphogenesis (sensu Drosophila) which is a component of the integral to plasma membrane; it is expressed in the adult (cerebral cortex, follicle cell, proventriculus and thoracic ganglion), embryo (apodeme, cellular blastoderm, celular blastoderm, cephalic furrow and 19 other listed tissues), larva (Malpighian tubule, antennal disc, dorsal mesothoracic disc, embryonic/larval salivary gland and 15 other listed tissues), ovary (follicle cell, nurse cell and oocyte) and prepupa and pupa (adult foregut, adult hindgut and adult fat body). It has been sequenced and its amino acid sequence contains an epidermal  growth-factor receptor (EGFR), L domain, an eukaryotic protein kinase, a tyrosine kinase catalytic domain and a furin-like cysteine rich region. It has been mapped by recombination to 2-101 and cytologically to 57E9--F1. It interacts genetically with vn, ed, N, rho, Ras85D and 81 other listed genes. There are 139 recorded alleles: 27 in vitro constructs (2 available from the public stock centers), 111 classical mutants (6 available from the public stock centers) and 1 wild-type. Amorphic mutations have been isolated which affect the somatic clone wing, the somatic clone leg, the somatic clone head and 8 other listed tissues and are embryonic recessive lethal, partially somatic clone cell lethal and recessive visible. Egfr is discussed in 835 references (excluding sequence accessions), dated between 1960 and 2004. These include at least 136 studies of mutant phenotypes, 33 studies of wild-type function and 15 molecular studies. Among findings on Egfr mutants, Egfr is necessary for proper wing venation, development of the arista, legs and female genital disc and mutations alter the distribution of macrochaetae. Among findings on Egfr function, Egfr signalling regulates ommatidial rotation and cell motility in the eye. (However, there is much more information on function so that may not be representative.)
  </text>
 </SUMMARY>
</GeneSummary>
<!-- docurl="flybase-ugp.xml,4659064-4665535" -->


<GeneSummary id="FlyBase:FBgn0003028">
 <Title>FlyBase Gene: ovo</Title>
 <Source>FlyBase</Source>
 <Type>Gene Summary</Type>
 <BASIC_INFORMATION>
  <GeneID>FBgn0003028</GeneID>
  <Symbol>ovo</Symbol>
  <Full_name>ovo</Full_name>
  <Species id="taxon:7227">Drosophila melanogaster</Species>
  <Synonyms>
   <Name>CG6824</Name>
   <Name>CG15467</Name>
   <Name>CG6824</Name>
   <Name>CG15467</Name>
   <Name>fs(1)M1</Name>
   <Name>fs(1)M38</Name>
   <Name>Fs(1)K1103</Name>
   <Name>svb: shaven baby</Name>
   <Name>Ovo</Name>
   <Name>fs(1)K1237</Name>
   <Name>ovo/svb</Name>
   <Name>Shavenbaby</Name>
   <Name>Svb</Name>
   <Name>OVO</Name>
   <Name>ovo/shaven-baby</Name>
   <Name>shaven baby</Name>
   <Name>shavenbaby</Name>
   <Name>ovo/shavenbaby</Name>
   <Name>Ovo-D</Name>
   <Name>Fs(1)K1237</Name>
   <Name>Fs(1)K155</Name>
   <Name>svb</Name>
  </Synonyms>
  <Date>20 Aug 04</Date>
 </BASIC_INFORMATION>
 <LOCATION>
  <Chromosome>X</Chromosome>
  <Genome_map>4788911..4810318</Genome_map>
  <Map type="cytogenetic">4E2</Map>
  <Scaffold>AE003433</Scaffold>
 </LOCATION>
 <GENE_PRODUCT>
  <Transcripts>
   <Transcript id="FBtr0070739">
    ovo-RC
    <Polypeptide id="FBpp0070707">ovo-PC (1222 aa)</Polypeptide>
   </Transcript>
   <Transcript id="FBtr0070738">
    ovo-RB
    <Polypeptide id="FBpp0070706">ovo-PB (1351 aa)</Polypeptide>
   </Transcript>
   <Transcript id="FBtr0070740">
    ovo-RA
    <Polypeptide id="FBpp0070708">ovo-PA (975 aa)</Polypeptide>
   </Transcript>
  </Transcripts>
 </GENE_PRODUCT>
 <GENE_ONTOLOGY>
  <Molecular_function>
   <goterm id="GO:0003677">DNA binding</goterm>
   <goterm id="GO:0003677">
    DNA binding
    <goevidence>
     traceable author statement
    </goevidence>
   </goterm>
   <goterm id="GO:0003702">
    RNA polymerase II transcription factor activity
    <goevidence>
     inferred from sequence similarity with PIR:S59069
    </goevidence>
   </goterm>
   <goterm id="GO:0003702">RNA polymerase II transcription factor activity</goterm>
  </Molecular_function>
  <Biological_process>
   <goterm id="GO:0042335">cuticle biosynthesis</goterm>
   <goterm id="GO:0019099">female germ-line sex determination</goterm>
   <goterm id="GO:0009993">oogenesis (sensu Insecta)</goterm>
   <goterm id="GO:0042810">pheromone metabolism</goterm>
   <goterm id="GO:0045449">regulation of transcription</goterm>
   <goterm id="GO:0006366">transcription from Pol II promoter</goterm>
  </Biological_process>
  <Cellular_component>
   <goterm id="GO:0005634">nucleus</goterm>
  </Cellular_component>
 </GENE_ONTOLOGY>
 <FUNCTION>
  <Expressions>
   <Expression type="dev_stage">
    embryo
    <Phenotype>pole cell</Phenotype>
    <Phenotype>embryonic labial segment</Phenotype>
    <Phenotype>dorsal ridge</Phenotype>
    <Phenotype>stomatogastric nervous system</Phenotype>
    <Phenotype>dorsal hair</Phenotype>
    <Phenotype>embryonic/larval pharynx</Phenotype>
    <Phenotype>antenna</Phenotype>
    <Phenotype>intercalary segment</Phenotype>
    <Phenotype>denticle belt</Phenotype>
    <Phenotype>gonad</Phenotype>
    <Phenotype>cephalic furrow</Phenotype>
   </Expression>
   <Expression type="dev_stage">
    oogenesis
    <Phenotype>nurse cell</Phenotype>
    <Phenotype>egg chamber</Phenotype>
   </Expression>
   <Expression type="dev_stage">
    oogenesis, adult
    <Phenotype>follicle cell</Phenotype>
    <Phenotype>nurse cell</Phenotype>
    <Phenotype>germarium</Phenotype>
   </Expression>
  </Expressions>
  <Protein_domains>
   <db_xref>IPR000822 == Zinc finger, C2H2 type</db_xref>
   <db_xref>SCOP:57667 == C2H2 and C2HC zinc fingers; ovo|FBgn0003028|pp-CT21113|FBan0006824</db_xref>
   <db_xref>SCOP:57667 == C2H2 and C2HC zinc fingers; ovo|FBgn0003028|pp-CT36311|FBan0006824</db_xref>
  </Protein_domains>
  <External_links>
   <db_xref>DEDB:523</db_xref>
   <db_xref>FlyGRID:FBgn0003028</db_xref>
   <db_xref>IFly:../dbzhnsky/ovo1.htm</db_xref>
   <db_xref>NCBI_GEO:FBgn0003028</db_xref>
  </External_links>
 </FUNCTION>
 <LITERATURE>
  <Reference>
   <ref>
    <Identifier>FBrf0132358</Identifier>
    <Creator>Mahowald</Creator>
    <Date>2001</Date>
    <Source>Etkin, Jeon, 2001: 187--213</Source>
    <Title>Assembly of the Drosophila germ plasm.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0125416</Identifier>
    <Creator>Schutt and Nothiger</Creator>
    <Date>2000</Date>
    <Source>Development 127(4): 667--677</Source>
    <Title>Structure, function and evolution of sex-determining systems in Dipteran insects.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0102689</Identifier>
    <Creator>Perrimon</Creator>
    <Date>1998</Date>
    <Source>Int. J. Dev. Biol. 42(3): 243--247</Source>
    <Title>Creating mosaics in Drosophila.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
 </LITERATURE>
 <SUMMARY>
  <text>
   The D. melanogaster gene ovo is reported here. It has also been known in FlyBase as CG15467. It encodes a product with RNA polymerase II transcription factor activity involved in regulation of transcription which is localized to the nucleus; it is expressed in the adult (male germline stem cell), embryo (antenna, cephalic furrow, denticle belt, dorsal hair and 8 other listed tissues), larva (gonad) and ovary (female germline stem cell, follicle cell, germarium, nurse cell and 2 other listed tissues). It has been sequenced and its amino acid sequence contains a zinc finger, C2H2 type. It has been mapped by recombination to 1-10.2 and cytologically to 4E2. It interacts genetically with mle, snf, Sxl, Egfr, Ras85D and 6 other listed genes. There are 172 recorded alleles: 41 in vitro constructs (1 available from the public stock centers), 130 classical mutants (7 available from the public stock centers) and 1 wild-type. Amorphic mutations have been isolated which affect the egg chamber and are polyphasic lethal. ovo is discussed in 203 references (excluding sequence accessions), dated between 1977 and 2065. These include at least 26 studies of mutant phenotypes, 7 studies of wild-type function, one study of natural polymorphisms and 8 molecular studies. Among findings on ovo mutants, ovo mutants display short denticles that are reduced in number and an absence of dorsal hairs. Among findings on ovo function, ovo is necessary and sufficient for cells to grow F-actin based extensions.
  </text>
 </SUMMARY>
</GeneSummary>
<!-- docurl="flybase-ugp.xml,24774-31576" -->


<GeneSummary id="FlyBase:FBgn0000014">
 <Title>FlyBase Gene: abd-A</Title>
 <Source>FlyBase</Source>
 <Type>Gene Summary</Type>
 <BASIC_INFORMATION>
  <GeneID>FBgn0000014</GeneID>
  <Symbol>abd-A</Symbol>
  <Full_name>abdominal A</Full_name>
  <Species id="taxon:7227">Drosophila melanogaster</Species>
  <Synonyms>
   <Name>CG10325</Name>
   <Name>CG10325</Name>
   <Name>Hab: Hyperabdominal</Name>
   <Name>iab-2</Name>
   <Name>iab-5</Name>
   <Name>abdA</Name>
   <Name>AbdA</Name>
   <Name>abd-a</Name>
   <Name>iab-4</Name>
   <Name>Cbxd: Contrabithoraxoid</Name>
   <Name>iab2: infra-abdominal 2</Name>
   <Name>iab3: infra-abdominal 3</Name>
   <Name>iab4: infra-abdominal 4</Name>
   <Name>abd A</Name>
   <Name>Abd-A</Name>
   <Name>abda</Name>
   <Name>DmabdA</Name>
   <Name>iab-3</Name>
   <Name>Abda</Name>
   <Name>Ultraabdominal</Name>
   <Name>iab: infraabdominal</Name>
   <Name>l(3)89Ec</Name>
   <Name>iab4</Name>
   <Name>Hab</Name>
   <Name>Cbxd</Name>
   <Name>Contrabithoraxoid</Name>
   <Name>infra-abdominal 2</Name>
   <Name>infraabdominal</Name>
   <Name>infra-abdominal 3</Name>
   <Name>infra-abdominal 4</Name>
   <Name>iab2</Name>
   <Name>iab3</Name>
   <Name>Hyperabdominal</Name>
  </Synonyms>
  <Date>20 Aug 04</Date>
 </BASIC_INFORMATION>
 <LOCATION>
  <Chromosome>3R</Chromosome>
  <Genome_map>complement(12633362..12655788)</Genome_map>
  <Map type="cytogenetic">89E2</Map>
  <Scaffold>AE003715</Scaffold>
 </LOCATION>
 <GENE_PRODUCT>
  <Transcripts>
   <Transcript id="FBtr0083388">
    abd-A-RB
    <Polypeptide id="FBpp0082829">abd-A-PB (590 aa)</Polypeptide>
   </Transcript>
   <Transcript id="FBtr0083387">
    abd-A-RA
    <Polypeptide id="FBpp0082828">abd-A-PA (330 aa)</Polypeptide>
   </Transcript>
  </Transcripts>
 </GENE_PRODUCT>
 <GENE_ONTOLOGY>
  <Molecular_function>
   <goterm id="GO:0003704">
    specific RNA polymerase II transcription factor activity
    <goevidence>
     non-traceable author statement
    </goevidence>
   </goterm>
   <goterm id="GO:0003704">specific RNA polymerase II transcription factor activity</goterm>
  </Molecular_function>
  <Biological_process>
   <goterm id="GO:0009948">anterior/posterior axis specification</goterm>
   <goterm id="GO:0006915">apoptosis</goterm>
   <goterm id="GO:0008151">cell growth and/or maintenance</goterm>
   <goterm id="GO:0008354">germ cell migration</goterm>
   <goterm id="GO:0008406">gonad development</goterm>
   <goterm id="GO:0007507">heart development</goterm>
   <goterm id="GO:0035053">heart proper cell fate commitment (sensu Insecta)</goterm>
   <goterm id="GO:0007501">mesoderm cell fate specification</goterm>
   <goterm id="GO:0007494">midgut development</goterm>
   <goterm id="GO:0007399">neurogenesis</goterm>
   <goterm id="GO:0007438">oenocyte development</goterm>
   <goterm id="GO:0007422">peripheral nervous system development</goterm>
   <goterm id="GO:0006357">regulation of transcription from Pol II promoter</goterm>
   <goterm id="GO:0007385">specification of segmental identity, abdomen</goterm>
  </Biological_process>
  <Cellular_component>
   <goterm id="GO:0005634">nucleus</goterm>
  </Cellular_component>
 </GENE_ONTOLOGY>
 <FUNCTION>
  <Expressions>
   <Expression type="dev_stage">
    embryo
    <Phenotype>parasegment 7-13</Phenotype>
   </Expression>
  </Expressions>
  <Protein_domains>
   <db_xref>IPR001356 == Homeobox domain</db_xref>
   <db_xref>IPR001827 == 'Homeobox' antennapedia-type protein</db_xref>
   <db_xref>SCOP:46689 == Homeodomain-like; abd-A|FBgn0000014|pp-CT28977|FBan0010325</db_xref>
   <db_xref>SCOP:46689 == Homeodomain-like; abd-A|FBgn0000014|pp-CT29034|FBan0010325</db_xref>
  </Protein_domains>
  <External_links>
   <db_xref>DEDB:9540</db_xref>
   <db_xref>FlyGRID:FBgn0000014</db_xref>
   <db_xref>IFly:../segment/abdmla1.htm</db_xref>
   <db_xref>KWgx:FBgn0000014</db_xref>
   <db_xref>NCBI_GEO:FBgn0000014</db_xref>
  </External_links>
 </FUNCTION>
 <LITERATURE>
  <Reference>
   <ref>
    <Identifier>FBrf0156093</Identifier>
    <Creator>Christiansen et al.</Creator>
    <Date>2002</Date>
    <Source>Trends Genet. 18(10): 510--516</Source>
    <Title>Sex comes in from the cold: the integration of sex and pattern.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0151731</Identifier>
    <Creator>Duncan</Creator>
    <Date>2002</Date>
    <Source>A. Rev. Genet. 36: 521--556</Source>
    <Title>Transvection effects in Drosophila.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0139881</Identifier>
    <Creator>Mattick and Gagen</Creator>
    <Date>2001</Date>
    <Source>Molec. Biol. Evol. 18(9): 1611--1630</Source>
    <Title>The evolution of controlled multitasked gene networks: the role of introns and other noncoding RNAs in the development of complex organisms.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
 </LITERATURE>
 <SUMMARY>
  <text>
   The D. melanogaster gene abdominal A, abbreviated as abd-A, is reported here. It encodes a product with specific RNA polymerase II transcription factor activity involved in oenocyte development which is localized to the nucleus; it is expressed in the embryo (ISN, abdominal 4-7 vental intersegmental neuron, amnioserosa, anterior and 18 other listed tissues) and larva (dorsal mesothoracic disc, female genital disc and male genital disc). It has been sequenced and its amino acid sequence contains a homeobox domain and a 'Homeobox' antennapedia-type domain. It has been mapped by recombination to 3-58.8 and cytologically to 89E2. It interacts genetically with su(Hw), Ubx, Abd-B, Dfd, lab and 5 other listed genes. There are 86 recorded alleles: 11 in vitro constructs (1 available from the public stock centers), 74 classical mutants (7 available from the public stock centers) and 1 wild-type. Amorphic mutations have been isolated which affect the midgut constriction, the parasegment 7 to 9, the parasegment 10 to 13 and 11 other listed tissues and are homeotic recessive lethal. abd-A is discussed in 449 references (excluding sequence accessions), dated between 1963 and 2004. These include at least 22 studies of mutant phenotypes, 18 studies of wild-type function, 3 studies of natural polymorphisms and 49 molecular studies. Among findings on abd-A mutants, recessive mutations of the Hab group of abd-A alleles have been isolated as revertants of a dominant gain-of-function abd-A mutation. Among findings on abd-A function, a burst of abd-A expression in the postembryonic neuroblasts specifies the time at which apoptosis occurs, determining the number of progeny generated by each neuroblast. (However, there is much more information on function so that may not be representative.)
  </text>
 </SUMMARY>
</GeneSummary>
<!-- docurl="flybase-ugp.xml,4793160-4798935" -->


<GeneSummary id="FlyBase:FBgn0003090">
 <Title>FlyBase Gene: pk</Title>
 <Source>FlyBase</Source>
 <Type>Gene Summary</Type>
 <BASIC_INFORMATION>
  <GeneID>FBgn0003090</GeneID>
  <Symbol>pk</Symbol>
  <Full_name>prickle</Full_name>
  <Species id="taxon:7227">Drosophila melanogaster</Species>
  <Synonyms>
   <Name>CG12830</Name>
   <Name>CG11084</Name>
   <Name>CG12830</Name>
   <Name>sple</Name>
   <Name>pk-sple</Name>
   <Name>prickle-spiny-legs</Name>
   <Name>prickle-spiny legs</Name>
   <Name>Pk-Sple</Name>
   <Name>spiny legs</Name>
  </Synonyms>
  <Date>20 Aug 04</Date>
 </BASIC_INFORMATION>
 <LOCATION>
  <Chromosome>2R</Chromosome>
  <Genome_map>2211604..2284282</Genome_map>
  <Map type="cytogenetic">43A1--2</Map>
  <Scaffold>AE003842</Scaffold>
 </LOCATION>
 <GENE_PRODUCT>
  <Transcripts>
   <Transcript id="FBtr0089044">
    pk-RC
    <Polypeptide id="FBpp0088115">pk-PC (1299 aa)</Polypeptide>
   </Transcript>
   <Transcript id="FBtr0089043">
    pk-RB
    <Polypeptide id="FBpp0088114">pk-PB (1029 aa)</Polypeptide>
   </Transcript>
   <Transcript id="FBtr0089042">
    pk-RA
    <Polypeptide id="FBpp0088113">pk-PA (963 aa)</Polypeptide>
   </Transcript>
  </Transcripts>
 </GENE_PRODUCT>
 <GENE_ONTOLOGY>
  <Molecular_function>
   <goterm id="GO:0005515">
    protein binding
    <goevidence>
     non-traceable author statement
    </goevidence>
   </goterm>
   <goterm id="GO:0005200">
    structural constituent of cytoskeleton
    <goevidence>
     inferred from electronic annotation
    </goevidence>
   </goterm>
   <goterm id="GO:0005200">structural constituent of cytoskeleton</goterm>
   <goterm id="GO:0005515">protein binding</goterm>
  </Molecular_function>
  <Biological_process>
   <goterm id="GO:0007163">establishment and/or maintenance of cell polarity</goterm>
   <goterm id="GO:0042067">establishment of ommatidial polarity (sensu Drosophila)</goterm>
   <goterm id="GO:0001736">establishment of planar polarity</goterm>
   <goterm id="GO:0045184">establishment of protein localization</goterm>
   <goterm id="GO:0001737">establishment of wing hair orientation</goterm>
   <goterm id="GO:0007276">gametogenesis</goterm>
   <goterm id="GO:0045185">maintenance of protein localization</goterm>
   <goterm id="GO:0008104">protein localization</goterm>
  </Biological_process>
  <Cellular_component>
   <goterm id="GO:0005737">cytoplasm</goterm>
   <goterm id="GO:0016020">membrane</goterm>
  </Cellular_component>
 </GENE_ONTOLOGY>
 <FUNCTION>
  <Expressions>
   <Expression type="dev_stage">
    embryo
    <Phenotype>cephalic furrow</Phenotype>
   </Expression>
   <Expression type="dev_stage">
    larva
    <Phenotype>ventral midline</Phenotype>
    <Phenotype>morphogenetic furrow</Phenotype>
   </Expression>
   <Expression type="dev_stage">
    pupa
    <Phenotype>imaginal disc</Phenotype>
   </Expression>
  </Expressions>
  <Protein_domains>
   <db_xref>SCOP:57716 == Glucocorticoid receptor-like (DNA-binding domain); pk|FBgn0003090|pp-CT42406|FBan0011084</db_xref>
  </Protein_domains>
  <External_links>
   <db_xref>DEDB:13361</db_xref>
   <db_xref>FlyGRID:FBgn0003090</db_xref>
   <db_xref>Hybrigenics:522691</db_xref>
   <db_xref>IFly:../dbzhnsky/prickl1.htm</db_xref>
   <db_xref>NCBI_GEO:FBgn0003090</db_xref>
  </External_links>
 </FUNCTION>
 <LITERATURE>
  <Reference>
   <ref>
    <Identifier>FBrf0156094</Identifier>
    <Creator>Mlodzik</Creator>
    <Date>2002</Date>
    <Source>Trends Genet. 18(11): 564--571</Source>
    <Title>Planar cell polarization: do the same mechanisms regulate Drosophila tissue polarity and vertebrate gastrulation?</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0156198</Identifier>
    <Creator>Tree et al.</Creator>
    <Date>2002</Date>
    <Source>Semin. Cell Dev. Biol. 13(3): 217--224</Source>
    <Title>A three-tiered mechanism for regulation of planar cell polarity.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0127237</Identifier>
    <Creator>Mlodzik</Creator>
    <Date>2000</Date>
    <Source>BioEssays 22(4): 311--315</Source>
    <Title>Spiny legs and prickled bodies: new insights and complexities in planar polarity establishment.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
 </LITERATURE>
 <SUMMARY>
  <text>
   The D. melanogaster gene prickle, abbreviated as pk, is reported here. It has also been known in FlyBase as CG11084, CG12830 and sple. It encodes a product with protein binding involved in establishment and/or maintenance of cell polarity which is a component of the membrane; it is expressed in the embryo (cephalic furrow and ventral midline), larva (dorsal mesothoracic disc, eye disc, imaginal disc and morphogenetic furrow) and prepupa and pupa (leg and wing). It has been sequenced. It has been mapped by recombination to 2-55.3 and cytologically to 43A1--2. It interacts genetically with Vang, dsh, fz, N, Rac1 and 5 other listed genes. There are 84 recorded alleles: 7 in vitro constructs (none available from the public stock centers), 76 classical mutants (6 available from the public stock centers) and 1 wild-type. Amorphic mutations have been isolated which affect the ectopic joint, the leg, the trichome and 8 other listed tissues and are tissue polarity, recessive visible and somatic clone (with pkpk-sple-13) tissue polarity. pk is discussed in 120 references (excluding sequence accessions), dated between 1944 and 2004. These include at least 12 studies of mutant phenotypes, 4 studies of wild-type function and 5 molecular studies. Among findings on pk function, pk is required for a feedback loop that generates asymmetric planar cell polarity signalling in the wing.
  </text>
 </SUMMARY>
</GeneSummary>
<!-- docurl="flybase-ugp.xml,7440735-7453802" -->


<GeneSummary id="FlyBase:FBgn0004644">
 <Title>FlyBase Gene: hh</Title>
 <Source>FlyBase</Source>
 <Type>Gene Summary</Type>
 <BASIC_INFORMATION>
  <GeneID>FBgn0004644</GeneID>
  <Symbol>hh</Symbol>
  <Full_name>hedgehog</Full_name>
  <Species id="taxon:7227">Drosophila melanogaster</Species>
  <Synonyms>
   <Name>CG4637</Name>
   <Name>l(3)hh</Name>
   <Name>l(3)neo56</Name>
   <Name>bar-3: bar-on-3</Name>
   <Name>bar</Name>
   <Name>bar3</Name>
   <Name>hg</Name>
   <Name>Mrt: Moonrat</Name>
   <Name>Hh</Name>
   <Name>anon-WO0182946.19</Name>
   <Name>Mir</Name>
   <Name>l(3)neo57</Name>
   <Name>bar-3</Name>
   <Name>Moonrat</Name>
   <Name>Mrt</Name>
   <Name>Mirabile</Name>
   <Name>bar-on-3</Name>
  </Synonyms>
  <Date>20 Aug 04</Date>
 </BASIC_INFORMATION>
 <LOCATION>
  <Chromosome>3R</Chromosome>
  <Genome_map>complement(18944547..18958373)</Genome_map>
  <Map type="cytogenetic">94E1</Map>
  <Scaffold>AE003742</Scaffold>
 </LOCATION>
 <GENE_PRODUCT>
  <Transcripts>
   <Transcript id="FBtr0084404">
    hh-RA
    <Polypeptide id="FBpp0083796">hh-PA (471 aa)</Polypeptide>
   </Transcript>
  </Transcripts>
 </GENE_PRODUCT>
 <GENE_ONTOLOGY>
  <Molecular_function>
   <goterm id="GO:0005119">
    smoothened binding
    <goevidence>
     inferred from genetic interaction with FLYBASE:smo; FB:FBgn0003444
    </goevidence>
   </goterm>
   <goterm id="GO:0005113">
    patched binding
    <goevidence>
     traceable author statement
    </goevidence>
   </goterm>
   <goterm id="GO:0005119">
    smoothened binding
    <goevidence>
     traceable author statement
    </goevidence>
   </goterm>
   <goterm id="GO:0005113">
    patched binding
    <goevidence>
     non-traceable author statement
    </goevidence>
   </goterm>
   <goterm id="GO:0004871">
    signal transducer activity
    <goevidence>
     traceable author statement
    </goevidence>
   </goterm>
   <goterm id="GO:0016015">
    morphogen activity
    <goevidence>
     traceable author statement
    </goevidence>
   </goterm>
   <goterm id="GO:0004197">
    cysteine-type endopeptidase activity ;  ; EC:3.4.22.-
    <goevidence>
     inferred from sequence similarity
    </goevidence>
   </goterm>
   <goterm id="GO:0004175">
    endopeptidase activity
    <goevidence>
     non-traceable author statement
    </goevidence>
   </goterm>
   <goterm id="GO:0016015">morphogen activity</goterm>
   <goterm id="GO:0004871">signal transducer activity</goterm>
   <goterm id="GO:0004175">endopeptidase activity</goterm>
   <goterm id="GO:0004197">cysteine-type endopeptidase activity ;  ; EC:3.4.22.-</goterm>
   <goterm id="GO:0005113">patched binding</goterm>
   <goterm id="GO:0005119">smoothened binding</goterm>
  </Molecular_function>
  <Biological_process>
   <goterm id="GO:0001746">Bolwig's organ morphogenesis</goterm>
   <goterm id="GO:0045464">R8 cell fate specification</goterm>
   <goterm id="GO:0007487">analia morphogenesis (sensu Holometabola)</goterm>
   <goterm id="GO:0048099">anterior/posterior lineage restriction, imaginal disc</goterm>
   <goterm id="GO:0007267">cell-cell signaling</goterm>
   <goterm id="GO:0007386">compartment specification</goterm>
   <goterm id="GO:0001745">compound eye morphogenesis (sensu Drosophila)</goterm>
   <goterm id="GO:0008595">determination of anterior/posterior axis, embryo</goterm>
   <goterm id="GO:0007398">ectoderm development</goterm>
   <goterm id="GO:0008544">epidermis development</goterm>
   <goterm id="GO:0007440">foregut morphogenesis</goterm>
   <goterm id="GO:0035215">genital disc development</goterm>
   <goterm id="GO:0035232">germ cell attraction</goterm>
   <goterm id="GO:0042078">germ-line stem cell renewal</goterm>
   <goterm id="GO:0008347">glia cell migration</goterm>
   <goterm id="GO:0040007">growth</goterm>
   <goterm id="GO:0007507">heart development</goterm>
   <goterm id="GO:0007442">hindgut morphogenesis</goterm>
   <goterm id="GO:0007446">imaginal disc growth</goterm>
   <goterm id="GO:0007447">imaginal disc pattern formation</goterm>
   <goterm id="GO:0007242">intracellular signaling cascade</goterm>
   <goterm id="GO:0007478">leg disc metamorphosis</goterm>
   <goterm id="GO:0007498">mesoderm development</goterm>
   <goterm id="GO:0045861">negative regulation of proteolysis and peptidolysis</goterm>
   <goterm id="GO:0030707">ovarian follicle cell development (sensu Insecta)</goterm>
   <goterm id="GO:0048066">pigmentation</goterm>
   <goterm id="GO:0045880">positive regulation of smoothened receptor signaling pathway</goterm>
   <goterm id="GO:0007458">progression of morphogenetic furrow (sensu Drosophila)</goterm>
   <goterm id="GO:0016540">protein autoprocessing</goterm>
   <goterm id="GO:0030908">protein splicing</goterm>
   <goterm id="GO:0006606">protein-nucleus import</goterm>
   <goterm id="GO:0042127">regulation of cell proliferation</goterm>
   <goterm id="GO:0007346">regulation of mitotic cell cycle</goterm>
   <goterm id="GO:0046620">regulation of organ size</goterm>
   <goterm id="GO:0042306">regulation of protein-nucleus import :</goterm>
   <goterm id="GO:0006357">regulation of transcription from Pol II promoter</goterm>
   <goterm id="GO:0007367">segment polarity determination</goterm>
   <goterm id="GO:0007224">smoothened receptor signaling pathway</goterm>
   <goterm id="GO:0048103">somatic stem cell renewal</goterm>
   <goterm id="GO:0030713">stalk formation</goterm>
   <goterm id="GO:0007427">tracheal cell migration (sensu Insecta)</goterm>
   <goterm id="GO:0007424">tracheal system development (sensu Insecta)</goterm>
   <goterm id="GO:0048100">wing disc anterior/posterior pattern formation</goterm>
   <goterm id="GO:0007473">wing disc proximal/distal pattern formation</goterm>
   <goterm id="GO:0007474">wing vein specification</goterm>
  </Biological_process>
  <Cellular_component>
   <goterm id="GO:0005737">cytoplasm</goterm>
   <goterm id="GO:0016023">cytoplasmic vesicle</goterm>
   <goterm id="GO:0005576">extracellular</goterm>
   <goterm id="GO:0005634">nucleus</goterm>
   <goterm id="GO:0005886">plasma membrane</goterm>
  </Cellular_component>
 </GENE_ONTOLOGY>
 <FUNCTION>
  <Expressions>
   <Expression type="dev_stage">
    embryo
    <Phenotype>embryonic/larval hindgut</Phenotype>
    <Phenotype>maxillary segment</Phenotype>
    <Phenotype>embryonic/larval posterior spiracle</Phenotype>
    <Phenotype>embryonic/larval anterior spiracle</Phenotype>
    <Phenotype>anal pad</Phenotype>
    <Phenotype>embryonic/larval foregut</Phenotype>
    <Phenotype>embryonic/larval pharynx</Phenotype>
    <Phenotype>embryonic/larval oesophagus</Phenotype>
   </Expression>
   <Expression type="dev_stage">
    larva
    <Phenotype>embryonic/larval hindgut</Phenotype>
   </Expression>
  </Expressions>
  <Protein_domains>
   <db_xref>IPR000320 == Hedgehog amino-terminal signaling domain</db_xref>
   <db_xref>IPR001657 == Sonic hedgehog protein</db_xref>
   <db_xref>IPR001767 == Hint module</db_xref>
   <db_xref>SCOP:51294 == Hedgehog/intein (Hint) domain; hh|FBgn0004644|pp-CT14986|FBan0004637</db_xref>
   <db_xref>SCOP:55166 == Hedgehog/DD-pepidase; hh|FBgn0004644|pp-CT14986|FBan0004637</db_xref>
  </Protein_domains>
  <External_links>
   <db_xref>DEDB:10274</db_xref>
   <db_xref>FlyGRID:FBgn0004644</db_xref>
   <db_xref>Hybrigenics:521240</db_xref>
   <db_xref>IFly:../segment/hedghog1.htm</db_xref>
   <db_xref>NCBI_GEO:FBgn0004644</db_xref>
  </External_links>
 </FUNCTION>
 <LITERATURE>
  <Reference>
   <ref>
    <Identifier>FBrf0159232</Identifier>
    <Creator>Gonzalez-Gaitan</Creator>
    <Date>2003</Date>
    <Source>Nature Rev. Molec. Cell. Biol. 4(3): 213--224</Source>
    <Title>Signal dispersal and transduction through the endocytic pathway.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0158727</Identifier>
    <Creator>de Celis</Creator>
    <Date>2003</Date>
    <Source>BioEssays 25(5): 443--451</Source>
    <Title>Pattern formation in the Drosophila wing: the development of the veins.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0152334</Identifier>
    <Creator>Burtis</Creator>
    <Date>2002</Date>
    <Source>Science 297(5584): 1135--1136</Source>
    <Title>Doublesex in the middle.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0151249</Identifier>
    <Creator>Cripps and Olson</Creator>
    <Date>2002</Date>
    <Source>Dev. Biol. 246(1): 14--28</Source>
    <Title>Control of cardiac development by an evolutionarily conserved transcriptional network.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0144824</Identifier>
    <Creator>Frankfort and Mardon</Creator>
    <Date>2002</Date>
    <Source>Development 129(6): 1295--1306</Source>
    <Title>R8 development in the Drosophila eye: a paradigm for neural selection and differentiation.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0156092</Identifier>
    <Creator>Galis et al.</Creator>
    <Date>2002</Date>
    <Source>Trends Genet. 18(10): 504--509</Source>
    <Title>Conservation of the segmented germband stage: robustness or pleiotropy?</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0151999</Identifier>
    <Creator>Jiang</Creator>
    <Date>2002</Date>
    <Source>Genes Dev. 16(18): 2315--2321</Source>
    <Title>Degrading Ci: who is Cul-pable?</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0155987</Identifier>
    <Creator>Lin</Creator>
    <Date>2002</Date>
    <Source>Nature Rev. Genet. 3(12): 931--940</Source>
    <Title>The stem-cell niche theory: lessons from flies.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0159733</Identifier>
    <Creator>Nybakken</Creator>
    <Date>2002</Date>
    <Source>Curr. Opin. Genet. Dev. 12(5): 503--511</Source>
    <Title>[title not yet available]</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0151798</Identifier>
    <Creator>Nybakken and Perrimon</Creator>
    <Date>2002</Date>
    <Source>Biochim. biophys. Acta 1573(3): 280--291</Source>
    <Title>Heparan sulfate proteoglycan modulation of developmental signaling in Drosophila.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0155653</Identifier>
    <Creator>Peters</Creator>
    <Date>2002</Date>
    <Source>Curr. Opin. Neurobiol. 12(1): 43--48</Source>
    <Title>Patterning the neural retina.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0151324</Identifier>
    <Creator>Seto et al.</Creator>
    <Date>2002</Date>
    <Source>Genes Dev. 16(11): 1314--1336</Source>
    <Title>When cell biology meets development: endocytic regulation of signaling pathways.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0155675</Identifier>
    <Creator>Vincent and Dubois</Creator>
    <Date>2002</Date>
    <Source>Dev. Cell 3(5): 615--623</Source>
    <Title>Morphogen transport along epithelia, an integrated trafficking problem.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
 </LITERATURE>
 <SUMMARY>
  <text>
   The D. melanogaster gene hedgehog, abbreviated as hh, is reported here. It has also been known in FlyBase as Mir and l(3)neo56. It encodes a product with patched binding involved in progression of morphogenetic furrow (sensu Drosophila) which is a component of the extracellular; it is expressed in the embryo (anal pad, antennal lobe, antennal segment, embryonic/larval anterior spiracle and 13 other listed tissues) and larva (dorsal mesothoracic disc). It has been sequenced and its amino acid sequence contains a hedgehog amino-terminal signaling domain, a sonic hedgehog domain and a hint module. It has been mapped by recombination to 3-81.2 and cytologically to 94E1. It interacts genetically with ptc, ci, fu, amos, brm and 47 other listed genes. There are 144 recorded alleles: 46 in vitro constructs (none available from the public stock centers), 97 classical mutants (9 available from the public stock centers) and 1 wild-type. Amorphic mutations have been isolated which affect the denticle belt and the embryonic epidermis and are embryonic segment polarity recessive lethal. hh is discussed in 1055 references (excluding sequence accessions), dated between 1950 and 2004. These include at least 125 studies of mutant phenotypes, 30 studies of wild-type function and 18 molecular studies. Among findings on hh mutants, hh mutants display segment polarity segmentation defects. Among findings on hh function, hh may act as an attractive guidance cue in germ cell migration in the embryo. (However, there is much more information on function so that may not be representative.)
  </text>
 </SUMMARY>
</GeneSummary>
<!-- docurl="flybase-ugp.xml,9426688-9433816" -->


<GeneSummary id="FlyBase:FBgn0010349">
 <Title>FlyBase Gene: Dhc64C</Title>
 <Source>FlyBase</Source>
 <Type>Gene Summary</Type>
 <BASIC_INFORMATION>
  <GeneID>FBgn0010349</GeneID>
  <Symbol>Dhc64C</Symbol>
  <Full_name>Dynein heavy chain 64C</Full_name>
  <Species id="taxon:7227">Drosophila melanogaster</Species>
  <Synonyms>
   <Name>CG7507</Name>
   <Name>CG7507</Name>
   <Name>CG7507</Name>
   <Name>Fs(3)Laborc</Name>
   <Name>Lab</Name>
   <Name>HMW MAP</Name>
   <Name>cytoplasmic dynein heavy chain</Name>
   <Name>Fs(3)Lab</Name>
   <Name>Dhc</Name>
   <Name>Cdhc: Cytoplasmic dynein heavy chain</Name>
   <Name>dynein heavy chain</Name>
   <Name>cDhc64C</Name>
   <Name>DHC</Name>
   <Name>dhc64C</Name>
   <Name>CD</Name>
   <Name>dhc</Name>
   <Name>Laborc</Name>
   <Name>DHC64C</Name>
   <Name>cytoplasmic dynein</Name>
   <Name>dynein</Name>
   <Name>cDhc</Name>
   <Name>Dhc64c</Name>
   <Name>cytoplasmic dynenin</Name>
   <Name>Dhc64</Name>
   <Name>Fs(3)Sz18</Name>
   <Name>l(3)64Ca</Name>
   <Name>Female sterile(3)Laborc</Name>
   <Name>Cdhc</Name>
   <Name>Cytoplasmic dynein heavy chain</Name>
  </Synonyms>
  <Date>20 Aug 04</Date>
 </BASIC_INFORMATION>
 <LOCATION>
  <Chromosome>3L</Chromosome>
  <Genome_map>complement(4785309..4803674)</Genome_map>
  <Map type="cytogenetic">64C1</Map>
  <Scaffold>AE003482</Scaffold>
 </LOCATION>
 <GENE_PRODUCT>
  <Transcripts>
   <Transcript id="FBtr0073360">
    Dhc64C-RB
    <Polypeptide id="FBpp0073216">Dhc64C-PB (3388 aa)</Polypeptide>
   </Transcript>
   <Transcript id="FBtr0073359">
    Dhc64C-RA
    <Polypeptide id="FBpp0073215">Dhc64C-PA (4639 aa)</Polypeptide>
   </Transcript>
  </Transcripts>
 </GENE_PRODUCT>
 <GENE_ONTOLOGY>
  <Molecular_function>
   <goterm id="GO:0003777">
    microtubule motor activity
    <goevidence>
     inferred from direct assay
    </goevidence>
   </goterm>
   <goterm id="GO:0003774">
    motor activity
    <goevidence>
     inferred from sequence similarity with EMBL:N39708
    </goevidence>
   </goterm>
   <goterm id="GO:0005200">
    structural constituent of cytoskeleton
    <goevidence>
     inferred from electronic annotation
    </goevidence>
   </goterm>
   <goterm id="GO:0042623">
    ATPase activity, coupled
    <goevidence>
     inferred from sequence similarity
    </goevidence>
   </goterm>
   <goterm id="GO:0042623">
    ATPase activity, coupled
    <goevidence>
     non-traceable author statement
    </goevidence>
   </goterm>
   <goterm id="GO:0042623">
    ATPase activity, coupled
    <goevidence>
     inferred from direct assay
    </goevidence>
   </goterm>
   <goterm id="GO:0005200">structural constituent of cytoskeleton</goterm>
   <goterm id="GO:0042623">ATPase activity, coupled</goterm>
   <goterm id="GO:0003774">motor activity</goterm>
   <goterm id="GO:0003777">microtubule motor activity</goterm>
  </Molecular_function>
  <Biological_process>
   <goterm id="GO:0006928">cell motility</goterm>
   <goterm id="GO:0007098">centrosome cycle</goterm>
   <goterm id="GO:0016358">dendrite morphogenesis</goterm>
   <goterm id="GO:0045478">fusome organization and biogenesis</goterm>
   <goterm id="GO:0048134">germ-line cyst formation</goterm>
   <goterm id="GO:0006886">intracellular protein transport</goterm>
   <goterm id="GO:0008298">mRNA localization, intracellular</goterm>
   <goterm id="GO:0007018">microtubule-based movement</goterm>
   <goterm id="GO:0000132">mitotic spindle orientation</goterm>
   <goterm id="GO:0016319">mushroom body development</goterm>
   <goterm id="GO:0007294">oocyte cell fate determination (sensu Insecta)</goterm>
   <goterm id="GO:0007312">oocyte nucleus migration</goterm>
   <goterm id="GO:0009993">oogenesis (sensu Insecta)</goterm>
   <goterm id="GO:0007301">ovarian ring canal formation</goterm>
   <goterm id="GO:0016192">vesicle-mediated transport</goterm>
  </Biological_process>
  <Cellular_component>
   <goterm id="GO:0005737">cytoplasm</goterm>
   <goterm id="GO:0005868">cytoplasmic dynein complex</goterm>
   <goterm id="GO:0045169">fusome</goterm>
   <goterm id="GO:0005875">microtubule associated complex</goterm>
   <goterm id="GO:0045172">ring canal (sensu Insecta)</goterm>
  </Cellular_component>
 </GENE_ONTOLOGY>
 <FUNCTION>
  <Expressions>
   <Expression type="dev_stage">
    adult
    <Phenotype>testis</Phenotype>
   </Expression>
   <Expression type="dev_stage">
    embryo
    <Phenotype>ovary</Phenotype>
   </Expression>
  </Expressions>
  <External_links>
   <db_xref>DEDB:2387</db_xref>
   <db_xref>FlyGRID:FBgn0010349</db_xref>
   <db_xref>Hybrigenics:521782</db_xref>
   <db_xref>IFly:../cytoskel/dynein1.htm</db_xref>
   <db_xref>KWgx:FBgn0010349</db_xref>
   <db_xref>NCBI_GEO:FBgn0010349</db_xref>
  </External_links>
 </FUNCTION>
 <LITERATURE>
  <Reference>
   <ref>
    <Identifier>FBrf0159339</Identifier>
    <Creator>Gao and Bogert</Creator>
    <Date>2003</Date>
    <Source>Trends Neurosci. 26(5): 262--268</Source>
    <Title>Genetic control of dendritic morphogenesis in Drosophila.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0158831</Identifier>
    <Creator>Morris</Creator>
    <Date>2003</Date>
    <Source>Curr. Opin. Cell Biol. 15(1): 54--59</Source>
    <Title>Nuclear positioning: the means is at the ends.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0155474</Identifier>
    <Creator>Cohen</Creator>
    <Date>2002</Date>
    <Source>Curr. Biol. 12(23): R797--R799</Source>
    <Title>Oocyte patterning: dynein and Kinesin, inc.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
 </LITERATURE>
 <SUMMARY>
  <text>
   The D. melanogaster gene Dynein heavy chain 64C, abbreviated as Dhc64C, is reported here. It has also been known in FlyBase as Cdhc and Fs(3)Lab. It encodes a product with microtubule motor activity involved in oogenesis (sensu Insecta) which is a component of the microtubule associated complex; it is expressed in the adult (ovary and testis). It has been sequenced and its amino acid sequence is also available. It has been mapped by recombination to 3-10 and cytologically to 64C1. It interacts genetically with Gl, Khc, Lis-1, Klc and CycB. There are 37 recorded alleles: 9 in vitro constructs (none available from the public stock centers), 27 classical mutants (2 available from the public stock centers) and 1 wild-type. Loss-of-function mutations have been isolated which affect the (with Dhc64C6-10) ommatidium, the oocyte, the fusome and the spindle and are recessive lethal. Dhc64C is discussed in 115 references (excluding sequence accessions), dated between 1989 and 2004. These include at least 7 studies of mutant phenotypes, 7 studies of wild-type function and 3 molecular studies. Among findings on Dhc64C mutants, mutations in Dhc64C disrupt fast organelle transport in both directions in axons. Among findings on Dhc64C function, Dhc64C may be involved in the prevention of centrosome assembly in unfertilized eggs, and establishing harmony between the chromosome and centrosome cycles.
  </text>
 </SUMMARY>
</GeneSummary>
<!-- docurl="flybase-ugp.xml,6036980-6046244" -->


<GeneSummary id="FlyBase:FBgn0003716">
 <Title>FlyBase Gene: tkv</Title>
 <Source>FlyBase</Source>
 <Type>Gene Summary</Type>
 <BASIC_INFORMATION>
  <GeneID>FBgn0003716</GeneID>
  <Symbol>tkv</Symbol>
  <Full_name>thickveins</Full_name>
  <Species id="taxon:7227">Drosophila melanogaster</Species>
  <Synonyms>
   <Name>CG14026</Name>
   <Name>CG14026</Name>
   <Name>str</Name>
   <Name>Brk25D: BMP receptor kinase 25D</Name>
   <Name>dtfr</Name>
   <Name>l(2)04415</Name>
   <Name>Atkv</Name>
   <Name>thick veins</Name>
   <Name>Brk25D1</Name>
   <Name>Brk25D2</Name>
   <Name>Tkv</Name>
   <Name>Atr25D: Activin-A-receptor-25D</Name>
   <Name>Dtfr</Name>
   <Name>STK-A</Name>
   <Name>l(2)25Da</Name>
   <Name>BMP receptor kinase 25D</Name>
   <Name>Brk25D</Name>
   <Name>slater</Name>
   <Name>Activin-A-receptor-25D</Name>
  </Synonyms>
  <Date>20 Aug 04</Date>
 </BASIC_INFORMATION>
 <LOCATION>
  <Chromosome>2L</Chromosome>
  <Genome_map>complement(5211567..5263924)</Genome_map>
  <Map type="cytogenetic">25D1--2</Map>
  <Scaffold>AE003609</Scaffold>
 </LOCATION>
 <GENE_PRODUCT>
  <Transcripts>
   <Transcript id="FBtr0079089">
    tkv-RD
    <Polypeptide id="FBpp0078723">tkv-PD (509 aa)</Polypeptide>
   </Transcript>
   <Transcript id="FBtr0079088">
    tkv-RB
    <Polypeptide id="FBpp0078722">tkv-PB (531 aa)</Polypeptide>
   </Transcript>
   <Transcript id="FBtr0079087">
    tkv-RC
    <Polypeptide id="FBpp0078721">tkv-PC (575 aa)</Polypeptide>
   </Transcript>
   <Transcript id="FBtr0079086">
    tkv-RA
    <Polypeptide id="FBpp0078720">tkv-PA (563 aa)</Polypeptide>
   </Transcript>
  </Transcripts>
 </GENE_PRODUCT>
 <GENE_ONTOLOGY>
  <Molecular_function>
   <goterm id="GO:0004672">
    protein kinase activity ;  ; EC:2.7.1.37
    <goevidence>
     non-traceable author statement
    </goevidence>
   </goterm>
   <goterm id="GO:0005025">
    type I transforming growth factor beta receptor activity
    <goevidence>
     inferred from sequence similarity
    </goevidence>
   </goterm>
   <goterm id="GO:0005025">
    type I transforming growth factor beta receptor activity
    <goevidence>
     non-traceable author statement
    </goevidence>
   </goterm>
   <goterm id="GO:0004672">protein kinase activity ;  ; EC:2.7.1.37</goterm>
   <goterm id="GO:0050431">transforming growth factor beta binding</goterm>
   <goterm id="GO:0005025">type I transforming growth factor beta receptor activity</goterm>
   <goterm id="GO:0050431">
    transforming growth factor beta binding
    <goevidence>
     inferred from physical interaction with FLYBASE:dpp; FB:FBgn0000490
    </goevidence>
   </goterm>
   <goterm id="GO:0005025">
    type I transforming growth factor beta receptor activity
    <goevidence>
     inferred from physical interaction with FLYBASE:dpp; FB:FBgn0000490
    </goevidence>
   </goterm>
  </Molecular_function>
  <Biological_process>
   <goterm id="GO:0030509">BMP signaling pathway</goterm>
   <goterm id="GO:0007448">anterior/posterior pattern formation, imaginal disc</goterm>
   <goterm id="GO:0046845">branch cell fate determination (sensu Insecta)</goterm>
   <goterm id="GO:0001763">branching morphogenesis</goterm>
   <goterm id="GO:0001745">compound eye morphogenesis (sensu Drosophila)</goterm>
   <goterm id="GO:0007391">dorsal closure</goterm>
   <goterm id="GO:0007507">heart development</goterm>
   <goterm id="GO:0045705">negative regulation of salivary gland determination</goterm>
   <goterm id="GO:0030707">ovarian follicle cell development (sensu Insecta)</goterm>
   <goterm id="GO:0045887">positive regulation of synaptic growth at neuromuscular junction</goterm>
   <goterm id="GO:0006468">protein amino acid phosphorylation</goterm>
   <goterm id="GO:0007424">tracheal system development (sensu Insecta)</goterm>
   <goterm id="GO:0007181">transforming growth factor beta receptor complex assembly</goterm>
   <goterm id="GO:0007179">transforming growth factor beta receptor signaling pathway</goterm>
   <goterm id="GO:0007476">wing morphogenesis</goterm>
  </Biological_process>
  <Cellular_component>
   <goterm id="GO:0005886">plasma membrane</goterm>
  </Cellular_component>
 </GENE_ONTOLOGY>
 <FUNCTION>
  <Expressions>
   <Expression type="dev_stage">
    embryo
    <Phenotype>tracheal placode</Phenotype>
    <Phenotype>epidermis</Phenotype>
    <Phenotype>mesoderm</Phenotype>
    <Phenotype>visceral mesoderm</Phenotype>
    <Phenotype>tracheal pit</Phenotype>
    <Phenotype>embryonic/larval midgut</Phenotype>
    <Phenotype>posterior midgut primordium</Phenotype>
    <Phenotype>anterior midgut primordium</Phenotype>
    <Phenotype>midgut constriction 1</Phenotype>
    <Phenotype>midgut constriction 4</Phenotype>
    <Phenotype>nurse cell</Phenotype>
    <Phenotype>ectoderm</Phenotype>
    <Phenotype>anterior embryonic/larval midgut</Phenotype>
    <Phenotype>posterior embryonic/larval midgut</Phenotype>
    <Phenotype>embryonic/larval pharynx</Phenotype>
    <Phenotype>gastric caecum</Phenotype>
    <Phenotype>embryonic/larval hindgut</Phenotype>
    <Phenotype>embryonic/larval proventriculus</Phenotype>
    <Phenotype>midgut chamber 1</Phenotype>
   </Expression>
   <Expression type="dev_stage">
    larva
    <Phenotype>dorsal mesothoracic disc</Phenotype>
    <Phenotype>neurectoderm</Phenotype>
   </Expression>
   <Expression type="dev_stage">
    oogenesis, adult
    <Phenotype>centripetally migrating follicle cell</Phenotype>
   </Expression>
  </Expressions>
  <Protein_domains>
   <db_xref>IPR000472 == TGF-&amp;bgr; receptor family, extracellular domain/Activin types I and II receptor domain</db_xref>
   <db_xref>IPR000719 == Eukaryotic protein kinase</db_xref>
   <db_xref>IPR002290 == Serine/Threonine protein kinase family active site</db_xref>
   <db_xref>
    IPR003605 == GS motif preceding kinase domain in TGF
    &amp;bgr; receptor
   </db_xref>
   <db_xref>SCOP:56112 == Protein kinase-like (PK-like); tkv|FBgn0003716|pp-CT33585|FBan0014026</db_xref>
   <db_xref>SCOP:57302 == Snake toxin-like; tkv|FBgn0003716|pp-CT33585|FBan0014026</db_xref>
  </Protein_domains>
  <External_links>
   <db_xref>BDGPisx:tkv</db_xref>
   <db_xref>DEDB:6478</db_xref>
   <db_xref>FlyGRID:FBgn0003716</db_xref>
   <db_xref>IFly:../gene/thickvan.htm</db_xref>
   <db_xref>KWgx:FBgn0003716</db_xref>
   <db_xref>NCBI_GEO:FBgn0003716</db_xref>
  </External_links>
 </FUNCTION>
 <LITERATURE>
  <Reference>
   <ref>
    <Identifier>FBrf0151249</Identifier>
    <Creator>Cripps and Olson</Creator>
    <Date>2002</Date>
    <Source>Dev. Biol. 246(1): 14--28</Source>
    <Title>Control of cardiac development by an evolutionarily conserved transcriptional network.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0151324</Identifier>
    <Creator>Seto et al.</Creator>
    <Date>2002</Date>
    <Source>Genes Dev. 16(11): 1314--1336</Source>
    <Title>When cell biology meets development: endocytic regulation of signaling pathways.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0155675</Identifier>
    <Creator>Vincent and Dubois</Creator>
    <Date>2002</Date>
    <Source>Dev. Cell 3(5): 615--623</Source>
    <Title>Morphogen transport along epithelia, an integrated trafficking problem.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
 </LITERATURE>
 <SUMMARY>
  <text>
   The D. melanogaster gene thickveins, abbreviated as tkv, is reported here. It has also been known in FlyBase as l(2)04415. It encodes a product with type I transforming growth factor beta receptor activity involved in tracheal system development (sensu Insecta) which is a component of the plasma membrane; it is expressed in the embryo (anterior embryonic/larval midgut, anterior midgut primordium, ectoderm, embryonic/larval hindgut and 16 other listed tissues), larva (dorsal mesothoracic disc, eye-antennal disc, imaginal disc, morphogenetic furrow and ventral thoracic disc) and ovary (centripetally migrating follicle cell and nurse cell). It has been sequenced and its amino acid sequence contains a TGF-&amp;bgr; receptor family, extracellular domain/Activin types I and II receptor domain, an eukaryotic protein kinase, a serine/Threonine protein kinase family active site and a GS motif preceding kinase domain in TGF
   &amp;bgr; receptor. It has been mapped by recombination to 2-16 and cytologically to 25D1--2. It interacts genetically with dpp, Mad, sax, shn, put and 33 other listed genes. There are 67 recorded alleles: 40 in vitro constructs (none available from the public stock centers), 26 classical mutants (6 available from the public stock centers) and 1 wild-type. Amorphic mutations have been isolated which affect the maternal effect abdominal 1 to 7 ventral denticle belt, the maternal effect metathoracic ventral denticle belt, the maternal effect mesothoracic ventral denticle belt and 12 other listed tissues and are embryonic maternal effect lethal and recessive somatic clone cell lethal. tkv is discussed in 382 references (excluding sequence accessions), dated between 1980 and 2004. These include at least 49 studies of mutant phenotypes, 5 studies of wild-type function and 12 molecular studies.
  </text>
 </SUMMARY>
</GeneSummary>
<!-- docurl="flybase-ugp.xml,5018103-5026033" -->


<GeneSummary id="FlyBase:FBgn0003205">
 <Title>FlyBase Gene: Ras85D</Title>
 <Source>FlyBase</Source>
 <Type>Gene Summary</Type>
 <BASIC_INFORMATION>
  <GeneID>FBgn0003205</GeneID>
  <Symbol>Ras85D</Symbol>
  <Full_name>Ras oncogene at 85D</Full_name>
  <Species id="taxon:7227">Drosophila melanogaster</Species>
  <Synonyms>
   <Name>CG9375</Name>
   <Name>Dmras85D</Name>
   <Name>D-ras-1</Name>
   <Name>Dras1</Name>
   <Name>E(sev)3C</Name>
   <Name>Ras1</Name>
   <Name>p21&lt;up>Ras1&lt;/up></Name>
   <Name>Su(tor)3-2</Name>
   <Name>ras1</Name>
   <Name>Ras</Name>
   <Name>Ras-1</Name>
   <Name>l(3)06677</Name>
   <Name>Draf-1</Name>
   <Name>ras</Name>
   <Name>D-Ras</Name>
   <Name>RAS1</Name>
   <Name>E(faf)</Name>
   <Name>D-Ras1</Name>
   <Name>DRas</Name>
   <Name>Dras85D</Name>
   <Name>RAS</Name>
   <Name>D-ras1</Name>
   <Name>RTK</Name>
   <Name>RasI</Name>
   <Name>Dras</Name>
   <Name>ras85B</Name>
   <Name>dRAS1</Name>
   <Name>ras85D</Name>
   <Name>dRas1</Name>
   <Name>EK3-4</Name>
   <Name>ras 1</Name>
   <Name>DRAS1</Name>
   <Name>DRas85D/Ras</Name>
   <Name>dras1</Name>
   <Name>S35097</Name>
   <Name>Dm Ras1</Name>
   <Name>C-ras1</Name>
   <Name>fs(3)05703</Name>
   <Name>l(3)s1747</Name>
   <Name>Enhancer of faf</Name>
  </Synonyms>
  <Date>20 Aug 04</Date>
 </BASIC_INFORMATION>
 <LOCATION>
  <Chromosome>3R</Chromosome>
  <Genome_map>complement(5336289..5338802)</Genome_map>
  <Map type="cytogenetic">85D21</Map>
  <Scaffold>AE003683</Scaffold>
 </LOCATION>
 <GENE_PRODUCT>
  <Transcripts>
   <Transcript id="FBtr0082122">
    Ras85D-RA
    <Polypeptide id="FBpp0081600">Ras85D-PA (189 aa)</Polypeptide>
   </Transcript>
  </Transcripts>
 </GENE_PRODUCT>
 <GENE_ONTOLOGY>
  <Molecular_function>
   <goterm id="GO:0019003">
    GDP binding
    <goevidence>
     non-traceable author statement
    </goevidence>
   </goterm>
   <goterm id="GO:0003924">GTPase activity</goterm>
   <goterm id="GO:0003924">
    GTPase activity
    <goevidence>
     non-traceable author statement
    </goevidence>
   </goterm>
   <goterm id="GO:0003924">
    GTPase activity
    <goevidence>
     inferred from sequence similarity
    </goevidence>
   </goterm>
   <goterm id="GO:0019003">GDP binding</goterm>
   <goterm id="GO:0003924">
    GTPase activity
    <goevidence>
     inferred from sequence similarity with MGD:Kras2; MGI:MGI:96680
    </goevidence>
   </goterm>
  </Molecular_function>
  <Biological_process>
   <goterm id="GO:0007186">G-protein coupled receptor protein signaling pathway</goterm>
   <goterm id="GO:0000082">G1/S transition of mitotic cell cycle</goterm>
   <goterm id="GO:0006916">anti-apoptosis</goterm>
   <goterm id="GO:0007298">border cell migration (sensu Insecta)</goterm>
   <goterm id="GO:0001708">cell fate specification</goterm>
   <goterm id="GO:0016049">cell growth</goterm>
   <goterm id="GO:0007010">cytoskeleton organization and biogenesis</goterm>
   <goterm id="GO:0008595">determination of anterior/posterior axis, embryo</goterm>
   <goterm id="GO:0007391">dorsal closure</goterm>
   <goterm id="GO:0030381">eggshell pattern formation (sensu Insecta)</goterm>
   <goterm id="GO:0007456">eye morphogenesis (sensu Drosophila)</goterm>
   <goterm id="GO:0007507">heart development</goterm>
   <goterm id="GO:0006886">intracellular protein transport</goterm>
   <goterm id="GO:0006936">muscle contraction</goterm>
   <goterm id="GO:0046673">negative regulation of retinal programmed cell death (sensu Drosophila)</goterm>
   <goterm id="GO:0007048">oncogenesis</goterm>
   <goterm id="GO:0030707">ovarian follicle cell development (sensu Insecta)</goterm>
   <goterm id="GO:0042066">perineurial glial growth</goterm>
   <goterm id="GO:0030307">positive regulation of cell growth</goterm>
   <goterm id="GO:0007428">primary tracheal branching (sensu Insecta)</goterm>
   <goterm id="GO:0006898">receptor mediated endocytosis</goterm>
   <goterm id="GO:0001558">regulation of cell growth</goterm>
   <goterm id="GO:0017157">regulation of exocytosis</goterm>
   <goterm id="GO:0040008">regulation of growth</goterm>
   <goterm id="GO:0045500">sevenless signaling pathway</goterm>
   <goterm id="GO:0007268">synaptic transmission</goterm>
   <goterm id="GO:0008293">torso signaling pathway</goterm>
   <goterm id="GO:0007472">wing disc metamorphosis</goterm>
   <goterm id="GO:0007476">wing morphogenesis</goterm>
  </Biological_process>
 </GENE_ONTOLOGY>
 <FUNCTION>
  <Expressions>
   <Expression type="dev_stage">
    adult
    <Phenotype>genital disc</Phenotype>
   </Expression>
   <Expression type="dev_stage">
    embryo
    <Phenotype>dorsal mesothoracic disc</Phenotype>
   </Expression>
   <Expression type="dev_stage">
    larva
    <Phenotype>eye-antennal disc</Phenotype>
   </Expression>
   <Expression type="dev_stage">
    oogenesis
    <Phenotype>oocyte</Phenotype>
   </Expression>
  </Expressions>
  <Protein_domains>
   <db_xref>IPR001806 == Ras GTPase superfamily</db_xref>
   <db_xref>IPR003577 == RAS small GTPases, Ras subfamily</db_xref>
   <db_xref>SCOP:52540 == P-loop containing nucleotide triphosphate hydrolases; Ras85D|FBgn0003205|pp-CT26623|FBan0009375</db_xref>
  </Protein_domains>
  <External_links>
   <db_xref>DEDB:8653</db_xref>
   <db_xref>FlyGRID:FBgn0003205</db_xref>
   <db_xref>Hybrigenics:521453</db_xref>
   <db_xref>IFly:../torstoll/ras85-1.htm</db_xref>
   <db_xref>NCBI_GEO:FBgn0003205</db_xref>
  </External_links>
 </FUNCTION>
 <LITERATURE>
  <Reference>
   <ref>
    <Identifier>FBrf0147184</Identifier>
    <Creator>Gorski and Marra</Creator>
    <Date>2002</Date>
    <Source>Physiol. Genomics 9(2): 59--69</Source>
    <Title>Programmed cell death takes flight: genetic and genomic approaches to gene discovery in Drosophila.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0149068</Identifier>
    <Creator>Richardson and Kumar</Creator>
    <Date>2002</Date>
    <Source>J. Immunol. Methods 265(1-2): 21--38</Source>
    <Title>Death to flies: Drosophila as a model system to study programmed cell death.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0144793</Identifier>
    <Creator>White</Creator>
    <Date>2002</Date>
    <Source>Dev. Cell 2(2): 128--130</Source>
    <Title>Signaling survival. How axons rescue their glia.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
 </LITERATURE>
 <SUMMARY>
  <text>
   The D. melanogaster gene Ras oncogene at 85D, abbreviated as Ras85D, is reported here. It has also been known in FlyBase as l(3)06677. It encodes a product with GDP binding involved in torso signaling pathway which is expressed in the adult (abdominal ganglion, adult brain and thoracic ganglion), larva (dorsal mesothoracic disc, embryonic/larval brain, eye-antennal disc and genital disc) and ovary (oocyte). It has been sequenced and its amino acid sequence contains a ras GTPase superfamily and a RAS small GTPases, Ras subfamily. It has been mapped by recombination to 3-50 and cytologically to 85D21. It interacts genetically with rl, S, phl, aop, Egfr and 131 other listed genes. There are 100 recorded alleles: 48 in vitro constructs (5 available from the public stock centers), 51 classical mutants (4 available from the public stock centers) and 1 wild-type. Loss-of-function mutations have been isolated which affect the germ-line clone filzkorper, the embryonic abdominal segment 8, the somatic clone imaginal disc and 6 other listed tissues and are somatic clone mitotic. Ras85D is discussed in 520 references (excluding sequence accessions), dated between 1984 and 2004. These include at least 118 studies of mutant phenotypes, 9 studies of wild-type function, 2 studies of natural polymorphisms and 11 molecular studies. Among findings on Ras85D function, Ras85D controls growth, survival and differentiation in the eye.
  </text>
 </SUMMARY>
</GeneSummary>
<!-- docurl="flybase-ugp.xml,450473-457022" -->


<GeneSummary id="FlyBase:FBgn0000183">
 <Title>FlyBase Gene: BicD</Title>
 <Source>FlyBase</Source>
 <Type>Gene Summary</Type>
 <BASIC_INFORMATION>
  <GeneID>FBgn0000183</GeneID>
  <Symbol>BicD</Symbol>
  <Full_name>Bicaudal D</Full_name>
  <Species id="taxon:7227">Drosophila melanogaster</Species>
  <Synonyms>
   <Name>CG6605</Name>
   <Name>Bic-D</Name>
   <Name>Bic&lt;up>D&lt;/up></Name>
   <Name>BIC-D</Name>
   <Name>Bicaudal-D</Name>
   <Name>anon-EST:fe2A11</Name>
   <Name>anon-fast-evolving-2A11</Name>
  </Synonyms>
  <Date>21 Aug 04</Date>
 </BASIC_INFORMATION>
 <LOCATION>
  <Chromosome>2L</Chromosome>
  <Genome_map>complement(17438917..17451338)</Genome_map>
  <Map type="cytogenetic">36C9</Map>
  <Scaffold>AE003655</Scaffold>
 </LOCATION>
 <GENE_PRODUCT>
  <Transcripts>
   <Transcript id="FBtr0081002">
    BicD-RA
    <Polypeptide id="FBpp0080555">BicD-PA (782 aa)</Polypeptide>
   </Transcript>
  </Transcripts>
 </GENE_PRODUCT>
 <GENE_ONTOLOGY>
  <Molecular_function>
   <goterm id="GO:0003682">chromatin binding</goterm>
   <goterm id="GO:0045502">
    dynein binding
    <goevidence>
     non-traceable author statement
    </goevidence>
   </goterm>
   <goterm id="GO:0003723">
    NOT RNA binding
    <goevidence>
     non-traceable author statement
    </goevidence>
   </goterm>
   <goterm id="GO:0003682">
    chromatin binding
    <goevidence>
     inferred from electronic annotation
    </goevidence>
   </goterm>
   <goterm id="GO:0045502">dynein binding</goterm>
   <goterm id="GO:0003723">NOT RNA binding</goterm>
  </Molecular_function>
  <Biological_process>
   <goterm id="GO:0030727">NOT female germ-line cyst formation (sensu Insecta)</goterm>
   <goterm id="GO:0030154">cell differentiation</goterm>
   <goterm id="GO:0007293">egg chamber formation (sensu Insecta)</goterm>
   <goterm id="GO:0008298">mRNA localization, intracellular</goterm>
   <goterm id="GO:0007067">mitosis</goterm>
   <goterm id="GO:0048112">oocyte anterior/posterior axis determination (sensu Insecta)</goterm>
   <goterm id="GO:0007309">oocyte axis determination</goterm>
   <goterm id="GO:0007294">oocyte cell fate determination (sensu Insecta)</goterm>
   <goterm id="GO:0048123">oocyte dorsal/ventral axis determination (sensu Insecta)</goterm>
   <goterm id="GO:0048130">oocyte microtubule cytoskeleton organization (sensu Insecta)</goterm>
   <goterm id="GO:0016325">oocyte microtubule cytoskeleton organization</goterm>
   <goterm id="GO:0008103">oocyte microtubule cytoskeleton polarization</goterm>
   <goterm id="GO:0048128">oocyte nucleus migration (sensu Insecta)</goterm>
   <goterm id="GO:0009993">oogenesis (sensu Insecta)</goterm>
  </Biological_process>
  <Cellular_component>
   <goterm id="GO:0015630">microtubule cytoskeleton</goterm>
  </Cellular_component>
 </GENE_ONTOLOGY>
 <FUNCTION>
  <Expressions>
   <Expression type="dev_stage">
    embryo
    <Phenotype>ovary</Phenotype>
   </Expression>
   <Expression type="dev_stage">
    oogenesis, adult
    <Phenotype>ovary</Phenotype>
    <Phenotype>germarium region 1..3</Phenotype>
    <Phenotype>nurse cell</Phenotype>
    <Phenotype>oocyte</Phenotype>
   </Expression>
  </Expressions>
  <External_links>
   <db_xref>BDGPisx:BicD</db_xref>
   <db_xref>DEDB:7846</db_xref>
   <db_xref>FlyGRID:FBgn0000183</db_xref>
   <db_xref>Hybrigenics:522131</db_xref>
   <db_xref>IFly:../cytoskel/bicauld1.htm</db_xref>
   <db_xref>KWgx:FBgn0000183</db_xref>
   <db_xref>NCBI_GEO:FBgn0000183</db_xref>
  </External_links>
 </FUNCTION>
 <LITERATURE>
  <Reference>
   <ref>
    <Identifier>FBrf0156097</Identifier>
    <Creator>Tekotte and Davis</Creator>
    <Date>2002</Date>
    <Source>Trends Genet. 18(12): 636--642</Source>
    <Title>Intracellular mRNA localization: motors move messages.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0132360</Identifier>
    <Creator>Deng and Lin</Creator>
    <Date>2001</Date>
    <Source>Etkin, Jeon, 2001: 93--138</Source>
    <Title>Asymmetric germ cell division and oocyte determination during Drosophila oogenesis.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0141280</Identifier>
    <Creator>Johnstone and Lasko</Creator>
    <Date>2001</Date>
    <Source>A. Rev. Genet. 35: 365--406</Source>
    <Title>Translational regulation and RNA localization in Drosophila oocytes and embryos.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0132358</Identifier>
    <Creator>Mahowald</Creator>
    <Date>2001</Date>
    <Source>Etkin, Jeon, 2001: 187--213</Source>
    <Title>Assembly of the Drosophila germ plasm.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0144751</Identifier>
    <Creator>Saxton</Creator>
    <Date>2001</Date>
    <Source>Cell 107(6): 707--710</Source>
    <Title>Microtubules, motors, and mRNA localization mechanisms: watching fluorescent messages move.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
 </LITERATURE>
 <SUMMARY>
  <text>
   The D. melanogaster gene Bicaudal D, abbreviated as BicD, is reported here. It has also been known in FlyBase as anon-EST:fe2A11 and anon-fe2A11. It encodes a product with dynein binding involved in oogenesis (sensu Insecta) which is localized to the cytoplasm; it is expressed in the adult (ovary) and ovary (cystocyte, germarium region 1 to 3, nurse cell, oocyte and 2 other listed tissues). It has been sequenced and its amino acid sequence is also available. It has been mapped by recombination to 2-52.91 and cytologically to 36C9. It interacts genetically with egl, kst, bic, RpII140, vas and 6 other listed genes. There are 26 recorded alleles: 9 in vitro constructs (none available from the public stock centers), 16 classical mutants (3 available from the public stock centers) and 1 wild-type. Amorphic mutations have been isolated which affect the egg chamber and the nurse cell ring canal and are recessive lethal and uncoordinated. BicD is discussed in 188 references (excluding sequence accessions), dated between 1982 and 2004. These include at least 23 studies of mutant phenotypes, 2 studies of wild-type function and 8 molecular studies. Among findings on BicD mutants, none of the cells in the female germline cyst form synaptonemal complex in BicD null mutants. Among findings on BicD function, BicD is required for the formation of and cytoskeletal organization of the egg chamber.
  </text>
 </SUMMARY>
</GeneSummary>
<!-- docurl="flybase-ugp.xml,640608-648425" -->


<GeneSummary id="FlyBase:FBgn0000273">
 <Title>FlyBase Gene: Pka-C1</Title>
 <Source>FlyBase</Source>
 <Type>Gene Summary</Type>
 <BASIC_INFORMATION>
  <GeneID>FBgn0000273</GeneID>
  <Symbol>Pka-C1</Symbol>
  <Full_name>cAMP-dependent protein kinase 1</Full_name>
  <Species id="taxon:7227">Drosophila melanogaster</Species>
  <Synonyms>
   <Name>CG4379</Name>
   <Name>CG4379</Name>
   <Name>DC0</Name>
   <Name>dco</Name>
   <Name>dcO</Name>
   <Name>PKA</Name>
   <Name>Pka</Name>
   <Name>DCO</Name>
   <Name>pka</Name>
   <Name>protein kinase A</Name>
   <Name>Dco</Name>
   <Name>pkA</Name>
   <Name>pka-C1</Name>
   <Name>l(2)01272</Name>
   <Name>C: Group C</Name>
   <Name>PKAc</Name>
   <Name>Dc0</Name>
   <Name>PKA-C1</Name>
   <Name>6353</Name>
   <Name>pKA</Name>
   <Name>Pka-C</Name>
   <Name>Protein Kinase A</Name>
   <Name>PKA Cl</Name>
   <Name>PKAcA</Name>
   <Name>dPKA</Name>
   <Name>CdkA</Name>
   <Name>Dcpk</Name>
   <Name>l(2)s4402</Name>
   <Name>C</Name>
  </Synonyms>
  <Date>20 Aug 04</Date>
 </BASIC_INFORMATION>
 <LOCATION>
  <Chromosome>2L</Chromosome>
  <Genome_map>complement(9676885..9691522)</Genome_map>
  <Map type="cytogenetic">30C5</Map>
  <Scaffold>AE003625</Scaffold>
 </LOCATION>
 <GENE_PRODUCT>
  <Transcripts>
   <Transcript id="FBtr0079852">
    Pka-C1-RC
    <Polypeptide id="">Pka-C1-PC (353 aa)</Polypeptide>
   </Transcript>
   <Transcript id="FBtr0079851">
    Pka-C1-RB
    <Polypeptide id="FBpp0079448">Pka-C1-PB (353 aa)</Polypeptide>
   </Transcript>
   <Transcript id="FBtr0079850">
    Pka-C1-RA
    <Polypeptide id="FBpp0079447">Pka-C1-PA (353 aa)</Polypeptide>
   </Transcript>
  </Transcripts>
 </GENE_PRODUCT>
 <GENE_ONTOLOGY>
  <Molecular_function>
   <goterm id="GO:0004702">
    receptor signaling protein serine/threonine kinase activity ;  ; EC:2.7.1.-
    <goevidence>
     inferred from electronic annotation
    </goevidence>
   </goterm>
   <goterm id="GO:0004674">
    protein serine/threonine kinase activity
    <goevidence>
     non-traceable author statement
    </goevidence>
   </goterm>
   <goterm id="GO:0004691">
    cAMP-dependent protein kinase activity
    <goevidence>
     inferred from sequence similarity
    </goevidence>
   </goterm>
   <goterm id="GO:0004691">
    cAMP-dependent protein kinase activity
    <goevidence>
     non-traceable author statement
    </goevidence>
   </goterm>
   <goterm id="GO:0004674">protein serine/threonine kinase activity</goterm>
   <goterm id="GO:0004702">receptor signaling protein serine/threonine kinase activity ;  ; EC:2.7.1.-</goterm>
   <goterm id="GO:0004691">cAMP-dependent protein kinase activity</goterm>
  </Molecular_function>
  <Biological_process>
   <goterm id="GO:0007448">anterior/posterior pattern formation, imaginal disc</goterm>
   <goterm id="GO:0048149">behavioral response to ethanol</goterm>
   <goterm id="GO:0019933">cAMP-mediated signaling</goterm>
   <goterm id="GO:0007456">eye morphogenesis (sensu Drosophila)</goterm>
   <goterm id="GO:0007612">learning</goterm>
   <goterm id="GO:0007611">learning and/or memory</goterm>
   <goterm id="GO:0007480">leg morphogenesis (sensu Holometabola)</goterm>
   <goterm id="GO:0045475">locomotor rhythm</goterm>
   <goterm id="GO:0007613">memory</goterm>
   <goterm id="GO:0008355">olfactory learning</goterm>
   <goterm id="GO:0007314">oocyte anterior/posterior axis determination</goterm>
   <goterm id="GO:0008103">oocyte microtubule cytoskeleton polarization</goterm>
   <goterm id="GO:0009993">oogenesis (sensu Insecta)</goterm>
   <goterm id="GO:0006468">protein amino acid phosphorylation</goterm>
   <goterm id="GO:0008359">regulation of bicoid mRNA localization</goterm>
   <goterm id="GO:0007317">regulation of pole plasm oskar mRNA localization</goterm>
   <goterm id="GO:0007622">rhythmic behavior</goterm>
   <goterm id="GO:0007476">wing morphogenesis</goterm>
  </Biological_process>
  <Cellular_component>
   <goterm id="GO:0005952">cAMP-dependent protein kinase complex</goterm>
   <goterm id="GO:0005886">plasma membrane</goterm>
  </Cellular_component>
 </GENE_ONTOLOGY>
 <FUNCTION>
  <Expressions>
   <Expression type="dev_stage">
    adult
    <Phenotype>mushroom body</Phenotype>
   </Expression>
   <Expression type="dev_stage">
    oogenesis, adult
    <Phenotype>germarium</Phenotype>
   </Expression>
  </Expressions>
  <Protein_domains>
   <db_xref>IPR000719 == Eukaryotic protein kinase</db_xref>
   <db_xref>IPR000961 == Protein kinase C-terminal domain</db_xref>
   <db_xref>IPR002290 == Serine/Threonine protein kinase family active site</db_xref>
   <db_xref>SCOP:56112 == Protein kinase-like (PK-like); Pka-C1|FBgn0000273|pp-CT14278|FBan0004379</db_xref>
  </Protein_domains>
  <External_links>
   <db_xref>DEDB:6995</db_xref>
   <db_xref>FlyGRID:FBgn0000273</db_xref>
   <db_xref>IFly:../newgene/pka-c1.htm</db_xref>
   <db_xref>NCBI_GEO:FBgn0000273</db_xref>
  </External_links>
 </FUNCTION>
 <LITERATURE>
  <Reference>
   <ref>
    <Identifier>FBrf0155881</Identifier>
    <Creator>Stanewsky</Creator>
    <Date>2003</Date>
    <Source>J. Neurobiol. 54(1): 111--147</Source>
    <Title>Genetic analysis of the circadian system in Drosophila melanogaster and mammals.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0151999</Identifier>
    <Creator>Jiang</Creator>
    <Date>2002</Date>
    <Source>Genes Dev. 16(18): 2315--2321</Source>
    <Title>Degrading Ci: who is Cul-pable?</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0155655</Identifier>
    <Creator>Rothenfluh and Heberlein</Creator>
    <Date>2002</Date>
    <Source>Curr. Opin. Neurobiol. 12(6): 639--645</Source>
    <Title>Drugs, flies, and videotape: the effects of ethanol and cocaine on Drosophila locomotion.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0151232</Identifier>
    <Creator>Stanewsky</Creator>
    <Date>2002</Date>
    <Source>Cell Tissue Res. 309(1): 11--26</Source>
    <Title>Clock mechanisms in Drosophila.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
 </LITERATURE>
 <SUMMARY>
  <text>
   The D. melanogaster gene cAMP-dependent protein kinase 1, abbreviated as Pka-C1, is reported here. It encodes a product with protein serine/threonine kinase activity involved in oocyte anterior/posterior axis determination which is a component of the plasma membrane; it is expressed in the adult (alpha-lobe, beta-lobe, gamma-lobe, adult brain and 7 other listed tissues), larva (dorsal mesothoracic disc and larval brain) and ovary (germarium, nurse cell and oocyte). It has been sequenced and its amino acid sequence contains an eukaryotic protein kinase, a protein kinase C-terminal domain and a serine/Threonine protein kinase family active site. It has been mapped cytologically to 30C5. It interacts genetically with dpp, hh, ci, Su(fu), wg and 7 other listed genes. There are 46 recorded alleles: 10 in vitro constructs (none available from the public stock centers), 35 classical mutants (3 available from the public stock centers) and 1 wild-type. Amorphic mutations have been isolated which affect the oocyte, the germ-line clone nurse cell, the germ-line clone egg chamber and 13 other listed tissues and are recessive lethal, female sterile and dominant chemical sensitive. Pka-C1 is discussed in 280 references (excluding sequence accessions), dated between 1984 and 2004. These include at least 31 studies of mutant phenotypes, 2 studies of wild-type function and 15 molecular studies. Among findings on Pka-C1 function, Pka-C1 plays a critical role in the flow of temporal information from circadian pacemaker cells to specific downstream targets controlling overt behaviors.
  </text>
 </SUMMARY>
</GeneSummary>
<!-- docurl="flybase-ugp.xml,1223983-1230050" -->


<GeneSummary id="FlyBase:FBgn0000533">
 <Title>FlyBase Gene: ea</Title>
 <Source>FlyBase</Source>
 <Type>Gene Summary</Type>
 <BASIC_INFORMATION>
  <GeneID>FBgn0000533</GeneID>
  <Symbol>ea</Symbol>
  <Full_name>easter</Full_name>
  <Species id="taxon:7227">Drosophila melanogaster</Species>
  <Synonyms>
   <Name>CG4920</Name>
   <Name>CG4920</Name>
   <Name>c-SP24</Name>
   <Name>SP24</Name>
  </Synonyms>
  <Date>20 Aug 04</Date>
 </BASIC_INFORMATION>
 <LOCATION>
  <Chromosome>3R</Chromosome>
  <Genome_map>11154470..11156153</Genome_map>
  <Map type="cytogenetic">88F1</Map>
  <Scaffold>AE003708</Scaffold>
 </LOCATION>
 <GENE_PRODUCT>
  <Transcripts>
   <Transcript id="FBtr0083083">
    ea-RA
    <Polypeptide id="FBpp0082539">ea-PA (392 aa)</Polypeptide>
   </Transcript>
  </Transcripts>
 </GENE_PRODUCT>
 <GENE_ONTOLOGY>
  <Molecular_function>
   <goterm id="GO:0008236">
    serine-type peptidase activity
    <goevidence>
     non-traceable author statement
    </goevidence>
   </goterm>
   <goterm id="GO:0008233">
    peptidase activity ;  ; EC:3.4.-.-
    <goevidence>
     traceable author statement
    </goevidence>
   </goterm>
   <goterm id="GO:0004252">
    serine-type endopeptidase activity ;  ; EC:3.4.21.-
    <goevidence>
     non-traceable author statement
    </goevidence>
   </goterm>
   <goterm id="GO:0004295">
    trypsin activity ;  ; EC:3.4.21.4
    <goevidence>
     non-traceable author statement
    </goevidence>
   </goterm>
   <goterm id="GO:0008439">
    monophenol monooxygenase activator activity
    <goevidence>
     inferred from sequence similarity
    </goevidence>
   </goterm>
   <goterm id="GO:0004252">
    serine-type endopeptidase activity ;  ; EC:3.4.21.-
    <goevidence>
     inferred from direct assay
    </goevidence>
   </goterm>
   <goterm id="GO:0008233">
    peptidase activity ;  ; EC:3.4.-.-
    <goevidence>
     non-traceable author statement
    </goevidence>
   </goterm>
   <goterm id="GO:0004252">serine-type endopeptidase activity ;  ; EC:3.4.21.-</goterm>
   <goterm id="GO:0008236">serine-type peptidase activity</goterm>
   <goterm id="GO:0008233">peptidase activity ;  ; EC:3.4.-.-</goterm>
   <goterm id="GO:0004295">trypsin activity ;  ; EC:3.4.21.4</goterm>
   <goterm id="GO:0008439">monophenol monooxygenase activator activity</goterm>
  </Molecular_function>
  <Biological_process>
   <goterm id="GO:0008063">Toll signaling pathway</goterm>
   <goterm id="GO:0006952">defense response</goterm>
   <goterm id="GO:0009950">dorsal/ventral axis specification</goterm>
   <goterm id="GO:0007311">maternal determination of dorsal/ventral axis, oocyte, germ-line encoded</goterm>
   <goterm id="GO:0006508">proteolysis and peptidolysis</goterm>
  </Biological_process>
  <Cellular_component>
   <goterm id="GO:0005576">extracellular</goterm>
  </Cellular_component>
 </GENE_ONTOLOGY>
 <FUNCTION>
  <Expressions>
   <Expression type="dev_stage">
    oogenesis, adult
    <Phenotype>ovary</Phenotype>
   </Expression>
  </Expressions>
  <Protein_domains>
   <db_xref>IPR001254 == Serine proteases, trypsin family</db_xref>
   <db_xref>IPR001314 == Chymotrypsin serine protease family (S1)</db_xref>
   <db_xref>IPR001827 == 'Homeobox' antennapedia-type protein</db_xref>
   <db_xref>SCOP:50494 == Trypsin-like serine proteases; ea|FBgn0000533|pp-CT15808|FBan0004920</db_xref>
  </Protein_domains>
  <External_links>
   <db_xref>DEDB:9330</db_xref>
   <db_xref>FlyGRID:FBgn0000533</db_xref>
   <db_xref>KWgx:FBgn0000533</db_xref>
   <db_xref>NCBI_GEO:FBgn0000533</db_xref>
  </External_links>
 </FUNCTION>
 <LITERATURE>
  <Reference>
   <ref>
    <Identifier>FBrf0148941</Identifier>
    <Creator>Stathopoulos and Levine</Creator>
    <Date>2002</Date>
    <Source>Dev. Biol. 246(1): 57--67</Source>
    <Title>Dorsal gradient networks in the Drosophila embryo.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0141281</Identifier>
    <Creator>Lall and Patel</Creator>
    <Date>2001</Date>
    <Source>A. Rev. Genet. 35: 407--437</Source>
    <Title>Conservation and divergence in molecular mechanisms of axis formation.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0123023</Identifier>
    <Creator>Govind</Creator>
    <Date>1999</Date>
    <Source>Oncogene 18(49): 6875--6887</Source>
    <Title>Control of development and immunity by Rel transcription factors in Drosophila.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0107848</Identifier>
    <Creator>LeMosy et al.</Creator>
    <Date>1999</Date>
    <Source>Trends Cell Biol. 9(3): 102--107</Source>
    <Title>Signal transduction by a protease cascade.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
 </LITERATURE>
 <SUMMARY>
  <text>
   The D. melanogaster gene easter, abbreviated as ea, is reported here. It encodes a product with trypsin activity (EC:3.4.21.4) involved in dorsal/ventral axis specification which is a component of the extracellular; it is expressed in the ovary (ovary). It has been sequenced and its amino acid sequence contains a serine proteases, trypsin family, a chymotrypsin serine protease family (S1) and a 'Homeobox' antennapedia-type domain. It has been mapped by recombination to 3-57 and cytologically to 88F1. It interacts genetically with cact, Tl, tkv, put, shn and 3 other listed genes. There are 79 recorded alleles: 20 in vitro constructs (none available from the public stock centers), 58 classical mutants (2 available from the public stock centers) and 1 wild-type. Amorphic mutations have been isolated which affect the embryonic epidermis and are maternal effect dominant lethal. ea is discussed in 128 references (excluding sequence accessions), dated between 1984 and 2004. These include at least 13 studies of mutant phenotypes, 2 studies of wild-type function and 6 molecular studies. Among findings on ea function, ea is not required for muscle development in the embryo.
  </text>
 </SUMMARY>
</GeneSummary>
<!-- docurl="flybase-ugp.xml,7742480-7750088" -->


<GeneSummary id="FlyBase:FBgn0004859">
 <Title>FlyBase Gene: ci</Title>
 <Source>FlyBase</Source>
 <Type>Gene Summary</Type>
 <BASIC_INFORMATION>
  <GeneID>FBgn0004859</GeneID>
  <Symbol>ci</Symbol>
  <Full_name>cubitus interruptus</Full_name>
  <Species id="taxon:7227">Drosophila melanogaster</Species>
  <Synonyms>
   <Name>CG2125</Name>
   <Name>CG2125</Name>
   <Name>l(4)13</Name>
   <Name>l(4)17</Name>
   <Name>ci-D: cubitus-interruptus-dominant</Name>
   <Name>ci&lt;up>D&lt;/up></Name>
   <Name>Ce: Cell</Name>
   <Name>Ci&lt;up>D&lt;/up></Name>
   <Name>cubitus-interruptus-Dominant</Name>
   <Name>CiD</Name>
   <Name>ciD</Name>
   <Name>CID</Name>
   <Name>Ci</Name>
   <Name>Cubitus interruptus</Name>
   <Name>ci155</Name>
   <Name>l(4)102ABc</Name>
   <Name>ci-D</Name>
   <Name>Ce</Name>
   <Name>cubitus-interruptus-dominant</Name>
   <Name>Cell</Name>
  </Synonyms>
  <Date>20 Aug 04</Date>
 </BASIC_INFORMATION>
 <LOCATION>
  <Chromosome>4</Chromosome>
  <Genome_map>complement(68334..77667)</Genome_map>
  <Map type="cytogenetic">102A1--3</Map>
  <Scaffold>AE003845</Scaffold>
 </LOCATION>
 <GENE_PRODUCT>
  <Transcripts>
   <Transcript id="FBtr0089178">
    ci-RA
    <Polypeptide id="FBpp0088245">ci-PA (1397 aa)</Polypeptide>
   </Transcript>
  </Transcripts>
 </GENE_PRODUCT>
 <GENE_ONTOLOGY>
  <Molecular_function>
   <goterm id="GO:0003704">
    specific RNA polymerase II transcription factor activity
    <goevidence>
     non-traceable author statement
    </goevidence>
   </goterm>
   <goterm id="GO:0003700">
    transcription factor activity
    <goevidence>
     traceable author statement
    </goevidence>
   </goterm>
   <goterm id="GO:0016563">
    transcriptional activator activity
    <goevidence>
     traceable author statement
    </goevidence>
   </goterm>
   <goterm id="GO:0016564">
    transcriptional repressor activity
    <goevidence>
     traceable author statement
    </goevidence>
   </goterm>
   <goterm id="GO:0003700">transcription factor activity</goterm>
   <goterm id="GO:0003704">specific RNA polymerase II transcription factor activity</goterm>
   <goterm id="GO:0016563">transcriptional activator activity</goterm>
   <goterm id="GO:0016564">transcriptional repressor activity</goterm>
  </Molecular_function>
  <Biological_process>
   <goterm id="GO:0007350">blastoderm segmentation</goterm>
   <goterm id="GO:0035224">genital disc anterior/posterior pattern formation</goterm>
   <goterm id="GO:0000122">negative regulation of transcription from Pol II promoter</goterm>
   <goterm id="GO:0030707">ovarian follicle cell development (sensu Insecta)</goterm>
   <goterm id="GO:0045944">positive regulation of transcription from Pol II promoter</goterm>
   <goterm id="GO:0007346">regulation of mitotic cell cycle</goterm>
   <goterm id="GO:0045449">regulation of transcription</goterm>
   <goterm id="GO:0007224">smoothened receptor signaling pathway</goterm>
  </Biological_process>
  <Cellular_component>
   <goterm id="GO:0005737">cytoplasm</goterm>
   <goterm id="GO:0005634">nucleus</goterm>
  </Cellular_component>
 </GENE_ONTOLOGY>
 <FUNCTION>
  <Expressions>
   <Expression type="dev_stage">
    embryo
    <Phenotype>ectoderm</Phenotype>
    <Phenotype>mesoderm</Phenotype>
    <Phenotype>embryonic/larval foregut</Phenotype>
    <Phenotype>embryonic central nervous system</Phenotype>
    <Phenotype>mesectoderm</Phenotype>
    <Phenotype>segmantally repeated</Phenotype>
   </Expression>
   <Expression type="dev_stage">
    larva
    <Phenotype>imaginal disc</Phenotype>
   </Expression>
  </Expressions>
  <Protein_domains>
   <db_xref>IPR000822 == Zinc finger, C2H2 type</db_xref>
   <db_xref>SCOP:57667 == C2H2 and C2HC zinc fingers; ci|FBgn0004859|pp-CT6641|FBan0002125</db_xref>
  </Protein_domains>
  <External_links>
   <db_xref>DEDB:13428</db_xref>
   <db_xref>FlyGRID:FBgn0004859</db_xref>
   <db_xref>Hybrigenics:521395</db_xref>
   <db_xref>Hybrigenics:521465</db_xref>
   <db_xref>IFly:../segment/cubitus.htm</db_xref>
   <db_xref>NCBI_GEO:FBgn0004859</db_xref>
  </External_links>
 </FUNCTION>
 <LITERATURE>
  <Reference>
   <ref>
    <Identifier>FBrf0158727</Identifier>
    <Creator>de Celis</Creator>
    <Date>2003</Date>
    <Source>BioEssays 25(5): 443--451</Source>
    <Title>Pattern formation in the Drosophila wing: the development of the veins.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0151731</Identifier>
    <Creator>Duncan</Creator>
    <Date>2002</Date>
    <Source>A. Rev. Genet. 36: 521--556</Source>
    <Title>Transvection effects in Drosophila.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0156092</Identifier>
    <Creator>Galis et al.</Creator>
    <Date>2002</Date>
    <Source>Trends Genet. 18(10): 504--509</Source>
    <Title>Conservation of the segmented germband stage: robustness or pleiotropy?</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0151999</Identifier>
    <Creator>Jiang</Creator>
    <Date>2002</Date>
    <Source>Genes Dev. 16(18): 2315--2321</Source>
    <Title>Degrading Ci: who is Cul-pable?</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0155667</Identifier>
    <Creator>Jin and Harper</Creator>
    <Date>2002</Date>
    <Source>Dev. Cell 2(6): 685--687</Source>
    <Title>RING finger specificity in SCF-driven protein destruction.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0151324</Identifier>
    <Creator>Seto et al.</Creator>
    <Date>2002</Date>
    <Source>Genes Dev. 16(11): 1314--1336</Source>
    <Title>When cell biology meets development: endocytic regulation of signaling pathways.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
 </LITERATURE>
 <SUMMARY>
  <text>
   The D. melanogaster gene cubitus interruptus, abbreviated as ci, is reported here. It encodes a product with transcriptional activator activity involved in smoothened receptor signaling pathway which is a component of the nucleus; it is expressed in the embryo (ectoderm, embryonic central nervous system, embryonic/larval foregut, embryonic/larval hindgut and 3 other listed tissues) and larva (female genital disc, imaginal disc and male genital disc). It has been sequenced and its amino acid sequence contains a zinc finger, C2H2 type. It has been mapped by recombination to 4-0.0 and cytologically to 102A1--3. It interacts genetically with en, hh, cg, ptc, Pka-C1 and 21 other listed genes. There are 155 recorded alleles: 119 in vitro constructs (none available from the public stock centers), 35 classical mutants (8 available from the public stock centers) and 1 wild-type. Amorphic mutations have been isolated which affect the wing, the wing vein L4, the mesothoracic tarsal bristle longitudinal row 1 and 8 other listed tissues and are recessive lethal, dominant visible and pupal (with cin) lethal. ci is discussed in 552 references (excluding sequence accessions), dated between 1931 and 2004. These include at least 56 studies of mutant phenotypes, 8 studies of wild-type function, 4 studies of natural polymorphisms and 23 molecular studies. Among findings on ci mutants, late ptc transcription patterns depend upon selective repression by ciD. Among findings on ci function, characterization of ci protein reveals it exists in at least two forms, one full-length and the other truncated, these forms differ in activity and subcellular location.
  </text>
 </SUMMARY>
</GeneSummary>
<!-- docurl="flybase-ugp.xml,5648542-5655257" -->


<GeneSummary id="FlyBase:FBgn0003483">
 <Title>FlyBase Gene: spn-E</Title>
 <Source>FlyBase</Source>
 <Type>Gene Summary</Type>
 <BASIC_INFORMATION>
  <GeneID>FBgn0003483</GeneID>
  <Symbol>spn-E</Symbol>
  <Full_name>spindle E</Full_name>
  <Species id="taxon:7227">Drosophila melanogaster</Species>
  <Synonyms>
   <Name>CG3158</Name>
   <Name>fs(1)hls</Name>
   <Name>hls: homeless</Name>
   <Name>homeless</Name>
   <Name>spn-E/hls</Name>
   <Name>spnE</Name>
   <Name>spn E</Name>
   <Name>Homeless</Name>
   <Name>Spindle E</Name>
   <Name>spindle-E</Name>
   <Name>Spn-E</Name>
   <Name>fs(3)hls</Name>
   <Name>hls</Name>
   <Name>female sterile(3)homeless</Name>
  </Synonyms>
  <Date>20 Aug 04</Date>
 </BASIC_INFORMATION>
 <LOCATION>
  <Chromosome>3R</Chromosome>
  <Genome_map>11663177..11670156</Genome_map>
  <Map type="cytogenetic">89A5</Map>
  <Scaffold>AE003710</Scaffold>
 </LOCATION>
 <GENE_PRODUCT>
  <Transcripts>
   <Transcript id="FBtr0083183">
    spn-E-RA
    <Polypeptide id="FBpp0082637">spn-E-PA (1434 aa)</Polypeptide>
   </Transcript>
  </Transcripts>
 </GENE_PRODUCT>
 <GENE_ONTOLOGY>
  <Molecular_function>
   <goterm id="GO:0003676">nucleic acid binding</goterm>
   <goterm id="GO:0003724">
    RNA helicase activity ;  ; EC:2.7.7.-
    <goevidence>
     traceable author statement
    </goevidence>
   </goterm>
   <goterm id="GO:0004386">
    helicase activity
    <goevidence>
     inferred from sequence similarity
    </goevidence>
   </goterm>
   <goterm id="GO:0003676">
    nucleic acid binding
    <goevidence>
     inferred from electronic annotation
    </goevidence>
   </goterm>
   <goterm id="GO:0003724">RNA helicase activity ;  ; EC:2.7.7.-</goterm>
   <goterm id="GO:0004386">helicase activity</goterm>
   <goterm id="GO:0004004">ATP-dependent RNA helicase activity</goterm>
   <goterm id="GO:0008186">RNA-dependent ATPase activity</goterm>
   <goterm id="GO:0004004">
    ATP-dependent RNA helicase activity
    <goevidence>
     inferred from sequence similarity with InterPro:IPR001410
    </goevidence>
   </goterm>
   <goterm id="GO:0008186">
    RNA-dependent ATPase activity
    <goevidence>
     traceable author statement
    </goevidence>
   </goterm>
  </Molecular_function>
  <Biological_process>
   <goterm id="GO:0016246">RNA interference</goterm>
   <goterm id="GO:0030423">RNA interference, targeting of mRNA for destruction</goterm>
   <goterm id="GO:0006403">RNA localization</goterm>
   <goterm id="GO:0006342">chromatin silencing</goterm>
   <goterm id="GO:0030717">karyosome formation</goterm>
   <goterm id="GO:0008298">mRNA localization, intracellular</goterm>
   <goterm id="GO:0000398">nuclear mRNA splicing, via spliceosome</goterm>
   <goterm id="GO:0007294">oocyte cell fate determination (sensu Insecta)</goterm>
   <goterm id="GO:0009994">oocyte differentiation</goterm>
   <goterm id="GO:0001556">oocyte maturation</goterm>
   <goterm id="GO:0030720">oocyte positioning</goterm>
   <goterm id="GO:0009993">oogenesis (sensu Insecta)</goterm>
   <goterm id="GO:0009949">polarity specification of anterior/posterior axis</goterm>
   <goterm id="GO:0009951">polarity specification of dorsal/ventral axis</goterm>
   <goterm id="GO:0007315">pole plasm assembly</goterm>
   <goterm id="GO:0045451">pole plasm oskar mRNA localization</goterm>
   <goterm id="GO:0007317">regulation of pole plasm oskar mRNA localization</goterm>
  </Biological_process>
  <Cellular_component>
   <goterm id="GO:0005737">cytoplasm</goterm>
  </Cellular_component>
 </GENE_ONTOLOGY>
 <FUNCTION>
  <Expressions>
   <Expression type="dev_stage">
    embryo
    <Phenotype>germarium</Phenotype>
   </Expression>
   <Expression type="dev_stage">
    oogenesis, adult
    <Phenotype>ovary</Phenotype>
    <Phenotype>nurse cell</Phenotype>
   </Expression>
  </Expressions>
  <Protein_domains>
   <db_xref>IPR000822 == Zinc finger, C2H2 type</db_xref>
   <db_xref>IPR001410 == DEAD/DEAH box helicase</db_xref>
   <db_xref>IPR001650 == Helicase C-terminal domain</db_xref>
   <db_xref>IPR002999 == Tudor domain</db_xref>
   <db_xref>SCOP:52540 == P-loop containing nucleotide triphosphate hydrolases; spn-E|FBgn0003483|pp-CT10340|FBan0003158</db_xref>
  </Protein_domains>
  <External_links>
   <db_xref>DEDB:9405</db_xref>
   <db_xref>FlyGRID:FBgn0003483</db_xref>
   <db_xref>IFly:../dbzhnsky/homels1.htm</db_xref>
   <db_xref>NCBI_GEO:FBgn0003483</db_xref>
  </External_links>
 </FUNCTION>
 <LITERATURE>
  <Reference>
   <ref>
    <Identifier>FBrf0150772</Identifier>
    <Creator>Schwarz and Zamore</Creator>
    <Date>2002</Date>
    <Source>Genes Dev. 16(9): 1025--1031</Source>
    <Title>Why do miRNAs live in the miRNP?</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0132360</Identifier>
    <Creator>Deng and Lin</Creator>
    <Date>2001</Date>
    <Source>Etkin, Jeon, 2001: 93--138</Source>
    <Title>Asymmetric germ cell division and oocyte determination during Drosophila oogenesis.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0141280</Identifier>
    <Creator>Johnstone and Lasko</Creator>
    <Date>2001</Date>
    <Source>A. Rev. Genet. 35: 365--406</Source>
    <Title>Translational regulation and RNA localization in Drosophila oocytes and embryos.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
 </LITERATURE>
 <SUMMARY>
  <text>
   The D. melanogaster gene spindle E, abbreviated as spn-E, is reported here. It has also been known in FlyBase as fs(3)hls. It encodes a product with RNA-dependent ATPase activity involved in karyosome formation which is a component of the cytoplasm; it is expressed in the ovary (female germline stem cell, germarium, nurse cell and ovary). It has been sequenced and its amino acid sequence contains a zinc finger, C2H2 type, a DEAD/DEAH box helicase, a helicase C-terminal domain and a tudor domain. It has been mapped by recombination to 3-62 and cytologically to 89A5. It interacts genetically with spn-B and spn-D. There are 20 recorded alleles: 1 in vitro construct (not available from the public stock centers), 18 classical mutants (1 available from the public stock centers) and 1 wild-type. Amorphic mutations have been isolated which affect the dorsal appendage and the egg chamber and are female sterile and male fertile. spn-E is discussed in 54 references (excluding sequence accessions), dated between 1987 and 2004. These include at least 4 studies of mutant phenotypes, 3 studies of wild-type function and 3 molecular studies. Among findings on spn-E mutants, spn-E mutants block RNAi activation which normally occurs during egg maturation.
  </text>
 </SUMMARY>
</GeneSummary>
<!-- docurl="flybase-ugp.xml,577945-584502" -->


<GeneSummary id="FlyBase:FBgn0000250">
 <Title>FlyBase Gene: cact</Title>
 <Source>FlyBase</Source>
 <Type>Gene Summary</Type>
 <BASIC_INFORMATION>
  <GeneID>FBgn0000250</GeneID>
  <Symbol>cact</Symbol>
  <Full_name>cactus</Full_name>
  <Species id="taxon:7227">Drosophila melanogaster</Species>
  <Synonyms>
   <Name>CG5848</Name>
   <Name>CG5848</Name>
   <Name>CG5848</Name>
   <Name>cac</Name>
   <Name>fs(2)ltoRN48</Name>
   <Name>BG:DS02740.15</Name>
   <Name>n(2)k17003</Name>
   <Name>dip6</Name>
   <Name>female-sterile-(2)-ltoRN48</Name>
  </Synonyms>
  <Date>20 Aug 04</Date>
 </BASIC_INFORMATION>
 <LOCATION>
  <Chromosome>2L</Chromosome>
  <Genome_map>complement(16291113..16304185)</Genome_map>
  <Map type="cytogenetic">35F9--11</Map>
  <Scaffold>AE003650</Scaffold>
 </LOCATION>
 <GENE_PRODUCT>
  <Transcripts>
   <Transcript id="FBtr0080847">
    cact-RD
    <Polypeptide id="">cact-PD (500 aa)</Polypeptide>
   </Transcript>
   <Transcript id="FBtr0080846">
    cact-RC
    <Polypeptide id="FBpp0080404">cact-PC (482 aa)</Polypeptide>
   </Transcript>
   <Transcript id="FBtr0080845">
    cact-RB
    <Polypeptide id="FBpp0080403">cact-PB (500 aa)</Polypeptide>
   </Transcript>
   <Transcript id="FBtr0080844">
    cact-RA
    <Polypeptide id="FBpp0080402">cact-PA (500 aa)</Polypeptide>
   </Transcript>
  </Transcripts>
 </GENE_PRODUCT>
 <GENE_ONTOLOGY>
  <Molecular_function>
   <goterm id="GO:0008134">transcription factor binding</goterm>
   <goterm id="GO:0008134">
    transcription factor binding
    <goevidence>
     traceable author statement
    </goevidence>
   </goterm>
   <goterm id="GO:0030528">
    transcription regulator activity
    <goevidence>
     inferred from electronic annotation
    </goevidence>
   </goterm>
   <goterm id="GO:0030528">transcription regulator activity</goterm>
   <goterm id="GO:0005515">protein binding</goterm>
   <goterm id="GO:0005515">
    protein binding
    <goevidence>
     inferred from physical interaction with FLYBASE:ird5; FB:FBgn0024222
    </goevidence>
   </goterm>
  </Molecular_function>
  <Biological_process>
   <goterm id="GO:0007249">I-kappaB kinase/NF-kappaB cascade</goterm>
   <goterm id="GO:0008063">Toll signaling pathway</goterm>
   <goterm id="GO:0006916">anti-apoptosis</goterm>
   <goterm id="GO:0006966">antifungal humoral response (sensu Protostomia)</goterm>
   <goterm id="GO:0006967">antifungal polypeptide induction</goterm>
   <goterm id="GO:0006960">antimicrobial humoral response (sensu Protostomia)</goterm>
   <goterm id="GO:0006968">cellular defense response</goterm>
   <goterm id="GO:0042994">cytoplasmic sequestering of transcription factor</goterm>
   <goterm id="GO:0006952">defense response</goterm>
   <goterm id="GO:0046843">dorsal appendage formation</goterm>
   <goterm id="GO:0009950">dorsal/ventral axis specification</goterm>
   <goterm id="GO:0030097">hemopoiesis</goterm>
   <goterm id="GO:0006955">immune response</goterm>
   <goterm id="GO:0042308">negative regulation of protein-nucleus import</goterm>
   <goterm id="GO:0009993">oogenesis (sensu Insecta)</goterm>
   <goterm id="GO:0006357">regulation of transcription from Pol II promoter</goterm>
   <goterm id="GO:0009620">response to fungi</goterm>
  </Biological_process>
  <Cellular_component>
   <goterm id="GO:0005737">cytoplasm</goterm>
  </Cellular_component>
 </GENE_ONTOLOGY>
 <FUNCTION>
  <Expressions>
  </Expressions>
  <Protein_domains>
   <db_xref>SCOP:48403 == Ankyrin repeat; cact|FBgn0000250|pp-CT18347|FBan0005848</db_xref>
  </Protein_domains>
  <External_links>
   <db_xref>DEDB:7745</db_xref>
   <db_xref>FlyGRID:FBgn0000250</db_xref>
   <db_xref>Hybrigenics:521336</db_xref>
   <db_xref>IFly:../torstoll/cactus1.htm</db_xref>
   <db_xref>KWgx:FBgn0000250</db_xref>
   <db_xref>NCBI_GEO:FBgn0000250</db_xref>
  </External_links>
 </FUNCTION>
 <LITERATURE>
  <Reference>
   <ref>
    <Identifier>FBrf0149180</Identifier>
    <Creator>Khush et al.</Creator>
    <Date>2002</Date>
    <Source>Science 296: 273--275</Source>
    <Title>Pathogen surveillance - the flies have it.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0156068</Identifier>
    <Creator>Imler and Hoffmann</Creator>
    <Date>2001</Date>
    <Source>Trends Cell Biol. 11(7): 304--311</Source>
    <Title>Toll receptors in innate immunity.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0141281</Identifier>
    <Creator>Lall and Patel</Creator>
    <Date>2001</Date>
    <Source>A. Rev. Genet. 35: 407--437</Source>
    <Title>Conservation and divergence in molecular mechanisms of axis formation.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0139665</Identifier>
    <Creator>Silverman and Maniatis</Creator>
    <Date>2001</Date>
    <Source>Genes Dev. 15(18): 2321--2342</Source>
    <Title>NF-&amp;kgr;B signaling pathways in mammalian and insect innate immunity.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
 </LITERATURE>
 <SUMMARY>
  <text>
   The D. melanogaster gene cactus, abbreviated as cact, is reported here. It has also been known in FlyBase as fs(2)ltoRN48. It encodes a product with transcription factor binding involved in oogenesis (sensu Insecta) which is localized to the cytoplasm. It has been sequenced and its amino acid sequence is also available. It has been mapped by recombination to 2-52 and cytologically to 35F9--11. It interacts genetically with fus, dl, ea, spz, RpII140 and 9 other listed genes. There are 118 recorded alleles: 48 in vitro constructs (none available from the public stock centers), 69 classical mutants (5 available from the public stock centers) and 1 wild-type. Loss-of-function mutations have been isolated which affect the dorsal embryonic epidermis, the germ-line clone embryonic/first instar larval cuticle, the larval hemocyte and 4 other listed tissues and are recessive lethal. cact is discussed in 266 references (excluding sequence accessions), dated between 1987 and 2004. These include at least 32 studies of mutant phenotypes, 5 studies of wild-type function and 20 molecular studies. Among findings on cact mutants, mutations in cact result in a maternal effect phenotype with defects during the early stages of gastrulation and defects in the dorsoventral axis; embryos derived from homozygous females are ventralized. Among findings on cact function, cact acts in a cell-autonomous manner in the fat body.
  </text>
 </SUMMARY>
</GeneSummary>
<!-- docurl="flybase-ugp.xml,7768371-7776854" -->


<GeneSummary id="FlyBase:FBgn0004864">
 <Title>FlyBase Gene: hop</Title>
 <Source>FlyBase</Source>
 <Type>Gene Summary</Type>
 <BASIC_INFORMATION>
  <GeneID>FBgn0004864</GeneID>
  <Symbol>hop</Symbol>
  <Full_name>hopscotch</Full_name>
  <Species id="taxon:7227">Drosophila melanogaster</Species>
  <Synonyms>
   <Name>CG1594</Name>
   <Name>CG1594</Name>
   <Name>4</Name>
   <Name>locus 18</Name>
   <Name>L4</Name>
   <Name>l(1)hop</Name>
   <Name>l(1)L4</Name>
   <Name>Tum: Tumorous</Name>
   <Name>l(1)10Be</Name>
   <Name>Jak</Name>
   <Name>Hop</Name>
   <Name>Dm JAK</Name>
   <Name>JAK</Name>
   <Name>DmHD-160</Name>
   <Name>Hop1</Name>
   <Name>Jak-STAT</Name>
   <Name>Tum-1</Name>
   <Name>Hopskotch</Name>
   <Name>HD-160</Name>
   <Name>l(1)G18</Name>
   <Name>msvl</Name>
   <Name>Tum</Name>
   <Name>Tumorous</Name>
  </Synonyms>
  <Date>20 Aug 04</Date>
 </BASIC_INFORMATION>
 <LOCATION>
  <Chromosome>X</Chromosome>
  <Genome_map>complement(11102838..11110036)</Genome_map>
  <Map type="cytogenetic">10B5--6</Map>
  <Scaffold>AE003485</Scaffold>
 </LOCATION>
 <GENE_PRODUCT>
  <Transcripts>
   <Transcript id="FBtr0073457">
    hop-RA
    <Polypeptide id="FBpp0073313">hop-PA (1177 aa)</Polypeptide>
   </Transcript>
  </Transcripts>
 </GENE_PRODUCT>
 <GENE_ONTOLOGY>
  <Molecular_function>
   <goterm id="GO:0004715">
    non-membrane spanning protein tyrosine kinase activity ;  ; EC:2.7.1.-
    <goevidence>
     non-traceable author statement
    </goevidence>
   </goterm>
   <goterm id="GO:0004718">
    Janus kinase activity ;  ; EC:2.7.1.-
    <goevidence>
     inferred from sequence similarity with HUGO:JAK1; OMIM:147795
    </goevidence>
   </goterm>
   <goterm id="GO:0004718">
    Janus kinase activity ;  ; EC:2.7.1.-
    <goevidence>
     inferred from sequence similarity with MGD:Jak2; MGI:MGI:96629
    </goevidence>
   </goterm>
   <goterm id="GO:0004718">
    Janus kinase activity ;  ; EC:2.7.1.-
    <goevidence>
     non-traceable author statement
    </goevidence>
   </goterm>
   <goterm id="GO:0004718">
    Janus kinase activity ;  ; EC:2.7.1.-
    <goevidence>
     traceable author statement
    </goevidence>
   </goterm>
   <goterm id="GO:0004713">
    protein-tyrosine kinase activity ;  ; EC:2.7.1.112
    <goevidence>
     non-traceable author statement
    </goevidence>
   </goterm>
   <goterm id="GO:0004713">protein-tyrosine kinase activity ;  ; EC:2.7.1.112</goterm>
   <goterm id="GO:0004715">non-membrane spanning protein tyrosine kinase activity ;  ; EC:2.7.1.-</goterm>
   <goterm id="GO:0004718">Janus kinase activity ;  ; EC:2.7.1.-</goterm>
  </Molecular_function>
  <Biological_process>
   <goterm id="GO:0007259">JAK-STAT cascade</goterm>
   <goterm id="GO:0007262">STAT protein nuclear translocation</goterm>
   <goterm id="GO:0007350">blastoderm segmentation</goterm>
   <goterm id="GO:0007298">border cell migration (sensu Insecta)</goterm>
   <goterm id="GO:0008283">cell proliferation</goterm>
   <goterm id="GO:0006968">cellular defense response</goterm>
   <goterm id="GO:0000910">cytokinesis</goterm>
   <goterm id="GO:0006952">defense response</goterm>
   <goterm id="GO:0007398">ectoderm development</goterm>
   <goterm id="GO:0035010">encapsulation of foreign target</goterm>
   <goterm id="GO:0045317">equator specification</goterm>
   <goterm id="GO:0042067">establishment of ommatidial polarity (sensu Drosophila)</goterm>
   <goterm id="GO:0007456">eye morphogenesis (sensu Drosophila)</goterm>
   <goterm id="GO:0042078">germ-line stem cell renewal</goterm>
   <goterm id="GO:0042386">hemocyte differentiation (sensu Arthropoda)</goterm>
   <goterm id="GO:0035172">hemocyte proliferation (sensu Arthropoda)</goterm>
   <goterm id="GO:0030097">hemopoiesis</goterm>
   <goterm id="GO:0007442">hindgut morphogenesis</goterm>
   <goterm id="GO:0006959">humoral immune response</goterm>
   <goterm id="GO:0006955">immune response</goterm>
   <goterm id="GO:0035171">lamellocyte differentiation</goterm>
   <goterm id="GO:0007480">leg morphogenesis (sensu Holometabola)</goterm>
   <goterm id="GO:0007498">mesoderm development</goterm>
   <goterm id="GO:0007399">neurogenesis</goterm>
   <goterm id="GO:0016318">ommatidial rotation</goterm>
   <goterm id="GO:0009993">oogenesis (sensu Insecta)</goterm>
   <goterm id="GO:0030707">ovarian follicle cell development (sensu Insecta)</goterm>
   <goterm id="GO:0007365">periodic partitioning</goterm>
   <goterm id="GO:0007467">photoreceptor differentiation (sensu Drosophila)</goterm>
   <goterm id="GO:0007538">primary sex determination</goterm>
   <goterm id="GO:0006468">protein amino acid phosphorylation</goterm>
   <goterm id="GO:0007530">sex determination</goterm>
   <goterm id="GO:0048103">somatic stem cell renewal</goterm>
   <goterm id="GO:0019827">stem cell maintenance</goterm>
   <goterm id="GO:0007424">tracheal system development (sensu Insecta)</goterm>
   <goterm id="GO:0007260">tyrosine phosphorylation of STAT protein</goterm>
   <goterm id="GO:0007476">wing morphogenesis</goterm>
  </Biological_process>
  <Cellular_component>
   <goterm id="GO:0005737">cytoplasm</goterm>
  </Cellular_component>
 </GENE_ONTOLOGY>
 <FUNCTION>
  <Expressions>
  </Expressions>
  <Protein_domains>
   <db_xref>IPR000719 == Eukaryotic protein kinase</db_xref>
   <db_xref>IPR000980 == Src homology 2 (SH2) domain</db_xref>
   <db_xref>IPR001245 == Tyrosine kinase catalytic domain</db_xref>
   <db_xref>SCOP:56112 == Protein kinase-like (PK-like); Hop|FBgn0024352|pp-CT4219|FBan0001594</db_xref>
  </Protein_domains>
  <External_links>
   <db_xref>DEDB:2463</db_xref>
   <db_xref>FlyGRID:FBgn0004864</db_xref>
   <db_xref>IFly:../gene/hopscotc.htm</db_xref>
   <db_xref>KWgx:FBgn0004864</db_xref>
   <db_xref>NCBI_GEO:FBgn0004864</db_xref>
  </External_links>
 </FUNCTION>
 <LITERATURE>
  <Reference>
   <ref>
    <Identifier>FBrf0155682</Identifier>
    <Creator>Silver and Montell</Creator>
    <Date>2003</Date>
    <Source>Dev. Cell 4(2): 148--149</Source>
    <Title>A New Trick for Cyclin-Cdk. Activation of STAT.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0151864</Identifier>
    <Creator>Castelli-Gair Hombria and Brown</Creator>
    <Date>2002</Date>
    <Source>Curr. Biol. 12(16): R569--R575</Source>
    <Title>The fertile field of Drosophila Jak/STAT signalling.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0155676</Identifier>
    <Creator>Hou et al.</Creator>
    <Date>2002</Date>
    <Source>Dev. Cell 3(6): 765--778</Source>
    <Title>The JAK/STAT pathway in model organisms: emerging roles in cell movement.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0155987</Identifier>
    <Creator>Lin</Creator>
    <Date>2002</Date>
    <Source>Nature Rev. Genet. 3(12): 931--940</Source>
    <Title>The stem-cell niche theory: lessons from flies.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
 </LITERATURE>
 <SUMMARY>
  <text>
   The D. melanogaster gene hopscotch, abbreviated as hop, is reported here. It has also been known in FlyBase as HD-160. It encodes a product with protein-tyrosine kinase activity (EC:2.7.1.112) involved in cytokinesis which is a component of the cytoplasm. It has been sequenced and its amino acid sequence contains an eukaryotic protein kinase, a src homology 2 (SH2) domain and a tyrosine kinase catalytic domain. It has been mapped by recombination to 1-34.6 and cytologically to 10B5--6. It interacts genetically with Stat92E, os, dome, E(hopTum), awd and 8 other listed genes. There are 67 recorded alleles: 13 in vitro constructs (none available from the public stock centers), 53 classical mutants (2 available from the public stock centers) and 1 wild-type. Amorphic mutations have been isolated which affect the germ-line clone segment and are larval maternal effect lethal and (with hop25) viable. hop is discussed in 204 references (excluding sequence accessions), dated between 1971 and 2004. These include at least 23 studies of mutant phenotypes, 8 studies of wild-type function and 3 molecular studies. Among findings on hop mutants, mutations in Jak kinase, hop, can cause leukemia-like abnormalities. Among findings on hop function, hop is required for the renewal of male germline stem cells and for maintenance of the somatic cyst progenitor cell population in the testis.
  </text>
 </SUMMARY>
</GeneSummary>
<!-- docurl="flybase-ugp.xml,1342672-1349612" -->


<GeneSummary id="FlyBase:FBgn0000575">
 <Title>FlyBase Gene: emc</Title>
 <Source>FlyBase</Source>
 <Type>Gene Summary</Type>
 <BASIC_INFORMATION>
  <GeneID>FBgn0000575</GeneID>
  <Symbol>emc</Symbol>
  <Full_name>extra macrochaetae</Full_name>
  <Species id="taxon:7227">Drosophila melanogaster</Species>
  <Synonyms>
   <Name>CG1007</Name>
   <Name>CG1007</Name>
   <Name>Ach: Achetous</Name>
   <Name>ms(3)61CD</Name>
   <Name>gov</Name>
   <Name>0094/26</Name>
   <Name>0203/10</Name>
   <Name>0587/01</Name>
   <Name>0977/09</Name>
   <Name>l(3)05592</Name>
   <Name>Dm0688</Name>
   <Name>Emc</Name>
   <Name>extramacrochaetae</Name>
   <Name>l(3)04322</Name>
   <Name>l(3)j4E11</Name>
   <Name>male sterile(3)61CD</Name>
   <Name>Ach</Name>
   <Name>Achetous</Name>
   <Name>golovan</Name>
  </Synonyms>
  <Date>20 Aug 04</Date>
 </BASIC_INFORMATION>
 <LOCATION>
  <Chromosome>3L</Chromosome>
  <Genome_map>729659..734134</Genome_map>
  <Map type="cytogenetic">61C9</Map>
  <Scaffold>AE003469</Scaffold>
 </LOCATION>
 <GENE_PRODUCT>
  <Transcripts>
   <Transcript id="FBtr0072578">
    emc-RA
    <Polypeptide id="FBpp0072477">emc-PA (199 aa)</Polypeptide>
   </Transcript>
  </Transcripts>
 </GENE_PRODUCT>
 <GENE_ONTOLOGY>
  <Molecular_function>
   <goterm id="GO:0005515">
    protein binding
    <goevidence>
     non-traceable author statement
    </goevidence>
   </goterm>
   <goterm id="GO:0003714">
    transcription corepressor activity
    <goevidence>
     non-traceable author statement
    </goevidence>
   </goterm>
   <goterm id="GO:0005515">protein binding</goterm>
   <goterm id="GO:0003714">transcription corepressor activity</goterm>
   <goterm id="GO:0003714">
    transcription corepressor activity
    <goevidence>
     inferred from sequence similarity with UniProt:P41137
    </goevidence>
   </goterm>
  </Molecular_function>
  <Biological_process>
   <goterm id="GO:0008407">bristle morphogenesis</goterm>
   <goterm id="GO:0016481">negative regulation of transcription</goterm>
   <goterm id="GO:0000122">negative regulation of transcription from Pol II promoter</goterm>
   <goterm id="GO:0007399">neurogenesis</goterm>
   <goterm id="GO:0007422">peripheral nervous system development</goterm>
   <goterm id="GO:0007461">restriction of R8 fate</goterm>
   <goterm id="GO:0007423">sensory organ development</goterm>
   <goterm id="GO:0007530">sex determination</goterm>
   <goterm id="GO:0007541">sex determination, primary response to X:A ratio</goterm>
   <goterm id="GO:0007286">spermatid development</goterm>
   <goterm id="GO:0008586">wing vein morphogenesis</goterm>
  </Biological_process>
  <Cellular_component>
   <goterm id="GO:0005634">nucleus</goterm>
  </Cellular_component>
 </GENE_ONTOLOGY>
 <FUNCTION>
  <Expressions>
   <Expression type="dev_stage">
    embryo
    <Phenotype>imaginal disc</Phenotype>
    <Phenotype>stomodeum</Phenotype>
    <Phenotype>hindgut primordium</Phenotype>
    <Phenotype>Malpighian tubule primordium</Phenotype>
    <Phenotype>amnioserosa</Phenotype>
    <Phenotype>tracheal pit</Phenotype>
    <Phenotype>visceral mesoderm</Phenotype>
    <Phenotype>ventral nerve cord</Phenotype>
    <Phenotype>procephalic segment</Phenotype>
    <Phenotype>embryonic/larval foregut</Phenotype>
    <Phenotype>apodeme</Phenotype>
    <Phenotype>posterior embryonic/larval midgut</Phenotype>
    <Phenotype>Malpighian tubule</Phenotype>
    <Phenotype>anterior embryonic/larval midgut</Phenotype>
   </Expression>
   <Expression type="dev_stage">
    larva
    <Phenotype>dorsal mesothoracic disc</Phenotype>
   </Expression>
   <Expression type="dev_stage">
    unfertilized egg
    <Phenotype>ventral midline</Phenotype>
   </Expression>
  </Expressions>
  <Protein_domains>
   <db_xref>IPR001092 == Helix-loop-helix dimerization domain</db_xref>
   <db_xref>IPR003015 == Myc-type, helix-loop-helix dimerization domain</db_xref>
   <db_xref>SCOP:47459 == Helix-loop-helix DNA-binding domain; emc|FBgn0000575|pp-CT1010|FBan0001007</db_xref>
  </Protein_domains>
  <External_links>
   <db_xref>BDGPisx:emc</db_xref>
   <db_xref>DEDB:1881</db_xref>
   <db_xref>FlyGRID:FBgn0000575</db_xref>
   <db_xref>IFly:../gene/emc.htm</db_xref>
   <db_xref>KWgx:FBgn0000575</db_xref>
   <db_xref>NCBI_GEO:FBgn0000575</db_xref>
  </External_links>
 </FUNCTION>
 <LITERATURE>
  <Reference>
   <ref>
    <Identifier>FBrf0158727</Identifier>
    <Creator>de Celis</Creator>
    <Date>2003</Date>
    <Source>BioEssays 25(5): 443--451</Source>
    <Title>Pattern formation in the Drosophila wing: the development of the veins.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0151319</Identifier>
    <Creator>Calleja et al.</Creator>
    <Date>2002</Date>
    <Source>Gene 292(1-2): 1--12</Source>
    <Title>How to pattern an epithelium: lessons from achaete-scute regulation on the notum of Drosophila.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0144824</Identifier>
    <Creator>Frankfort and Mardon</Creator>
    <Date>2002</Date>
    <Source>Development 129(6): 1295--1306</Source>
    <Title>R8 development in the Drosophila eye: a paradigm for neural selection and differentiation.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
 </LITERATURE>
 <SUMMARY>
  <text>
   The D. melanogaster gene extra macrochaetae, abbreviated as emc, is reported here. It has also been known in FlyBase as gov, l(3)05592 and ms(3)61CD. It encodes a product with protein binding involved in neurogenesis which is a component of the nucleus; it is expressed in the embryo (Malpighian tubule, Malpighian tubule primordium, amnioproctodeal invagination, amnioserosa and 25 other listed tissues) and larva (dorsal mesothoracic disc and imaginal disc). It has been sequenced and its amino acid sequence contains a helix-loop-helix dimerization domain and a myc-type, helix-loop-helix dimerization domain. It has been mapped by recombination to 3-0.0 and cytologically to 61C9. It interacts genetically with Dl, N, rho, pyd, bs and 12 other listed genes. There are 77 recorded alleles: 3 in vitro constructs (none available from the public stock centers), 73 classical mutants (5 available from the public stock centers) and 1 wild-type. Amorphic mutations have been isolated which affect the somatic clone wing, the somatic clone mesothoracic tergum, the ectopic sense organ and 2 other listed tissues and are lethal and somatic clone cell lethal. emc is discussed in 207 references (excluding sequence accessions), dated between 1980 and 2004. These include at least 34 studies of mutant phenotypes, 3 studies of wild-type function, one study of natural polymorphisms and 11 molecular studies. Among findings on emc function, emc is required during development of the imaginal wing discs in both cell proliferation and cell differentiation processes.
  </text>
 </SUMMARY>
</GeneSummary>
<!-- docurl="flybase-ugp.xml,10529092-10536321" -->


<GeneSummary id="FlyBase:FBgn0011591">
 <Title>FlyBase Gene: fng</Title>
 <Source>FlyBase</Source>
 <Type>Gene Summary</Type>
 <BASIC_INFORMATION>
  <GeneID>FBgn0011591</GeneID>
  <Symbol>fng</Symbol>
  <Full_name>fringe</Full_name>
  <Species id="taxon:7227">Drosophila melanogaster</Species>
  <Synonyms>
   <Name>CG10580</Name>
   <Name>CG10580</Name>
   <Name>l(3)rG554</Name>
   <Name>D-fng</Name>
   <Name>Frg</Name>
   <Name>fg: flag</Name>
   <Name>frg</Name>
   <Name>D-Fng</Name>
   <Name>Dfng</Name>
   <Name>fg</Name>
  </Synonyms>
  <Date>20 Aug 04</Date>
 </BASIC_INFORMATION>
 <LOCATION>
  <Chromosome>3L</Chromosome>
  <Genome_map>complement(20843159..20866785)</Genome_map>
  <Map type="cytogenetic">78A1</Map>
  <Scaffold>AE003592</Scaffold>
 </LOCATION>
 <GENE_PRODUCT>
  <Transcripts>
   <Transcript id="FBtr0078267">
    fng-RA
    <Polypeptide id="FBpp0077925">fng-PA (412 aa)</Polypeptide>
   </Transcript>
  </Transcripts>
 </GENE_PRODUCT>
 <GENE_ONTOLOGY>
  <Molecular_function>
   <goterm id="GO:0008375">
    acetylglucosaminyltransferase activity ;  ; EC:2.4.1.-
    <goevidence>
     non-traceable author statement
    </goevidence>
   </goterm>
   <goterm id="GO:0008194">
    UDP-glycosyltransferase activity
    <goevidence>
     inferred from direct assay
    </goevidence>
   </goterm>
   <goterm id="GO:0016757">
    transferase activity, transferring glycosyl groups ;  ; EC:2.4.-.-
    <goevidence>
     inferred from mutant phenotype
    </goevidence>
   </goterm>
   <goterm id="GO:0016757">
    transferase activity, transferring glycosyl groups ;  ; EC:2.4.-.-
    <goevidence>
     traceable author statement
    </goevidence>
   </goterm>
   <goterm id="GO:0008375">
    acetylglucosaminyltransferase activity ;  ; EC:2.4.1.-
    <goevidence>
     traceable author statement
    </goevidence>
   </goterm>
   <goterm id="GO:0005102">
    receptor binding
    <goevidence>
     inferred from electronic annotation
    </goevidence>
   </goterm>
   <goterm id="GO:0005102">receptor binding</goterm>
   <goterm id="GO:0008375">acetylglucosaminyltransferase activity ;  ; EC:2.4.1.-</goterm>
   <goterm id="GO:0016757">transferase activity, transferring glycosyl groups ;  ; EC:2.4.-.-</goterm>
   <goterm id="GO:0008194">UDP-glycosyltransferase activity</goterm>
  </Molecular_function>
  <Biological_process>
   <goterm id="GO:0007219">Notch signaling pathway</goterm>
   <goterm id="GO:0001708">cell fate specification</goterm>
   <goterm id="GO:0007451">dorsal/ventral lineage restriction, imaginal disc</goterm>
   <goterm id="GO:0007450">dorsal/ventral pattern formation, imaginal disc</goterm>
   <goterm id="GO:0007398">ectoderm development</goterm>
   <goterm id="GO:0007293">egg chamber formation (sensu Insecta)</goterm>
   <goterm id="GO:0007456">eye morphogenesis (sensu Drosophila)</goterm>
   <goterm id="GO:0007478">leg disc metamorphosis</goterm>
   <goterm id="GO:0045746">negative regulation of Notch signaling pathway</goterm>
   <goterm id="GO:0007399">neurogenesis</goterm>
   <goterm id="GO:0009993">oogenesis (sensu Insecta)</goterm>
   <goterm id="GO:0045747">positive regulation of Notch signaling pathway</goterm>
   <goterm id="GO:0008593">regulation of Notch signaling pathway</goterm>
   <goterm id="GO:0007379">segment specification</goterm>
   <goterm id="GO:0008587">wing margin morphogenesis</goterm>
   <goterm id="GO:0007476">wing morphogenesis</goterm>
  </Biological_process>
  <Cellular_component>
   <goterm id="GO:0005794">Golgi apparatus</goterm>
   <goterm id="GO:0005795">Golgi stack</goterm>
   <goterm id="GO:0005783">endoplasmic reticulum</goterm>
   <goterm id="GO:0016021">integral to membrane</goterm>
  </Cellular_component>
 </GENE_ONTOLOGY>
 <FUNCTION>
  <Expressions>
   <Expression type="dev_stage">
    adult, oogenesis
    <Phenotype>follicle cell</Phenotype>
    <Phenotype>polar follicle cell</Phenotype>
    <Phenotype>
     follicle cell
     &lt;of> germarium region 2b
    </Phenotype>
   </Expression>
   <Expression type="dev_stage">
    larva
    <Phenotype>dorsal mesothoracic disc</Phenotype>
   </Expression>
  </Expressions>
  <External_links>
   <db_xref>BDGPisx:fng</db_xref>
   <db_xref>DEDB:5900</db_xref>
   <db_xref>FlyGRID:FBgn0011591</db_xref>
   <db_xref>IFly:../newgene/fringe.htm</db_xref>
   <db_xref>NCBI_GEO:FBgn0011591</db_xref>
  </External_links>
 </FUNCTION>
 <LITERATURE>
  <Reference>
   <ref>
    <Identifier>FBrf0155573</Identifier>
    <Creator>Haltiwanger and Stanley</Creator>
    <Date>2002</Date>
    <Source>Biochim. biophys. Acta 1573(3): 328--335</Source>
    <Title>Modulation of receptor signaling by glycosylation: fringe is an O-fucose-beta1,3-N-acetylglucosaminyltransferase.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0151490</Identifier>
    <Creator>Stewart</Creator>
    <Date>2002</Date>
    <Source>Semin. Cell Dev. Biol. 13(2): 91--97</Source>
    <Title>Membrane trafficking in Drosophila wing and eye development.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0155642</Identifier>
    <Creator>Wilson</Creator>
    <Date>2002</Date>
    <Source>Curr. Opin. Struct. Biol. 12(5): 569--577</Source>
    <Title>Glycosylation of proteins in plants and invertebrates.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
 </LITERATURE>
 <SUMMARY>
  <text>
   The D. melanogaster gene fringe, abbreviated as fng, is reported here. It has also been known in FlyBase as l(3)rG554. It encodes a product with UDP-glycosyltransferase activity involved in wing morphogenesis which is localized to the Golgi apparatus; it is expressed in the adult (follicle cell and polar follicle cell) and larva (dorsal mesothoracic disc). It has been sequenced and its amino acid sequence is also available. It has been mapped by recombination to 3-47 and cytologically to 78A1. It interacts genetically with Ser, ap, N, Bx, Dl and 5 other listed genes. There are 53 recorded alleles: 22 in vitro constructs (1 available from the public stock centers), 30 classical mutants (1 available from the public stock centers) and 1 wild-type. Loss-of-function mutations have been isolated which affect the ectopic wing vein, the somatic clone wing, the ocellar triangle and 30 other listed tissues and are recessive lethal, recessive visible, recessive somatic clone cell non-autonomous tissue polarity, (with Df(3L)ri-XT1) lethal, (with fng80) lethal, (with fngM69) semi-viable, (with fng11) lethal, (with fng129) lethal, (with fng14) lethal, (with fng1) lethal, (with fng2) semi-viable, (with fng35UZ-1) semi-viable, (with fng3) lethal, (with fng52) semi-viable, (with fng5) lethal, (with fng7 to 8) lethal, (with fngL19) lethal, (with fngL73) lethal, (with fngL81) lethal and (with fngL83) lethal. fng is discussed in 197 references (excluding sequence accessions), dated between 1994 and 2004. These include at least 18 studies of mutant phenotypes, 13 studies of wild-type function and 9 molecular studies. Among findings on fng function, fng is required cell-autonomously in the somatic polar cells for follicle formation and also for polar cell fate.
  </text>
 </SUMMARY>
</GeneSummary>
<!-- docurl="flybase-ugp.xml,4839296-4846924" -->


<GeneSummary id="FlyBase:FBgn0003118">
 <Title>FlyBase Gene: pnt</Title>
 <Source>FlyBase</Source>
 <Type>Gene Summary</Type>
 <BASIC_INFORMATION>
  <GeneID>FBgn0003118</GeneID>
  <Symbol>pnt</Symbol>
  <Full_name>pointed</Full_name>
  <Species id="taxon:7227">Drosophila melanogaster</Species>
  <Synonyms>
   <Name>CG17077</Name>
   <Name>CG17077</Name>
   <Name>CG17077</Name>
   <Name>D-ets-2</Name>
   <Name>D-Ets-2</Name>
   <Name>ETS2</Name>
   <Name>0123/09</Name>
   <Name>0608/07</Name>
   <Name>0998/12</Name>
   <Name>3520</Name>
   <Name>DMPOINT1A</Name>
   <Name>POINT</Name>
   <Name>E(E2F)3D</Name>
   <Name>pointed-P1</Name>
   <Name>pointed-P2</Name>
   <Name>EY3-1</Name>
   <Name>ptd</Name>
   <Name>EK3-2</Name>
   <Name>pointedP2</Name>
   <Name>PNTP1</Name>
   <Name>PNTP2</Name>
   <Name>Ets2</Name>
   <Name>Ets58AB</Name>
   <Name>Ets94F</Name>
   <Name>ets94F</Name>
   <Name>l(3)07825</Name>
   <Name>l(3)j1B7</Name>
   <Name>Ets at 58AB</Name>
  </Synonyms>
  <Date>20 Aug 04</Date>
 </BASIC_INFORMATION>
 <LOCATION>
  <Chromosome>3R</Chromosome>
  <Genome_map>complement(19107483..19162541)</Genome_map>
  <Map type="cytogenetic">94E10--13</Map>
  <Scaffold>AE003742</Scaffold>
 </LOCATION>
 <GENE_PRODUCT>
  <Transcripts>
   <Transcript id="FBtr0089717">
    pnt-RB
    <Polypeptide id="FBpp0088658">pnt-PB (718 aa)</Polypeptide>
   </Transcript>
   <Transcript id="FBtr0089716">
    pnt-RD
    <Polypeptide id="FBpp0088657">pnt-PD (636 aa)</Polypeptide>
   </Transcript>
   <Transcript id="FBtr0089715">
    pnt-RC
    <Polypeptide id="FBpp0088656">pnt-PC (623 aa)</Polypeptide>
   </Transcript>
  </Transcripts>
 </GENE_PRODUCT>
 <GENE_ONTOLOGY>
  <Molecular_function>
   <goterm id="GO:0003704">
    specific RNA polymerase II transcription factor activity
    <goevidence>
     inferred from sequence similarity with MGD:Ets1; MGI:MGI:95455
    </goevidence>
   </goterm>
   <goterm id="GO:0003704">specific RNA polymerase II transcription factor activity</goterm>
  </Molecular_function>
  <Biological_process>
   <goterm id="GO:0000165">MAPKKK cascade</goterm>
   <goterm id="GO:0045467">R7 development</goterm>
   <goterm id="GO:0007265">RAS protein signal transduction</goterm>
   <goterm id="GO:0006916">anti-apoptosis</goterm>
   <goterm id="GO:0007173">epidermal growth factor receptor signaling pathway</goterm>
   <goterm id="GO:0007507">heart development</goterm>
   <goterm id="GO:0030097">hemopoiesis</goterm>
   <goterm id="GO:0007157">heterophilic cell adhesion</goterm>
   <goterm id="GO:0007498">mesoderm development</goterm>
   <goterm id="GO:0009997">negative regulation of cardioblast cell fate specification</goterm>
   <goterm id="GO:0030707">ovarian follicle cell development (sensu Insecta)</goterm>
   <goterm id="GO:0007513">pericardial cell differentiation</goterm>
   <goterm id="GO:0007422">peripheral nervous system development</goterm>
   <goterm id="GO:0045449">regulation of transcription</goterm>
   <goterm id="GO:0006357">regulation of transcription from Pol II promoter</goterm>
   <goterm id="GO:0007429">secondary tracheal branching (sensu Insecta)</goterm>
   <goterm id="GO:0007362">terminal region determination</goterm>
   <goterm id="GO:0008293">torso signaling pathway</goterm>
   <goterm id="GO:0007424">tracheal system development (sensu Insecta)</goterm>
  </Biological_process>
  <Cellular_component>
   <goterm id="GO:0005634">nucleus</goterm>
  </Cellular_component>
 </GENE_ONTOLOGY>
 <FUNCTION>
  <Expressions>
   <Expression type="dev_stage">
    embryo
    <Phenotype>VUM neuron</Phenotype>
    <Phenotype>interface glial cell</Phenotype>
    <Phenotype>embryonic/larval tracheal system</Phenotype>
    <Phenotype>mesoderm</Phenotype>
   </Expression>
   <Expression type="dev_stage">
    larva
    <Phenotype>morphogenetic furrow</Phenotype>
   </Expression>
  </Expressions>
  <Protein_domains>
   <db_xref>IPR000418 == Ets-domain</db_xref>
   <db_xref>IPR002341 == HSF/ETS DNA-binding domain</db_xref>
   <db_xref>
    IPR003118 == Sterile
    &amp;agr; motif (SAM)/Pointed domain
   </db_xref>
   <db_xref>SCOP:47769 == SAM/Pointed domain; pnt|FBgn0003118|pp-CT37466|FBan0017077</db_xref>
  </Protein_domains>
  <External_links>
   <db_xref>DEDB:10265</db_xref>
   <db_xref>FlyGRID:FBgn0003118</db_xref>
   <db_xref>IFly:../neural/pointed.htm</db_xref>
   <db_xref>KWgx:FBgn0003118</db_xref>
   <db_xref>NCBI_GEO:FBgn0003118</db_xref>
  </External_links>
 </FUNCTION>
 <LITERATURE>
  <Reference>
   <ref>
    <Identifier>FBrf0151249</Identifier>
    <Creator>Cripps and Olson</Creator>
    <Date>2002</Date>
    <Source>Dev. Biol. 246(1): 14--28</Source>
    <Title>Control of cardiac development by an evolutionarily conserved transcriptional network.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0131240</Identifier>
    <Creator>Affolter and Shilo</Creator>
    <Date>2000</Date>
    <Source>Curr. Opin. Cell Biol. 12(6): 731--735</Source>
    <Title>Genetic control of branching morphogenesis during Drosophila tracheal development.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0128450</Identifier>
    <Creator>Dobens and Raftery</Creator>
    <Date>2000</Date>
    <Source>Dev. Dynamics 218(1): 80--93</Source>
    <Title>Integration of epithelial patterning and morphogenesis in Drosophila ovarian follicle cells.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0134816</Identifier>
    <Creator>Hsu and Schulz</Creator>
    <Date>2000</Date>
    <Source>Oncogene 19(55): 6409--6416</Source>
    <Title>Sequence and functional properties of Ets genes in the model organism Drosophila.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0127283</Identifier>
    <Creator>Raabe</Creator>
    <Date>2000</Date>
    <Source>Biochim. biophys. Acta 1496(2-3): 151--163</Source>
    <Title>The Sevenless signaling pathway: variations of a common theme.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
 </LITERATURE>
 <SUMMARY>
  <text>
   The D. melanogaster gene pointed, abbreviated as pnt, is reported here. It has also been known in FlyBase as Ets58AB. It encodes a product with specific RNA polymerase II transcription factor activity involved in torso signaling pathway which is localized to the nucleus; it is expressed in the embryo (VUM neuron, embryonic/larval tracheal system, imaginal disc anlagen, interface glial cell and 6 other listed tissues) and larva (morphogenetic furrow and ommatidium). It has been sequenced and its amino acid sequence contains an ets-domain, a HSF/ETS DNA-binding domain and a sterile
   &amp;agr; motif (SAM)/Pointed domain. It has been mapped by recombination to 3-79.0 and cytologically to 94E10--13. It interacts genetically with Ras85D, phl, Jra, Dsor1, pros and 18 other listed genes. There are 68 recorded alleles: 12 in vitro constructs (2 available from the public stock centers), 55 classical mutants (5 available from the public stock centers) and 1 wild-type. Amorphic mutations have been isolated which affect the trachea and the central nervous system and are recessive lethal. pnt is discussed in 277 references (excluding sequence accessions), dated between 1984 and 2004. These include at least 36 studies of mutant phenotypes, 3 studies of wild-type function and 10 molecular studies. Among findings on pnt mutants, pnt mutants display a pointed head skeleton and deletion of the medial portion in all denticle belts.
  </text>
 </SUMMARY>
</GeneSummary>
<!-- docurl="flybase-ugp.xml,6184546-6192367" -->


<GeneSummary id="FlyBase:FBgn0003870">
 <Title>FlyBase Gene: ttk</Title>
 <Source>FlyBase</Source>
 <Type>Gene Summary</Type>
 <BASIC_INFORMATION>
  <GeneID>FBgn0003870</GeneID>
  <Symbol>ttk</Symbol>
  <Full_name>tramtrack</Full_name>
  <Species id="taxon:7227">Drosophila melanogaster</Species>
  <Synonyms>
   <Name>CG11558</Name>
   <Name>CG1856</Name>
   <Name>CG11558</Name>
   <Name>CG1856</Name>
   <Name>CG1856</Name>
   <Name>oss</Name>
   <Name>osn</Name>
   <Name>ttk/FTZ-F2</Name>
   <Name>FTZ-F2</Name>
   <Name>oversensitive</Name>
   <Name>Ttk</Name>
   <Name>E(yan)100D</Name>
   <Name>schmal</Name>
   <Name>0037/17</Name>
   <Name>0250/25</Name>
   <Name>0438/31</Name>
   <Name>0702/07</Name>
   <Name>1049/07</Name>
   <Name>1119/04</Name>
   <Name>1184/16</Name>
   <Name>1209/05</Name>
   <Name>1209/10</Name>
   <Name>1260/10</Name>
   <Name>1281/04</Name>
   <Name>1325/15</Name>
   <Name>1372/08</Name>
   <Name>1396/14</Name>
   <Name>1418/06</Name>
   <Name>3540</Name>
   <Name>5125</Name>
   <Name>5311</Name>
   <Name>clone 2.9</Name>
   <Name>Ttk69</Name>
   <Name>ftzf2/ttk</Name>
   <Name>tramtrack69</Name>
   <Name>TTK88</Name>
   <Name>ttk69</Name>
   <Name>ttkp69</Name>
   <Name>Tramtrack69</Name>
   <Name>anon-EST:Liang-2.9</Name>
   <Name>ftz-f2</Name>
   <Name>l(3)02667</Name>
   <Name>l(3)j2A1</Name>
   <Name>l(3)j7B8</Name>
   <Name>ovs</Name>
   <Name>Enhancer of yan at 100D</Name>
  </Synonyms>
  <Date>20 Aug 04</Date>
 </BASIC_INFORMATION>
 <LOCATION>
  <Chromosome>3R</Chromosome>
  <Genome_map>27528972..27550480</Genome_map>
  <Map type="cytogenetic">100D1</Map>
  <Scaffold>AE003779</Scaffold>
 </LOCATION>
 <GENE_PRODUCT>
  <Transcripts>
   <Transcript id="FBtr0085830">
    ttk-RD
    <Polypeptide id="FBpp0085191">ttk-PD (643 aa)</Polypeptide>
   </Transcript>
   <Transcript id="FBtr0085829">
    ttk-RA
    <Polypeptide id="FBpp0085190">ttk-PA (813 aa)</Polypeptide>
   </Transcript>
   <Transcript id="FBtr0085828">
    ttk-RC
    <Polypeptide id="FBpp0085189">ttk-PC (643 aa)</Polypeptide>
   </Transcript>
   <Transcript id="FBtr0085827">
    ttk-RB
    <Polypeptide id="FBpp0085188">ttk-PB (813 aa)</Polypeptide>
   </Transcript>
   <Transcript id="FBtr0085826">
    ttk-RF
    <Polypeptide id="FBpp0085187">ttk-PF (643 aa)</Polypeptide>
   </Transcript>
   <Transcript id="FBtr0085825">
    ttk-RE
    <Polypeptide id="FBpp0085186">ttk-PE (813 aa)</Polypeptide>
   </Transcript>
  </Transcripts>
 </GENE_PRODUCT>
 <GENE_ONTOLOGY>
  <Molecular_function>
   <goterm id="GO:0003704">
    specific RNA polymerase II transcription factor activity
    <goevidence>
     non-traceable author statement
    </goevidence>
   </goterm>
   <goterm id="GO:0016564">
    transcriptional repressor activity
    <goevidence>
     non-traceable author statement
    </goevidence>
   </goterm>
   <goterm id="GO:0003704">specific RNA polymerase II transcription factor activity</goterm>
   <goterm id="GO:0016564">transcriptional repressor activity</goterm>
  </Molecular_function>
  <Biological_process>
   <goterm id="GO:0045467">R7 development</goterm>
   <goterm id="GO:0001709">cell fate determination</goterm>
   <goterm id="GO:0006333">chromatin assembly or disassembly</goterm>
   <goterm id="GO:0046843">dorsal appendage formation</goterm>
   <goterm id="GO:0000122">negative regulation of transcription from Pol II promoter</goterm>
   <goterm id="GO:0007422">peripheral nervous system development</goterm>
   <goterm id="GO:0006357">regulation of transcription from Pol II promoter</goterm>
   <goterm id="GO:0007530">sex determination</goterm>
   <goterm id="GO:0019226">transmission of nerve impulse</goterm>
  </Biological_process>
  <Cellular_component>
   <goterm id="GO:0005634">nucleus</goterm>
   <goterm id="GO:0005700">polytene chromosome</goterm>
  </Cellular_component>
 </GENE_ONTOLOGY>
 <FUNCTION>
  <Expressions>
   <Expression type="dev_stage">
    embryo
    <Phenotype>ectoderm</Phenotype>
    <Phenotype>mesoderm</Phenotype>
    <Phenotype>anterior midgut primordium</Phenotype>
    <Phenotype>pole cell</Phenotype>
    <Phenotype>posterior midgut primordium</Phenotype>
    <Phenotype>stomodeum</Phenotype>
    <Phenotype>yolk nuclei</Phenotype>
    <Phenotype>tracheal pit</Phenotype>
   </Expression>
  </Expressions>
  <Protein_domains>
   <db_xref>IPR000210 == BTB/POZ domain</db_xref>
   <db_xref>IPR000637 == HMG-I and HMG-Y DNA-binding domain (A+T-hook)</db_xref>
   <db_xref>IPR000822 == Zinc finger, C2H2 type</db_xref>
  </Protein_domains>
  <External_links>
   <db_xref>BDGPisx:ttk</db_xref>
   <db_xref>DEDB:11313</db_xref>
   <db_xref>FlyGRID:FBgn0003870</db_xref>
   <db_xref>Hybrigenics:521274</db_xref>
   <db_xref>Hybrigenics:522209</db_xref>
   <db_xref>IFly:../gene/tramtrac.htm</db_xref>
   <db_xref>KWgx:FBgn0003870</db_xref>
   <db_xref>NCBI_GEO:FBgn0003870</db_xref>
  </External_links>
 </FUNCTION>
 <LITERATURE>
  <Reference>
   <ref>
    <Identifier>FBrf0127283</Identifier>
    <Creator>Raabe</Creator>
    <Date>2000</Date>
    <Source>Biochim. biophys. Acta 1496(2-3): 151--163</Source>
    <Title>The Sevenless signaling pathway: variations of a common theme.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0111376</Identifier>
    <Creator>Granderath and Klambt</Creator>
    <Date>1999</Date>
    <Source>Curr. Opin. Neurobiol. 9(5): 531--536</Source>
    <Title>Glia development in the embryonic CNS of Drosophila.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0100672</Identifier>
    <Creator>Dickson</Creator>
    <Date>1998</Date>
    <Source>Curr. Biol. 8(3): R90--R92</Source>
    <Title>Breaking down the barriers.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0105975</Identifier>
    <Creator>Hawkins and Garriga</Creator>
    <Date>1998</Date>
    <Source>Genes Dev. 12(23): 3625--3638</Source>
    <Title>Asymmetric cell division: from A to Z.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
 </LITERATURE>
 <SUMMARY>
  <text>
   The D. melanogaster gene tramtrack, abbreviated as ttk, is reported here. It has also been known in FlyBase as CG11558, CG1856 and ovs. It encodes a product with transcriptional repressor activity involved in R7 development which is localized to the nucleus; it is expressed in the embryo (anterior midgut primordium, ectoderm, mesoderm, pole cell and 5 other listed tissues) and prepupa and pupa (cone cell, photoreceptor cell, primary pigment cell, secondary pigment cell and 2 other listed tissues). It has been sequenced and its amino acid sequence contains a BTB/POZ domain, a HMG-I and HMG-Y DNA-binding domain (A+T-hook) and a zinc finger, C2H2 type. It has been mapped by recombination to 3-102.7 and cytologically to 100D1. It interacts genetically with aop, msi, CtBP, Gap1, Ras85D and 14 other listed genes. There are 106 recorded alleles: 46 in vitro constructs (4 available from the public stock centers), 59 classical mutants (3 available from the public stock centers) and 1 wild-type. Amorphic mutations have been isolated which affect the somatic clone ommatidium, the filzkorper, the mouth hooks and 14 other listed tissues and are embryonic lethal. ttk is discussed in 218 references (excluding sequence accessions), dated between 1986 and 2004. These include at least 27 studies of mutant phenotypes, 8 studies of wild-type function and 12 molecular studies. Among findings on ttk mutants, mutation in ttk affects the neuronal lineage, causes transformation of support cells into neurons. Among findings on ttk function, down-regulation of ttk protein expression occurs in photoreceptor cells and is required for their fate determination.
  </text>
 </SUMMARY>
</GeneSummary>
<!-- docurl="flybase-ugp.xml,7414574-7422892" -->


<GeneSummary id="FlyBase:FBgn0004635">
 <Title>FlyBase Gene: rho</Title>
 <Source>FlyBase</Source>
 <Type>Gene Summary</Type>
 <BASIC_INFORMATION>
  <GeneID>FBgn0004635</GeneID>
  <Symbol>rho</Symbol>
  <Full_name>rhomboid</Full_name>
  <Species id="taxon:7227">Drosophila melanogaster</Species>
  <Synonyms>
   <Name>CG1004</Name>
   <Name>CG1004</Name>
   <Name>ve: veinlet</Name>
   <Name>Rho: Rhombotin</Name>
   <Name>DMRHOa</Name>
   <Name>DMRHOb</Name>
   <Name>Ve</Name>
   <Name>DRORHO</Name>
   <Name>DMRHO</Name>
   <Name>RHOb</Name>
   <Name>Rhomboid</Name>
   <Name>rhom</Name>
   <Name>RHO</Name>
   <Name>rho-1</Name>
   <Name>veinlet</Name>
   <Name>Veinlet</Name>
   <Name>Rhomboid-1</Name>
   <Name>rho1</Name>
   <Name>rhomboid-1</Name>
   <Name>Rho-1</Name>
   <Name>rhomboid1</Name>
   <Name>ve</Name>
   <Name>Rho</Name>
   <Name>rhomboid/veinlet</Name>
  </Synonyms>
  <Date>20 Aug 04</Date>
 </BASIC_INFORMATION>
 <LOCATION>
  <Chromosome>3L</Chromosome>
  <Genome_map>1444421..1449112</Genome_map>
  <Map type="cytogenetic">62A4</Map>
  <Scaffold>AE003471</Scaffold>
 </LOCATION>
 <GENE_PRODUCT>
  <Transcripts>
   <Transcript id="FBtr0072694">
    rho-RA
    <Polypeptide id="FBpp0072578">rho-PA (355 aa)</Polypeptide>
   </Transcript>
  </Transcripts>
 </GENE_PRODUCT>
 <GENE_ONTOLOGY>
  <Molecular_function>
   <goterm id="GO:0008236">
    serine-type peptidase activity
    <goevidence>
     inferred from direct assay
    </goevidence>
   </goterm>
   <goterm id="GO:0008236">
    serine-type peptidase activity
    <goevidence>
     inferred from genetic interaction with FLYBASE:spi; FB:FBgn0005672
    </goevidence>
   </goterm>
   <goterm id="GO:0008236">
    serine-type peptidase activity
    <goevidence>
     inferred from mutant phenotype
    </goevidence>
   </goterm>
   <goterm id="GO:0008236">
    serine-type peptidase activity
    <goevidence>
     inferred from sequence similarity
    </goevidence>
   </goterm>
   <goterm id="GO:0008236">
    serine-type peptidase activity
    <goevidence>
     traceable author statement
    </goevidence>
   </goterm>
   <goterm id="GO:0005102">
    receptor binding
    <goevidence>
     inferred from electronic annotation
    </goevidence>
   </goterm>
   <goterm id="GO:0005057">
    receptor signaling protein activity
    <goevidence>
     inferred from electronic annotation
    </goevidence>
   </goterm>
   <goterm id="GO:0005102">receptor binding</goterm>
   <goterm id="GO:0005057">receptor signaling protein activity</goterm>
   <goterm id="GO:0008236">serine-type peptidase activity</goterm>
  </Molecular_function>
  <Biological_process>
   <goterm id="GO:0007420">brain development</goterm>
   <goterm id="GO:0046845">branch cell fate determination (sensu Insecta)</goterm>
   <goterm id="GO:0001763">branching morphogenesis</goterm>
   <goterm id="GO:0007398">ectoderm development</goterm>
   <goterm id="GO:0007174">epidermal growth factor ligand processing</goterm>
   <goterm id="GO:0007173">epidermal growth factor receptor signaling pathway</goterm>
   <goterm id="GO:0007479">leg disc proximal/distal pattern formation</goterm>
   <goterm id="GO:0007438">oenocyte development</goterm>
   <goterm id="GO:0030707">ovarian follicle cell development (sensu Insecta)</goterm>
   <goterm id="GO:0007422">peripheral nervous system development</goterm>
   <goterm id="GO:0045742">positive regulation of epidermal growth factor receptor signaling pathway</goterm>
   <goterm id="GO:0006508">proteolysis and peptidolysis</goterm>
   <goterm id="GO:0007176">regulation of epidermal growth factor receptor activity</goterm>
   <goterm id="GO:0007432">salivary gland determination</goterm>
   <goterm id="GO:0007431">salivary gland development</goterm>
   <goterm id="GO:0007424">tracheal system development (sensu Insecta)</goterm>
   <goterm id="GO:0007474">wing vein specification</goterm>
  </Biological_process>
  <Cellular_component>
   <goterm id="GO:0005794">Golgi apparatus</goterm>
   <goterm id="GO:0005783">NOT endoplasmic reticulum</goterm>
   <goterm id="GO:0005886">NOT plasma membrane</goterm>
   <goterm id="GO:0016021">integral to membrane</goterm>
   <goterm id="GO:0005887">integral to plasma membrane</goterm>
   <goterm id="GO:0005886">plasma membrane</goterm>
  </Cellular_component>
 </GENE_ONTOLOGY>
 <FUNCTION>
  <Expressions>
   <Expression type="dev_stage">
    embryo
    <Phenotype>mesectoderm</Phenotype>
    <Phenotype>ventral midline</Phenotype>
    <Phenotype>tracheal pit</Phenotype>
    <Phenotype>chordotonal organ</Phenotype>
    <Phenotype>Malpighian tubule tip cell</Phenotype>
   </Expression>
   <Expression type="dev_stage">
    embryo stage
    >=12
    <Phenotype>central nervous system</Phenotype>
   </Expression>
   <Expression type="dev_stage">
    larva, pupa
    <Phenotype>wing vein</Phenotype>
   </Expression>
   <Expression type="dev_stage">
    oogenesis, adult
    <Phenotype>follicle cell</Phenotype>
   </Expression>
   <Expression type="dev_stage">
    pupa
    <Phenotype>wing vein L1</Phenotype>
   </Expression>
  </Expressions>
  <External_links>
   <db_xref>DEDB:1942</db_xref>
   <db_xref>FlyGRID:FBgn0004635</db_xref>
   <db_xref>IFly:../torstoll/rhombid1.htm</db_xref>
   <db_xref>NCBI_GEO:FBgn0004635</db_xref>
  </External_links>
 </FUNCTION>
 <LITERATURE>
  <Reference>
   <ref>
    <Identifier>FBrf0159337</Identifier>
    <Creator>Abrams et al.</Creator>
    <Date>2003</Date>
    <Source>Trends Cell Biol. 13(5): 247--254</Source>
    <Title>Constructing an organ: the Drosophila salivary gland as a model for tube formation.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0158927</Identifier>
    <Creator>Shilo</Creator>
    <Date>2003</Date>
    <Source>Exp. Cell Res. 284(1): 140--149</Source>
    <Title>Signaling by the Drosophila epidermal growth factor receptor pathway during development.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0159734</Identifier>
    <Creator>Urban</Creator>
    <Date>2003</Date>
    <Source>Curr. Opin. Genet. Dev. 12(5): 512--518</Source>
    <Title>[title not yet available]</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0158727</Identifier>
    <Creator>de Celis</Creator>
    <Date>2003</Date>
    <Source>BioEssays 25(5): 443--451</Source>
    <Title>Pattern formation in the Drosophila wing: the development of the veins.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
 </LITERATURE>
 <SUMMARY>
  <text>
   The D. melanogaster gene rhomboid, abbreviated as rho, is reported here. It has also been known in FlyBase as MS:DRORHO and ve. It encodes a product with serine-type peptidase activity involved in peripheral nervous system development which is localized to the plasma membrane; it is expressed in the embryo (Malpighian tubule tip cell, chordotonal organ, mesectoderm, tracheal pit and 2 other listed tissues), larva (ommatidia, photoreceptor cell R2, photoreceptor cell R5, photoreceptor cell R8 and 2 other listed tissues), ovary (follicle cell) and prepupa and pupa (crossvein, wing vein and wing vein L1 to 5). It has been sequenced and its amino acid sequence is also available. It has been mapped by recombination to 3-0.2 and cytologically to 62A4. It interacts genetically with Egfr, bs, vn, dpp, S and 75 other listed genes. There are 58 recorded alleles: 29 in vitro constructs (none available from the public stock centers), 28 classical mutants (4 available from the public stock centers) and 1 wild-type. Amorphic mutations have been isolated which affect the embryonic ventral nervous system, the ventral denticle belt, the Keilin's organ and 19 other listed tissues and are embryonic recessive lethal. rho is discussed in 506 references (excluding sequence accessions), dated between 1919 and 2004. These include at least 71 studies of mutant phenotypes, 8 studies of wild-type function and 9 molecular studies. Among findings on rho mutants, rho mutants display a pointed head skeleton and deletion of the medial portion in all denticle belts. Among findings on rho function, the rho NEE enhancer element does not discriminate between TATA-containing and TATA-less promoters.
  </text>
 </SUMMARY>
</GeneSummary>
<!-- docurl="flybase-ugp.xml,2487081-2494288" -->


<GeneSummary id="FlyBase:FBgn0001308">
 <Title>FlyBase Gene: Khc</Title>
 <Source>FlyBase</Source>
 <Type>Gene Summary</Type>
 <BASIC_INFORMATION>
  <GeneID>FBgn0001308</GeneID>
  <Symbol>Khc</Symbol>
  <Full_name>Kinesin heavy chain</Full_name>
  <Species id="taxon:7227">Drosophila melanogaster</Species>
  <Synonyms>
   <Name>CG7765</Name>
   <Name>CG7765</Name>
   <Name>kinesin</Name>
   <Name>kin</Name>
   <Name>khc</Name>
   <Name>Dmkin</Name>
   <Name>KHC</Name>
   <Name>l(2)k13314</Name>
   <Name>
    kinesin
    &amp;agr; subunit
   </Name>
   <Name>DmKHC</Name>
   <Name>Kin: Kinesin</Name>
   <Name>DKH</Name>
   <Name>l(2R)W12</Name>
   <Name>
    kinesin
    &amp;agr;-chain
   </Name>
   <Name>l(2)W12</Name>
   <Name>KIF5A</Name>
   <Name>KIN</Name>
   <Name>DK</Name>
   <Name>Kinesin</Name>
   <Name>Kin</Name>
   <Name>Khc</Name>
  </Synonyms>
  <Date>20 Aug 04</Date>
 </BASIC_INFORMATION>
 <LOCATION>
  <Chromosome>2R</Chromosome>
  <Genome_map>complement(11330690..11335703)</Genome_map>
  <Map type="cytogenetic">53A2--3</Map>
  <Scaffold>AE003807</Scaffold>
 </LOCATION>
 <GENE_PRODUCT>
  <Transcripts>
   <Transcript id="FBtr0087184">
    Khc-RA
    <Polypeptide id="FBpp0086328">Khc-PA (975 aa)</Polypeptide>
   </Transcript>
  </Transcripts>
 </GENE_PRODUCT>
 <GENE_ONTOLOGY>
  <Molecular_function>
   <goterm id="GO:0008017">microtubule binding</goterm>
   <goterm id="GO:0008017">
    microtubule binding
    <goevidence>
     inferred from direct assay
    </goevidence>
   </goterm>
   <goterm id="GO:0008017">
    microtubule binding
    <goevidence>
     inferred from sequence similarity with EMBL:AF067180
    </goevidence>
   </goterm>
   <goterm id="GO:0003777">
    microtubule motor activity
    <goevidence>
     non-traceable author statement
    </goevidence>
   </goterm>
   <goterm id="GO:0003774">
    motor activity
    <goevidence>
     non-traceable author statement
    </goevidence>
   </goterm>
   <goterm id="GO:0005200">
    structural constituent of cytoskeleton
    <goevidence>
     inferred from electronic annotation
    </goevidence>
   </goterm>
   <goterm id="GO:0003777">
    microtubule motor activity
    <goevidence>
     inferred from sequence similarity
    </goevidence>
   </goterm>
   <goterm id="GO:0008574">
    plus-end-directed microtubule motor activity ;  ; EC:3.6.4.4
    <goevidence>
     traceable author statement
    </goevidence>
   </goterm>
   <goterm id="GO:0003777">
    microtubule motor activity
    <goevidence>
     inferred from sequence similarity with EMBL:AF067180
    </goevidence>
   </goterm>
   <goterm id="GO:0005200">structural constituent of cytoskeleton</goterm>
   <goterm id="GO:0003774">motor activity</goterm>
   <goterm id="GO:0003777">microtubule motor activity</goterm>
   <goterm id="GO:0008574">plus-end-directed microtubule motor activity ;  ; EC:3.6.4.4</goterm>
  </Molecular_function>
  <Biological_process>
   <goterm id="GO:0019227">action potential propagation</goterm>
   <goterm id="GO:0007303">cytoplasmic transport, nurse cell to oocyte</goterm>
   <goterm id="GO:0007018">microtubule-based movement</goterm>
   <goterm id="GO:0007269">neurotransmitter secretion</goterm>
   <goterm id="GO:0007310">oocyte dorsal/ventral axis determination</goterm>
   <goterm id="GO:0007315">pole plasm assembly</goterm>
   <goterm id="GO:0045451">pole plasm oskar mRNA localization</goterm>
   <goterm id="GO:0006605">protein targeting</goterm>
   <goterm id="GO:0007317">regulation of pole plasm oskar mRNA localization</goterm>
  </Biological_process>
  <Cellular_component>
   <goterm id="GO:0005871">kinesin complex</goterm>
  </Cellular_component>
 </GENE_ONTOLOGY>
 <FUNCTION>
  <Expressions>
   <Expression type="dev_stage">
    adult
    <Phenotype>head</Phenotype>
   </Expression>
   <Expression type="dev_stage">
    larva
    <Phenotype>photoreceptor cell</Phenotype>
   </Expression>
  </Expressions>
  <Protein_domains>
   <db_xref>IPR001752 == Kinesin motor domain</db_xref>
   <db_xref>SCOP:52540 == P-loop containing nucleotide triphosphate hydrolases; Khc|FBgn0001308|pp-CT23616|FBan0007765</db_xref>
  </Protein_domains>
  <External_links>
   <db_xref>DEDB:12093</db_xref>
   <db_xref>FlyGRID:FBgn0001308</db_xref>
   <db_xref>Hybrigenics:521616</db_xref>
   <db_xref>KWgx:FBgn0001308</db_xref>
   <db_xref>NCBI_GEO:FBgn0001308</db_xref>
  </External_links>
 </FUNCTION>
 <LITERATURE>
  <Reference>
   <ref>
    <Identifier>FBrf0155474</Identifier>
    <Creator>Cohen</Creator>
    <Date>2002</Date>
    <Source>Curr. Biol. 12(23): R797--R799</Source>
    <Title>Oocyte patterning: dynein and Kinesin, inc.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0144782</Identifier>
    <Creator>Palacios</Creator>
    <Date>2002</Date>
    <Source>Curr. Biol. 12(2): R50--R52</Source>
    <Title>RNA processing: splicing and the cytoplasmic localisation of mRNA.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0155512</Identifier>
    <Creator>Pellettieri and Seydoux</Creator>
    <Date>2002</Date>
    <Source>Science 298(5600): 1946--1950</Source>
    <Title>Anterior-posterior polarity in C. elegans and Drosophila--PARallels and differences.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0156097</Identifier>
    <Creator>Tekotte and Davis</Creator>
    <Date>2002</Date>
    <Source>Trends Genet. 18(12): 636--642</Source>
    <Title>Intracellular mRNA localization: motors move messages.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
 </LITERATURE>
 <SUMMARY>
  <text>
   The D. melanogaster gene Kinesin heavy chain, abbreviated as Khc, is reported here. It has also been known in FlyBase as l(2)W12 and l(2)k13314. It encodes a product with motor activity involved in regulation of pole plasm oskar mRNA localization which is localized to the cytoplasm; it is expressed in the adult (head). It has been sequenced and its amino acid sequence contains a kinesin motor domain. It has been mapped cytologically to 53A2--3. It interacts genetically with E(Khc)ek4, Dhc64C, Sh, eag, mle and 7 other listed genes. There are 48 recorded alleles: 6 in vitro constructs (none available from the public stock centers), 41 classical mutants (2 available from the public stock centers) and 1 wild-type. Amorphic mutations have been isolated which affect the somatic clone eye, the somatic clone ommatidium, the somatic clone photoreceptor cell and 4 other listed tissues and are recessive lethal and recessive somatic clone visible. Khc is discussed in 262 references (excluding sequence accessions), dated between 1988 and 2004. These include at least 27 studies of mutant phenotypes, 6 studies of wild-type function and 11 molecular studies. Among findings on Khc mutants, Khc mutations cause axonal swellings that are filled with the cargoes of fast axonal transport, including many membrane-bounded organelles and synaptic membrane proteins. Among findings on Khc function, posterior localization of Dynein and dorsal-ventral axis formation in the oocyte is dependent on Khc.
  </text>
 </SUMMARY>
</GeneSummary>
<!-- docurl="flybase-ugp.xml,1047649-1056605" -->


<GeneSummary id="FlyBase:FBgn0000462">
 <Title>FlyBase Gene: dl</Title>
 <Source>FlyBase</Source>
 <Type>Gene Summary</Type>
 <BASIC_INFORMATION>
  <GeneID>FBgn0000462</GeneID>
  <Symbol>dl</Symbol>
  <Full_name>dorsal</Full_name>
  <Species id="taxon:7227">Drosophila melanogaster</Species>
  <Synonyms>
   <Name>CG6667</Name>
   <Name>CG6667</Name>
   <Name>CG6667</Name>
   <Name>fs(2)k10816</Name>
   <Name>dL</Name>
   <Name>mat(2)dorsal</Name>
   <Name>anon-EST:GressD7</Name>
  </Synonyms>
  <Date>20 Aug 04</Date>
 </BASIC_INFORMATION>
 <LOCATION>
  <Chromosome>2L</Chromosome>
  <Genome_map>complement(17414916..17428443)</Genome_map>
  <Map type="cytogenetic">36C8--9</Map>
  <Scaffold>AE003655</Scaffold>
 </LOCATION>
 <GENE_PRODUCT>
  <Transcripts>
   <Transcript id="FBtr0081007">
    dl-RC
    <Polypeptide id="FBpp0080560">dl-PC (999 aa)</Polypeptide>
   </Transcript>
   <Transcript id="FBtr0081006">
    dl-RB
    <Polypeptide id="FBpp0080559">dl-PB (677 aa)</Polypeptide>
   </Transcript>
   <Transcript id="FBtr0081005">
    dl-RA
    <Polypeptide id="FBpp0080558">dl-PA (677 aa)</Polypeptide>
   </Transcript>
  </Transcripts>
 </GENE_PRODUCT>
 <GENE_ONTOLOGY>
  <Molecular_function>
   <goterm id="GO:0003677">DNA binding</goterm>
   <goterm id="GO:0003677">
    DNA binding
    <goevidence>
     non-traceable author statement
    </goevidence>
   </goterm>
   <goterm id="GO:0003700">
    transcription factor activity
    <goevidence>
     non-traceable author statement
    </goevidence>
   </goterm>
   <goterm id="GO:0016563">
    transcriptional activator activity
    <goevidence>
     traceable author statement
    </goevidence>
   </goterm>
   <goterm id="GO:0003702">
    RNA polymerase II transcription factor activity
    <goevidence>
     traceable author statement
    </goevidence>
   </goterm>
   <goterm id="GO:0016015">
    morphogen activity
    <goevidence>
     non-traceable author statement
    </goevidence>
   </goterm>
   <goterm id="GO:0003704">
    specific RNA polymerase II transcription factor activity
    <goevidence>
     inferred from sequence similarity with MGD:Rel; MGI:MGI:97897
    </goevidence>
   </goterm>
   <goterm id="GO:0016564">
    transcriptional repressor activity
    <goevidence>
     traceable author statement
    </goevidence>
   </goterm>
   <goterm id="GO:0003702">RNA polymerase II transcription factor activity</goterm>
   <goterm id="GO:0003700">transcription factor activity</goterm>
   <goterm id="GO:0003704">specific RNA polymerase II transcription factor activity</goterm>
   <goterm id="GO:0016015">morphogen activity</goterm>
   <goterm id="GO:0016563">transcriptional activator activity</goterm>
   <goterm id="GO:0016564">transcriptional repressor activity</goterm>
  </Molecular_function>
  <Biological_process>
   <goterm id="GO:0007249">I-kappaB kinase/NF-kappaB cascade</goterm>
   <goterm id="GO:0008063">Toll signaling pathway</goterm>
   <goterm id="GO:0009952">anterior/posterior pattern formation</goterm>
   <goterm id="GO:0006916">anti-apoptosis</goterm>
   <goterm id="GO:0006968">cellular defense response</goterm>
   <goterm id="GO:0006952">defense response</goterm>
   <goterm id="GO:0009950">dorsal/ventral axis specification</goterm>
   <goterm id="GO:0009953">dorsal/ventral pattern formation</goterm>
   <goterm id="GO:0001715">ectoderm cell fate specification</goterm>
   <goterm id="GO:0007398">ectoderm development</goterm>
   <goterm id="GO:0007369">gastrulation</goterm>
   <goterm id="GO:0008354">germ cell migration</goterm>
   <goterm id="GO:0007507">heart development</goterm>
   <goterm id="GO:0006955">immune response</goterm>
   <goterm id="GO:0008358">maternal determination of anterior/posterior axis, embryo</goterm>
   <goterm id="GO:0007501">mesoderm cell fate specification</goterm>
   <goterm id="GO:0007498">mesoderm development</goterm>
   <goterm id="GO:0016481">negative regulation of transcription</goterm>
   <goterm id="GO:0000122">negative regulation of transcription from Pol II promoter</goterm>
   <goterm id="GO:0045892">negative regulation of transcription, DNA-dependent</goterm>
   <goterm id="GO:0045944">positive regulation of transcription from Pol II promoter</goterm>
   <goterm id="GO:0045893">positive regulation of transcription, DNA-dependent</goterm>
   <goterm id="GO:0045449">regulation of transcription</goterm>
   <goterm id="GO:0007419">ventral cord development</goterm>
  </Biological_process>
  <Cellular_component>
   <goterm id="GO:0005737">cytoplasm</goterm>
   <goterm id="GO:0005634">nucleus</goterm>
  </Cellular_component>
 </GENE_ONTOLOGY>
 <FUNCTION>
  <Expressions>
   <Expression type="dev_stage">
    embryo
    <Phenotype>ovary</Phenotype>
    <Phenotype>larval fat body</Phenotype>
   </Expression>
  </Expressions>
  <Protein_domains>
   <db_xref>IPR000451 == NF-&amp;kgr;-B/Rel/dorsal family</db_xref>
   <db_xref>SCOP:48726 == Immunoglobulin; dl|FBgn0000462|pp-CT20676|FBan0006667</db_xref>
   <db_xref>SCOP:48726 == Immunoglobulin; dl|FBgn0000462|pp-CT20694|FBan0006667</db_xref>
   <db_xref>SCOP:48726 == Immunoglobulin; dl|FBgn0000462|pp-CT42418|FBan0006667</db_xref>
   <db_xref>SCOP:49417 == p53-like transcription factors; dl|FBgn0000462|pp-CT20676|FBan0006667</db_xref>
   <db_xref>SCOP:49417 == p53-like transcription factors; dl|FBgn0000462|pp-CT20694|FBan0006667</db_xref>
   <db_xref>SCOP:49417 == p53-like transcription factors; dl|FBgn0000462|pp-CT42418|FBan0006667</db_xref>
  </Protein_domains>
  <External_links>
   <db_xref>DEDB:7871</db_xref>
   <db_xref>FlyGRID:FBgn0000462</db_xref>
   <db_xref>Hybrigenics:521795</db_xref>
   <db_xref>IFly:../torstoll/dorsal1.htm</db_xref>
   <db_xref>KWgx:FBgn0000462</db_xref>
   <db_xref>NCBI_GEO:FBgn0000462</db_xref>
  </External_links>
 </FUNCTION>
 <LITERATURE>
  <Reference>
   <ref>
    <Identifier>FBrf0155688</Identifier>
    <Creator>Silverman</Creator>
    <Date>2003</Date>
    <Source>Dev. Cell 4(1): 5--6</Source>
    <Title>Flies kNOw How to Signal.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0151249</Identifier>
    <Creator>Cripps and Olson</Creator>
    <Date>2002</Date>
    <Source>Dev. Biol. 246(1): 14--28</Source>
    <Title>Control of cardiac development by an evolutionarily conserved transcriptional network.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0159908</Identifier>
    <Creator>Janssens and Beyaert</Creator>
    <Date>2002</Date>
    <Source>Trends Biochem. Sci. 27(9): 474--482</Source>
    <Title>A universal role for MyD88 in TLR/IL-1R-mediated signaling.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0149180</Identifier>
    <Creator>Khush et al.</Creator>
    <Date>2002</Date>
    <Source>Science 296: 273--275</Source>
    <Title>Pathogen surveillance - the flies have it.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0148941</Identifier>
    <Creator>Stathopoulos and Levine</Creator>
    <Date>2002</Date>
    <Source>Dev. Biol. 246(1): 57--67</Source>
    <Title>Dorsal gradient networks in the Drosophila embryo.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
 </LITERATURE>
 <SUMMARY>
  <text>
   The D. melanogaster gene dorsal, abbreviated as dl, is reported here. It has also been known in FlyBase as anon-EST:GreesD7, anon-EST:GressD7 and anon-ESTGreesD7. It encodes a product with DNA binding involved in maternal determination of anterior/posterior axis, embryo which is localized to the cytoplasm and the nucleus; it is expressed in the adult (ovary and ovary), embryo (mesoderm and ventral furrow), larva (larval fat body) and ovary (nurse cell). It has been sequenced and its amino acid sequence contains a NF-&amp;kgr;-B/Rel/dorsal family. It has been mapped by recombination to 2-52.9 and cytologically to 36C8--9. It interacts genetically with cact, RpII140, fs(1)Yb, fog, Dif and 4 other listed genes. There are 111 recorded alleles: 64 in vitro constructs (none available from the public stock centers), 46 classical mutants (4 available from the public stock centers) and 1 wild-type. Amorphic mutations have been isolated which affect the ventral embryonic/first instar larval cuticle, the adult salivary gland primordium, the endoderm and 5 other listed tissues and are maternal effect recessive lethal. dl is discussed in 516 references (excluding sequence accessions), dated between 1979 and 2004. These include at least 66 studies of mutant phenotypes, 10 studies of wild-type function, one study of natural polymorphisms and 24 molecular studies. Among findings on dl mutants, mutations in dl result in a maternal effect phenotype with defects during the early stages of gastrulation and defects in the dorsoventral axis; embryos derived from homozygous females are dorsalized.
  </text>
 </SUMMARY>
</GeneSummary>
<!-- docurl="flybase-ugp.xml,877656-885267" -->


<GeneSummary id="FlyBase:FBgn0000382">
 <Title>FlyBase Gene: csw</Title>
 <Source>FlyBase</Source>
 <Type>Gene Summary</Type>
 <BASIC_INFORMATION>
  <GeneID>FBgn0000382</GeneID>
  <Symbol>csw</Symbol>
  <Full_name>corkscrew</Full_name>
  <Species id="taxon:7227">Drosophila melanogaster</Species>
  <Synonyms>
   <Name>CG3954</Name>
   <Name>CG3954</Name>
   <Name>CG3954</Name>
   <Name>CG3954</Name>
   <Name>l(1)csw</Name>
   <Name>l(1)2Db</Name>
   <Name>E(sev)1A: Enhancer of sevenless 1A</Name>
   <Name>19-106</Name>
   <Name>l(1)2Dd</Name>
   <Name>Csw</Name>
   <Name>l(1)G0170</Name>
   <Name>CSW</Name>
   <Name>Csw/Shp2</Name>
   <Name>EG:BACN25G24.2</Name>
   <Name>l(1)GA114</Name>
   <Name>E(sev)1A</Name>
   <Name>Enhancer of sevenless 1A</Name>
  </Synonyms>
  <Date>20 Aug 04</Date>
 </BASIC_INFORMATION>
 <LOCATION>
  <Chromosome>X</Chromosome>
  <Genome_map>1851008..1870437</Genome_map>
  <Map type="cytogenetic">2D1--2</Map>
  <Scaffold>AE003423</Scaffold>
 </LOCATION>
 <GENE_PRODUCT>
  <Transcripts>
   <Transcript id="FBtr0070378">
    csw-RA
    <Polypeptide id="FBpp0070362">csw-PA (841 aa)</Polypeptide>
   </Transcript>
   <Transcript id="FBtr0070380">
    csw-RC
    <Polypeptide id="FBpp0070364">csw-PC (682 aa)</Polypeptide>
   </Transcript>
   <Transcript id="FBtr0070379">
    csw-RB
    <Polypeptide id="FBpp0070363">csw-PB (945 aa)</Polypeptide>
   </Transcript>
  </Transcripts>
 </GENE_PRODUCT>
 <GENE_ONTOLOGY>
  <Molecular_function>
   <goterm id="GO:0004725">
    protein tyrosine phosphatase activity ;  ; EC:3.1.3.48
    <goevidence>
     non-traceable author statement
    </goevidence>
   </goterm>
   <goterm id="GO:0004725">
    protein tyrosine phosphatase activity ;  ; EC:3.1.3.48
    <goevidence>
     inferred from direct assay
    </goevidence>
   </goterm>
   <goterm id="GO:0004726">
    non-membrane spanning protein tyrosine phosphatase activity
    <goevidence>
     non-traceable author statement
    </goevidence>
   </goterm>
   <goterm id="GO:0004726">
    non-membrane spanning protein tyrosine phosphatase activity
    <goevidence>
     inferred from sequence similarity
    </goevidence>
   </goterm>
   <goterm id="GO:0004728">
    receptor signaling protein tyrosine phosphatase activity
    <goevidence>
     non-traceable author statement
    </goevidence>
   </goterm>
   <goterm id="GO:0004725">protein tyrosine phosphatase activity ;  ; EC:3.1.3.48</goterm>
   <goterm id="GO:0004726">non-membrane spanning protein tyrosine phosphatase activity</goterm>
   <goterm id="GO:0004728">receptor signaling protein tyrosine phosphatase activity</goterm>
  </Molecular_function>
  <Biological_process>
   <goterm id="GO:0007465">R7 cell fate commitment</goterm>
   <goterm id="GO:0008595">determination of anterior/posterior axis, embryo</goterm>
   <goterm id="GO:0008069">dorsal/ventral axis determination, follicular epithelium (sensu Insecta)</goterm>
   <goterm id="GO:0007173">epidermal growth factor receptor signaling pathway</goterm>
   <goterm id="GO:0008543">fibroblast growth factor receptor signaling pathway</goterm>
   <goterm id="GO:0007444">imaginal disc development</goterm>
   <goterm id="GO:0007498">mesoderm development</goterm>
   <goterm id="GO:0007428">primary tracheal branching (sensu Insecta)</goterm>
   <goterm id="GO:0006470">protein amino acid dephosphorylation</goterm>
   <goterm id="GO:0045500">sevenless signaling pathway</goterm>
   <goterm id="GO:0007362">terminal region determination</goterm>
   <goterm id="GO:0008293">torso signaling pathway</goterm>
   <goterm id="GO:0007427">tracheal cell migration (sensu Insecta)</goterm>
   <goterm id="GO:0007418">ventral midline development</goterm>
  </Biological_process>
  <Cellular_component>
   <goterm id="GO:0005737">cytoplasm</goterm>
  </Cellular_component>
 </GENE_ONTOLOGY>
 <FUNCTION>
  <Expressions>
  </Expressions>
  <Protein_domains>
   <db_xref>IPR000242 == Tyrosine specific protein phosphatase</db_xref>
   <db_xref>IPR000387 == Tyrosine specific protein phosphatase and dual specificity protein phosphatase family</db_xref>
   <db_xref>IPR000980 == Src homology 2 (SH2) domain</db_xref>
   <db_xref>SCOP:52799 == (Phosphotyrosine protein) phosphatases II; csw|FBgn0000382|pp-CT13063|FBan0003954</db_xref>
   <db_xref>SCOP:52799 == (Phosphotyrosine protein) phosphatases II; csw|FBgn0000382|pp-CT37554|FBan0003954</db_xref>
   <db_xref>SCOP:52799 == (Phosphotyrosine protein) phosphatases II; csw|FBgn0000382|pp-CT43319|FBan0003954</db_xref>
   <db_xref>SCOP:55550 == SH2 domain; csw|FBgn0000382|pp-CT13063|FBan0003954</db_xref>
   <db_xref>SCOP:55550 == SH2 domain; csw|FBgn0000382|pp-CT37554|FBan0003954</db_xref>
   <db_xref>SCOP:55550 == SH2 domain; csw|FBgn0000382|pp-CT43319|FBan0003954</db_xref>
  </Protein_domains>
  <External_links>
   <db_xref>DEDB:307</db_xref>
   <db_xref>FlyGRID:FBgn0000382</db_xref>
   <db_xref>IFly:../torstoll/corkscr1.htm</db_xref>
   <db_xref>NCBI_GEO:FBgn0000382</db_xref>
  </External_links>
 </FUNCTION>
 <LITERATURE>
  <Reference>
   <ref>
    <Identifier>FBrf0127283</Identifier>
    <Creator>Raabe</Creator>
    <Date>2000</Date>
    <Source>Biochim. biophys. Acta 1496(2-3): 151--163</Source>
    <Title>The Sevenless signaling pathway: variations of a common theme.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0111327</Identifier>
    <Creator>Baek and Lee</Creator>
    <Date>1999</Date>
    <Source>J. Biomed. Sci. 6(5): 314--319</Source>
    <Title>Signal transduction pathway for anterior-posterior development in Drosophila.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0124979</Identifier>
    <Creator>Feng</Creator>
    <Date>1999</Date>
    <Source>Exp. Cell Res. 253(1): 47--54</Source>
    <Title>Shp-2 tyrosine phosphatase: signaling one cell or many.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0109590</Identifier>
    <Creator>den Hertog</Creator>
    <Date>1999</Date>
    <Source>Mech. Dev. 85(1,2): 3--14</Source>
    <Title>Protein-tyrosine phosphatases in development.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
 </LITERATURE>
 <SUMMARY>
  <text>
   The D. melanogaster gene corkscrew, abbreviated as csw, is reported here. It has also been known in FlyBase as CG3954 and l(1)G0170. It encodes a product with protein tyrosine phosphatase activity (EC:3.1.3.48) involved in epidermal growth factor receptor signaling pathway which is a component of the cytoplasm. It has been sequenced and its amino acid sequence contains a tyrosine specific protein phosphatase, a tyrosine specific protein phosphatase and dual specificity protein phosphatase family and a src homology 2 (SH2) domain. It has been mapped by recombination to 1-1 and cytologically to 2D1--2. It interacts genetically with dos, svp, Ras85D, Src42A, Egfr and 20 other listed genes. There are 44 recorded alleles: 19 in vitro constructs (none available from the public stock centers), 24 classical mutants (1 available from the public stock centers) and 1 wild-type. Amorphic mutations have been isolated which affect the germ-line clone embryonic/first instar larval cuticle and are pupal lethal. csw is discussed in 132 references (excluding sequence accessions), dated between 1983 and 2004. These include at least 23 studies of mutant phenotypes, 3 studies of wild-type function and 8 molecular studies. Among findings on csw function, csw has a positive role in embryonic mesoderm development.
  </text>
 </SUMMARY>
</GeneSummary>
<!-- docurl="flybase-ugp.xml,26377071-26385227" -->


<GeneSummary id="FlyBase:FBgn0028734">
 <Title>FlyBase Gene: Fmr1</Title>
 <Source>FlyBase</Source>
 <Type>Gene Summary</Type>
 <BASIC_INFORMATION>
  <GeneID>FBgn0028734</GeneID>
  <Symbol>Fmr1</Symbol>
  <Species id="taxon:7227">Drosophila melanogaster</Species>
  <Synonyms>
   <Name>CG6203</Name>
   <Name>CG6203</Name>
   <Name>FXR</Name>
   <Name>Fragile-X-related</Name>
   <Name>cg6203</Name>
   <Name>dFMR1</Name>
   <Name>dfmr1</Name>
   <Name>dFXR</Name>
   <Name>FMR1</Name>
   <Name>dfxr</Name>
   <Name>dFmr1</Name>
   <Name>fragile X</Name>
   <Name>AT24755</Name>
   <Name>EP(3)3517</Name>
   <Name>dmfr1</Name>
   <Name>dFXR1</Name>
   <Name>dFMRP</Name>
   <Name>dfxr1</Name>
   <Name>fmr</Name>
   <Name>Fragile X-related</Name>
   <Name>dfmr</Name>
   <Name>BcDNA:GM08679</Name>
   <Name>Fragile X related</Name>
  </Synonyms>
  <Date>20 Aug 04</Date>
 </BASIC_INFORMATION>
 <LOCATION>
  <Chromosome>3R</Chromosome>
  <Genome_map>complement(5927154..5935862)</Genome_map>
  <Map type="cytogenetic">85F10--12</Map>
  <Scaffold>AE003685</Scaffold>
 </LOCATION>
 <GENE_PRODUCT>
  <Transcripts>
   <Transcript id="FBtr0082200">
    Fmr1-RE
    <Polypeptide id="FBpp0081678">Fmr1-PE (643 aa)</Polypeptide>
   </Transcript>
   <Transcript id="FBtr0082199">
    Fmr1-RD
    <Polypeptide id="FBpp0081677">Fmr1-PD (681 aa)</Polypeptide>
   </Transcript>
   <Transcript id="FBtr0082198">
    Fmr1-RC
    <Polypeptide id="FBpp0081676">Fmr1-PC (681 aa)</Polypeptide>
   </Transcript>
   <Transcript id="FBtr0082197">
    Fmr1-RA
    <Polypeptide id="FBpp0081675">Fmr1-PA (684 aa)</Polypeptide>
   </Transcript>
   <Transcript id="FBtr0082196">
    Fmr1-RB
    <Polypeptide id="FBpp0081674">Fmr1-PB (529 aa)</Polypeptide>
   </Transcript>
  </Transcripts>
 </GENE_PRODUCT>
 <GENE_ONTOLOGY>
  <Molecular_function>
   <goterm id="GO:0003723">RNA binding</goterm>
   <goterm id="GO:0003729">mRNA binding</goterm>
   <goterm id="GO:0003729">
    mRNA binding
    <goevidence>
     non-traceable author statement
    </goevidence>
   </goterm>
   <goterm id="GO:0003729">
    mRNA binding
    <goevidence>
     inferred from direct assay
    </goevidence>
   </goterm>
   <goterm id="GO:0005515">
    protein binding
    <goevidence>
     inferred from physical interaction with FLYBASE:AGO2; FB:FBgn0046812
    </goevidence>
   </goterm>
   <goterm id="GO:0005515">
    protein binding
    <goevidence>
     inferred from physical interaction with FLYBASE:Rm62; FB:FBgn0003261
    </goevidence>
   </goterm>
   <goterm id="GO:0005515">
    protein binding
    <goevidence>
     inferred from physical interaction with FLYBASE:RpL11; FB:FBgn0013325
    </goevidence>
   </goterm>
   <goterm id="GO:0005515">
    protein binding
    <goevidence>
     inferred from physical interaction with FLYBASE:RpL5; FB:FBgn0064225
    </goevidence>
   </goterm>
   <goterm id="GO:0005515">protein binding</goterm>
   <goterm id="GO:0003723">
    RNA binding
    <goevidence>
     inferred from sequence similarity with UniProt:P51116
    </goevidence>
   </goterm>
  </Molecular_function>
  <Biological_process>
   <goterm id="GO:0006935">NOT chemotaxis</goterm>
   <goterm id="GO:0042331">NOT phototaxis</goterm>
   <goterm id="GO:0007268">NOT synaptic transmission</goterm>
   <goterm id="GO:0007411">axon guidance</goterm>
   <goterm id="GO:0007623">circadian rhythm</goterm>
   <goterm id="GO:0006917">induction of apoptosis</goterm>
   <goterm id="GO:0040011">locomotion</goterm>
   <goterm id="GO:0045475">locomotor rhythm</goterm>
   <goterm id="GO:0016542">male courtship behavior (sensu Insecta)</goterm>
   <goterm id="GO:0016478">negative regulation of translation</goterm>
   <goterm id="GO:0007269">neurotransmitter secretion</goterm>
   <goterm id="GO:0006139">nucleobase, nucleoside, nucleotide and nucleic acid metabolism</goterm>
   <goterm id="GO:0015931">nucleobase, nucleoside, nucleotide and nucleic acid transport</goterm>
   <goterm id="GO:0050773">regulation of dendrite morphogenesis</goterm>
   <goterm id="GO:0050807">regulation of synapse structure</goterm>
   <goterm id="GO:0008582">regulation of synaptic growth at neuromuscular junction</goterm>
   <goterm id="GO:0006445">regulation of translation</goterm>
   <goterm id="GO:0007288">sperm axoneme assembly</goterm>
   <goterm id="GO:0007416">synaptogenesis</goterm>
  </Biological_process>
  <Cellular_component>
   <goterm id="GO:0016442">RNA-induced silencing complex</goterm>
   <goterm id="GO:0005737">cytoplasm</goterm>
   <goterm id="GO:0035068">micro-ribonucleoprotein complex</goterm>
  </Cellular_component>
 </GENE_ONTOLOGY>
 <FUNCTION>
  <Expressions>
  </Expressions>
  <Protein_domains>
   <db_xref>IPR000958 == KH domain</db_xref>
   <db_xref>IPR003029 == S1 RNA binding domain</db_xref>
   <db_xref>SCOP:54791 == KH-domain; Fmr1|FBgn0028734|pp-CT17036|FBan0006203</db_xref>
  </Protein_domains>
  <External_links>
   <db_xref>DEDB:8728</db_xref>
   <db_xref>FlyGRID:FBgn0028734</db_xref>
   <db_xref>KWgx:FBgn0028734</db_xref>
   <db_xref>NCBI_GEO:FBgn0028734</db_xref>
  </External_links>
 </FUNCTION>
 <LITERATURE>
  <Reference>
   <ref>
    <Identifier>FBrf0157326</Identifier>
    <Creator>Driscoll and Gerstbrein</Creator>
    <Date>2003</Date>
    <Source>Nature Rev. Genet. 4(3): 181--194</Source>
    <Title>Dying for a cause: invertebrate genetics takes on human neurodegeneration.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0159907</Identifier>
    <Creator>Jin and Warren</Creator>
    <Date>2003</Date>
    <Source>Trends Biochem. Sci. 28(3): 152--158</Source>
    <Title>New insights into fragile X syndrome from molecules to neurobehaviors.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0158807</Identifier>
    <Creator>Carthew</Creator>
    <Date>2002</Date>
    <Source>Curr. Biol. 12(24): R852--R854</Source>
    <Title>RNA interference: the fragile X syndrome connection.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0149141</Identifier>
    <Creator>Gao</Creator>
    <Date>2002</Date>
    <Source>Neuron 34(6): 859--862</Source>
    <Title>Understanding fragile x syndrome. Insights from retarded flies.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0156127</Identifier>
    <Creator>Oostra</Creator>
    <Date>2002</Date>
    <Source>Trends Mol. Med. 8(3): 102--103</Source>
    <Title>Functions of the fragile X protein.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
 </LITERATURE>
 <SUMMARY>
  <text>
   The D. melanogaster gene Fmr1 is reported here. It has also been known in FlyBase as BcDNA:GM08679, CG6203 and Fragile-X-related. It encodes a product with mRNA binding involved in negative regulation of translation which is a component of the RNA-induced silencing complex. It has been sequenced. It has been mapped cytologically to 85F10--12. It interacts genetically with th, futsch, Abl, pnr and Rac1. There are 35 recorded alleles: 18 in vitro constructs (1 available from the public stock centers), 16 classical mutants (4 available from the public stock centers) and 1 wild-type. Loss-of-function mutations have been isolated which affect the ventral adult lateral neuron, the dorsal cluster neuron, the (with Fmr1EP3517) ventral adult lateral neuron and 2 other listed tissues and are viable, recessive neuroanatomy defective, (with Fmr1&amp;Dgr;83M) neuroanatomy defective, (with Fmr1&amp;Dgr;50M) neuroanatomy defective, (with Fmr1EP3517) neuroanatomy defective, pharate adult partially lethal, recessive locomotor rhythm defective and recessive eclosion rhythm defective. Fmr1 is discussed in 60 references (excluding sequence accessions), dated between 1999 and 2004. These include at least 7 studies of mutant phenotypes, 4 studies of wild-type function and 7 molecular studies. Among findings on Fmr1 mutants, Fmr1 mutants show strong eclosion failure and circadian rhythm defects. Among findings on Fmr1 function, Fmr1 has a role in dendritic development.
  </text>
 </SUMMARY>
</GeneSummary>
<!-- docurl="flybase-ugp.xml,498850-505237" -->


<GeneSummary id="FlyBase:FBgn0000212">
 <Title>FlyBase Gene: brm</Title>
 <Source>FlyBase</Source>
 <Type>Gene Summary</Type>
 <BASIC_INFORMATION>
  <GeneID>FBgn0000212</GeneID>
  <Symbol>brm</Symbol>
  <Full_name>brahma</Full_name>
  <Species id="taxon:7227">Drosophila melanogaster</Species>
  <Synonyms>
   <Name>CG18438</Name>
   <Name>CG5942</Name>
   <Name>CG18438</Name>
   <Name>l(3)72Aa</Name>
   <Name>Brm</Name>
   <Name>BRM</Name>
   <Name>E(E2F)3A</Name>
   <Name>dBRM</Name>
  </Synonyms>
  <Date>20 Aug 04</Date>
 </BASIC_INFORMATION>
 <LOCATION>
  <Chromosome>3L</Chromosome>
  <Genome_map>complement(15918961..15931748)</Genome_map>
  <Map type="cytogenetic">72C1</Map>
  <Scaffold>AE003529</Scaffold>
 </LOCATION>
 <GENE_PRODUCT>
  <Transcripts>
   <Transcript id="FBtr0075523">
    brm-RC
    <Polypeptide id="FBpp0075278">brm-PC (1634 aa)</Polypeptide>
   </Transcript>
   <Transcript id="FBtr0075524">
    brm-RD
    <Polypeptide id="FBpp0075279">brm-PD (1634 aa)</Polypeptide>
   </Transcript>
   <Transcript id="FBtr0075526">
    brm-RB
    <Polypeptide id="FBpp0075281">brm-PB (1638 aa)</Polypeptide>
   </Transcript>
   <Transcript id="FBtr0075525">
    brm-RA
    <Polypeptide id="FBpp0075280">brm-PA (1638 aa)</Polypeptide>
   </Transcript>
  </Transcripts>
 </GENE_PRODUCT>
 <GENE_ONTOLOGY>
  <Molecular_function>
   <goterm id="GO:0003676">nucleic acid binding</goterm>
   <goterm id="GO:0016251">
    general RNA polymerase II transcription factor activity
    <goevidence>
     inferred from sequence similarity with SGD_LOCUS:SNF2; SGD:S0005816
    </goevidence>
   </goterm>
   <goterm id="GO:0003676">
    nucleic acid binding
    <goevidence>
     inferred from electronic annotation
    </goevidence>
   </goterm>
   <goterm id="GO:0003713">
    transcription coactivator activity
    <goevidence>
     non-traceable author statement
    </goevidence>
   </goterm>
   <goterm id="GO:0003678">
    DNA helicase activity
    <goevidence>
     inferred from electronic annotation
    </goevidence>
   </goterm>
   <goterm id="GO:0003713">
    transcription coactivator activity
    <goevidence>
     inferred from sequence similarity with SGD_LOCUS:SNF2; SGD:S0005816
    </goevidence>
   </goterm>
   <goterm id="GO:0003713">transcription coactivator activity</goterm>
   <goterm id="GO:0016251">general RNA polymerase II transcription factor activity</goterm>
   <goterm id="GO:0003678">DNA helicase activity</goterm>
   <goterm id="GO:0008094">DNA-dependent ATPase activity</goterm>
   <goterm id="GO:0008094">
    DNA-dependent ATPase activity
    <goevidence>
     non-traceable author statement
    </goevidence>
   </goterm>
  </Molecular_function>
  <Biological_process>
   <goterm id="GO:0048096">chromatin-mediated maintenance of transcription</goterm>
   <goterm id="GO:0035172">hemocyte proliferation (sensu Arthropoda)</goterm>
   <goterm id="GO:0009993">oogenesis (sensu Insecta)</goterm>
   <goterm id="GO:0006357">regulation of transcription from Pol II promoter</goterm>
   <goterm id="GO:0007474">wing vein specification</goterm>
  </Biological_process>
  <Cellular_component>
   <goterm id="GO:0035060">brahma complex</goterm>
   <goterm id="GO:0005679">nucleosome remodeling complex</goterm>
   <goterm id="GO:0005634">nucleus</goterm>
  </Cellular_component>
 </GENE_ONTOLOGY>
 <FUNCTION>
  <Expressions>
   <Expression type="dev_stage">
    embryo-pupa
    <Phenotype>unfertilized egg</Phenotype>
   </Expression>
  </Expressions>
  <Protein_domains>
   <db_xref>IPR000330 == SNF2 related domain</db_xref>
   <db_xref>IPR001410 == DEAD/DEAH box helicase</db_xref>
   <db_xref>IPR001650 == Helicase C-terminal domain</db_xref>
  </Protein_domains>
  <External_links>
   <db_xref>DEDB:3941</db_xref>
   <db_xref>FlyGRID:FBgn0000212</db_xref>
   <db_xref>IFly:../polycomb/brahma.htm</db_xref>
   <db_xref>KWgx:FBgn0000212</db_xref>
   <db_xref>NCBI_GEO:FBgn0000212</db_xref>
  </External_links>
 </FUNCTION>
 <LITERATURE>
  <Reference>
   <ref>
    <Identifier>FBrf0151521</Identifier>
    <Creator>Klochendler-Yeivin et al.</Creator>
    <Date>2002</Date>
    <Source>Curr. Opin. Genet. Dev. 12(1): 73--79</Source>
    <Title>SWI/SNF chromatin remodeling and cancer.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0155574</Identifier>
    <Creator>Neely and Workman</Creator>
    <Date>2002</Date>
    <Source>Biochim. biophys. Acta 1603(1): 19--29</Source>
    <Title>The complexity of chromatin remodeling and its links to cancer.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0151518</Identifier>
    <Creator>Simon and Tamkun</Creator>
    <Date>2002</Date>
    <Source>Curr. Opin. Genet. Dev. 12(2): 210--218</Source>
    <Title>Programming off and on states in chromatin: mechanisms of polycomb and trithorax group complexes.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
 </LITERATURE>
 <SUMMARY>
  <text>
   The D. melanogaster gene brahma, abbreviated as brm, is reported here. It has also been known in FlyBase as CG18438. It encodes a product with general RNA polymerase II transcription factor activity involved in chromatin-mediated maintenance of transcription which is a component of the nucleus; it is expressed in the unfertilized egg). It has been sequenced and its amino acid sequence contains a SNF2 related domain, a DEAD/DEAH box helicase and a helicase C-terminal domain. It has been mapped by recombination to 3-43.0 and cytologically to 72C1. It interacts genetically with trx, Antp, Snr1, Psc, osa and 34 other listed genes. There are 39 recorded alleles: 7 in vitro constructs (none available from the public stock centers), 31 classical mutants (2 available from the public stock centers) and 1 wild-type. Amorphic mutations have been isolated which affect the abdominal segment 6, the larval hemocyte and the wing and are recessive lethal and recessive somatic clone visible. brm is discussed in 174 references (excluding sequence accessions), dated between 1988 and 2004. These include at least 31 studies of mutant phenotypes, 9 studies of wild-type function and 13 molecular studies. Among findings on brm function, the chromatin remodelling activity of the brm complex may play a general role in facilitating transcription by RNA polymerase II.
  </text>
 </SUMMARY>
</GeneSummary>
<!-- docurl="flybase-ugp.xml,5559717-5564875" -->


<GeneSummary id="FlyBase:FBgn0003447">
 <Title>FlyBase Gene: sn</Title>
 <Source>FlyBase</Source>
 <Type>Gene Summary</Type>
 <BASIC_INFORMATION>
  <GeneID>FBgn0003447</GeneID>
  <Symbol>sn</Symbol>
  <Full_name>singed</Full_name>
  <Species id="taxon:7227">Drosophila melanogaster</Species>
  <Synonyms>
   <Name>CG1536</Name>
   <Name>CG32858</Name>
   <Name>CG15331</Name>
   <Name>CG1536</Name>
   <Name>fs(1)M45</Name>
   <Name>fs(1)K418</Name>
   <Name>fascin</Name>
   <Name>Sn</Name>
   <Name>fs(1)A1057</Name>
   <Name>fs(1)K1421</Name>
   <Name>fs(1)K473</Name>
   <Name>fs(1)K743</Name>
  </Synonyms>
  <Date>20 Aug 04</Date>
 </BASIC_INFORMATION>
 <LOCATION>
  <Chromosome>X</Chromosome>
  <Genome_map>7702970..7725047</Genome_map>
  <Map type="cytogenetic">7D1--2</Map>
  <Scaffold>AE003442</Scaffold>
 </LOCATION>
 <GENE_PRODUCT>
  <Transcripts>
   <Transcript id="FBtr0071102">
    sn-RB
    <Polypeptide id="FBpp0071058">sn-PB (512 aa)</Polypeptide>
   </Transcript>
   <Transcript id="FBtr0071100">
    sn-RC
    <Polypeptide id="FBpp0071056">sn-PC (564 aa)</Polypeptide>
   </Transcript>
   <Transcript id="FBtr0071101">
    sn-RA
    <Polypeptide id="FBpp0071057">sn-PA (512 aa)</Polypeptide>
   </Transcript>
  </Transcripts>
 </GENE_PRODUCT>
 <GENE_ONTOLOGY>
  <Molecular_function>
   <goterm id="GO:0003779">actin binding</goterm>
   <goterm id="GO:0003779">
    actin binding
    <goevidence>
     inferred from sequence similarity
    </goevidence>
   </goterm>
   <goterm id="GO:0005200">
    structural constituent of cytoskeleton
    <goevidence>
     inferred from electronic annotation
    </goevidence>
   </goterm>
   <goterm id="GO:0005200">structural constituent of cytoskeleton</goterm>
  </Molecular_function>
  <Biological_process>
   <goterm id="GO:0051017">actin filament bundle formation</goterm>
   <goterm id="GO:0007015">actin filament organization</goterm>
   <goterm id="GO:0008407">bristle morphogenesis</goterm>
   <goterm id="GO:0007049">cell cycle</goterm>
   <goterm id="GO:0007010">cytoskeleton organization and biogenesis</goterm>
   <goterm id="GO:0007292">female gamete generation</goterm>
   <goterm id="GO:0009993">oogenesis (sensu Insecta)</goterm>
   <goterm id="GO:0007601">visual perception</goterm>
  </Biological_process>
 </GENE_ONTOLOGY>
 <FUNCTION>
  <Expressions>
   <Expression type="dev_stage">
    oogenesis
    <Phenotype>ovary</Phenotype>
   </Expression>
   <Expression type="dev_stage">
    oogenesis, adult
    <Phenotype>ovary</Phenotype>
   </Expression>
  </Expressions>
  <Protein_domains>
   <db_xref>SCOP:50405 == Actin-crosslinking proteins; sn|FBgn0003447|pp-CT3977|FBan0001536</db_xref>
  </Protein_domains>
  <External_links>
   <db_xref>DEDB:785</db_xref>
   <db_xref>FlyGRID:FBgn0003447</db_xref>
   <db_xref>IFly:../newgene/singed.htm</db_xref>
   <db_xref>KWgx:FBgn0003447</db_xref>
   <db_xref>NCBI_GEO:FBgn0003447</db_xref>
  </External_links>
 </FUNCTION>
 <LITERATURE>
  <Reference>
   <ref>
    <Identifier>FBrf0151730</Identifier>
    <Creator>Hudson and Cooley</Creator>
    <Date>2002</Date>
    <Source>A. Rev. Genet. 36: 455--488</Source>
    <Title>Understanding the function of actin-binding proteins through genetic analysis of Drosophila oogenesis.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0132269</Identifier>
    <Creator>Buszczak and Cooley</Creator>
    <Date>2000</Date>
    <Source>Cell Death Diffn 7(11): 1071--1074</Source>
    <Title>Eggs to die for: cell death during Drosophila oogenesis.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0102160</Identifier>
    <Creator>Ayscough</Creator>
    <Date>1998</Date>
    <Source>Curr. Opin. Cell Biol. 10(1): 102--111</Source>
    <Title>In vivo functions of actin-binding proteins.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
 </LITERATURE>
 <SUMMARY>
  <text>
   The D. melanogaster gene singed, abbreviated as sn, is reported here. It has also been known in FlyBase as CG15331. It encodes a product with putative actin binding involved in actin filament bundle formation which is localized to the cytoplasm; it is expressed in the ovary (ovary, border follicle cell, oocyte and ovary) and prepupa and pupa (macrochaetae and socket). It has been sequenced and its amino acid sequence is also available. It has been mapped by recombination to 1-21.0 and cytologically to 7D1--2. It interacts genetically with qua. There are 195 recorded alleles: 191 classical mutants (13 available from the public stock centers) and 4 wild-type. Amorphic mutations have been isolated which affect the macrochaeta, the egg and the egg chamber and are recessive sterile. sn is discussed in 233 references (excluding sequence accessions), dated between 1922 and 2004. These include at least 9 studies of mutant phenotypes, one study of natural polymorphisms and 3 molecular studies. Among findings on sn mutants, mutations in sn induced by P-M hybrid dysgenesis have been analyzed to determine why sn is a hotspot for mutation during P-M hybrid dysgenesis.
  </text>
 </SUMMARY>
</GeneSummary>
<!-- docurl="flybase-ugp.xml,5260945-5268776" -->


<GeneSummary id="FlyBase:FBgn0003317">
 <Title>FlyBase Gene: sax</Title>
 <Source>FlyBase</Source>
 <Type>Gene Summary</Type>
 <BASIC_INFORMATION>
  <GeneID>FBgn0003317</GeneID>
  <Symbol>sax</Symbol>
  <Full_name>saxophone</Full_name>
  <Species id="taxon:7227">Drosophila melanogaster</Species>
  <Synonyms>
   <Name>CG1891</Name>
   <Name>CG1891</Name>
   <Name>Sax</Name>
   <Name>Brk43E</Name>
   <Name>Bkr43E</Name>
   <Name>STK-B</Name>
  </Synonyms>
  <Date>20 Aug 04</Date>
 </BASIC_INFORMATION>
 <LOCATION>
  <Chromosome>2R</Chromosome>
  <Genome_map>2867379..2870971</Genome_map>
  <Map type="cytogenetic">43E18</Map>
  <Scaffold>AE003839</Scaffold>
 </LOCATION>
 <GENE_PRODUCT>
  <Transcripts>
   <Transcript id="FBtr0088833">
    sax-RB
    <Polypeptide id="FBpp0087909">sax-PB (535 aa)</Polypeptide>
   </Transcript>
   <Transcript id="FBtr0088832">
    sax-RA
    <Polypeptide id="FBpp0087908">sax-PA (570 aa)</Polypeptide>
   </Transcript>
  </Transcripts>
 </GENE_PRODUCT>
 <GENE_ONTOLOGY>
  <Molecular_function>
   <goterm id="GO:0004674">
    protein serine/threonine kinase activity
    <goevidence>
     non-traceable author statement
    </goevidence>
   </goterm>
   <goterm id="GO:0004672">
    protein kinase activity ;  ; EC:2.7.1.37
    <goevidence>
     non-traceable author statement
    </goevidence>
   </goterm>
   <goterm id="GO:0005025">
    type I transforming growth factor beta receptor activity
    <goevidence>
     non-traceable author statement
    </goevidence>
   </goterm>
   <goterm id="GO:0004896">
    hematopoietin/interferon-class (D200-domain) cytokine receptor activity
    <goevidence>
     inferred from electronic annotation
    </goevidence>
   </goterm>
   <goterm id="GO:0005025">
    type I transforming growth factor beta receptor activity
    <goevidence>
     inferred from direct assay
    </goevidence>
   </goterm>
   <goterm id="GO:0004674">protein serine/threonine kinase activity</goterm>
   <goterm id="GO:0004672">protein kinase activity ;  ; EC:2.7.1.37</goterm>
   <goterm id="GO:0005025">type I transforming growth factor beta receptor activity</goterm>
   <goterm id="GO:0004896">hematopoietin/interferon-class (D200-domain) cytokine receptor activity</goterm>
  </Molecular_function>
  <Biological_process>
   <goterm id="GO:0030509">BMP signaling pathway</goterm>
   <goterm id="GO:0007448">anterior/posterior pattern formation, imaginal disc</goterm>
   <goterm id="GO:0001745">compound eye morphogenesis (sensu Drosophila)</goterm>
   <goterm id="GO:0019221">cytokine and chemokine mediated signaling pathway</goterm>
   <goterm id="GO:0008358">maternal determination of anterior/posterior axis, embryo</goterm>
   <goterm id="GO:0007498">mesoderm development</goterm>
   <goterm id="GO:0007300">nurse cell to ocyte transport (sensu Insecta)</goterm>
   <goterm id="GO:0009993">oogenesis (sensu Insecta)</goterm>
   <goterm id="GO:0030707">ovarian follicle cell development (sensu Insecta)</goterm>
   <goterm id="GO:0045887">positive regulation of synaptic growth at neuromuscular junction</goterm>
   <goterm id="GO:0006468">protein amino acid phosphorylation</goterm>
   <goterm id="GO:0007179">transforming growth factor beta receptor signaling pathway</goterm>
   <goterm id="GO:0007476">wing morphogenesis</goterm>
  </Biological_process>
  <Cellular_component>
   <goterm id="GO:0005886">plasma membrane</goterm>
  </Cellular_component>
 </GENE_ONTOLOGY>
 <FUNCTION>
  <Expressions>
  </Expressions>
  <Protein_domains>
   <db_xref>IPR000472 == TGF-&amp;bgr; receptor family, extracellular domain/Activin types I and II receptor domain</db_xref>
   <db_xref>IPR000719 == Eukaryotic protein kinase</db_xref>
   <db_xref>IPR002290 == Serine/Threonine protein kinase family active site</db_xref>
   <db_xref>
    IPR003605 == GS motif preceding kinase domain in TGF
    &amp;bgr; receptor
   </db_xref>
   <db_xref>SCOP:56112 == Protein kinase-like (PK-like); sax|FBgn0003317|pp-CT5838|FBan0001891</db_xref>
   <db_xref>SCOP:57302 == Snake toxin-like; sax|FBgn0003317|pp-CT5838|FBan0001891</db_xref>
  </Protein_domains>
  <External_links>
   <db_xref>DEDB:13265</db_xref>
   <db_xref>FlyGRID:FBgn0003317</db_xref>
   <db_xref>IFly:../gene/saxophon.htm</db_xref>
   <db_xref>KWgx:FBgn0003317</db_xref>
   <db_xref>NCBI_GEO:FBgn0003317</db_xref>
  </External_links>
 </FUNCTION>
 <LITERATURE>
  <Reference>
   <ref>
    <Identifier>FBrf0141762</Identifier>
    <Creator>Baker</Creator>
    <Date>2001</Date>
    <Source>Semin. Cell Dev. Biol. 12(6): 499--507</Source>
    <Title>Cell proliferation, survival, and death in the Drosophila eye.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0132269</Identifier>
    <Creator>Buszczak and Cooley</Creator>
    <Date>2000</Date>
    <Source>Cell Death Diffn 7(11): 1071--1074</Source>
    <Title>Eggs to die for: cell death during Drosophila oogenesis.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0128450</Identifier>
    <Creator>Dobens and Raftery</Creator>
    <Date>2000</Date>
    <Source>Dev. Dynamics 218(1): 80--93</Source>
    <Title>Integration of epithelial patterning and morphogenesis in Drosophila ovarian follicle cells.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0130228</Identifier>
    <Creator>Nakayama et al.</Creator>
    <Date>2000</Date>
    <Source>Cell. Molec. Life Sci. 57(6): 943--956</Source>
    <Title>Regulation of BMP/Dpp signaling during embryonic development.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0131044</Identifier>
    <Creator>Zimmerman and Padgett</Creator>
    <Date>2000</Date>
    <Source>Gene 249(1-2): 17--30</Source>
    <Title>Transforming growth factor beta signaling mediators and modulators.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
 </LITERATURE>
 <SUMMARY>
  <text>
   The D. melanogaster gene saxophone, abbreviated as sax, is reported here. It encodes a product with type I transforming growth factor beta receptor activity involved in maternal determination of anterior/posterior axis, embryo which is a component of the plasma membrane. It has been sequenced and its amino acid sequence contains a TGF-&amp;bgr; receptor family, extracellular domain/Activin types I and II receptor domain, an eukaryotic protein kinase, a serine/Threonine protein kinase family active site and a GS motif preceding kinase domain in TGF
   &amp;bgr; receptor. It has been mapped by recombination to 2-57 and cytologically to 43E18. It interacts genetically with tkv, Mad, dpp, scw, Med and 10 other listed genes. There are 34 recorded alleles: 19 in vitro constructs (none available from the public stock centers), 14 classical mutants (2 available from the public stock centers) and 1 wild-type. Amorphic mutations have been isolated which affect the germ-line clone ovary, the germ-line clone egg, the germ-line clone dorsal appendage and 11 other listed tissues and are recessive lethal, recessive somatic clone visible, (with Df(2R)cn7969) neuroanatomy defective, (with Df(2R)sax-H9) neuroanatomy defective and (with sax5) neurophysiology defective. sax is discussed in 153 references (excluding sequence accessions), dated between 1989 and 2004. These include at least 18 studies of mutant phenotypes, 4 studies of wild-type function and 8 molecular studies. Among findings on sax mutants, mutations in sax result in a maternal effect phenotype with defects during the early stages of gastrulation. Among findings on sax function, sax protein participates in the determination of the anterior posterior margin fate in the developing wing pouch, even at the extreme anterior edge.
  </text>
 </SUMMARY>
</GeneSummary>
<!-- docurl="flybase-ugp.xml,8388528-8395465" -->


<GeneSummary id="FlyBase:FBgn0005386">
 <Title>FlyBase Gene: ash1</Title>
 <Source>FlyBase</Source>
 <Type>Gene Summary</Type>
 <BASIC_INFORMATION>
  <GeneID>FBgn0005386</GeneID>
  <Symbol>ash1</Symbol>
  <Full_name>absent, small, or homeotic discs 1</Full_name>
  <Species id="taxon:7227">Drosophila melanogaster</Species>
  <Synonyms>
   <Name>CG8887</Name>
   <Name>CG8887</Name>
   <Name>dash: discs absent, small, or homeotic</Name>
   <Name>ash-1</Name>
   <Name>ASH1</Name>
   <Name>ash</Name>
   <Name>Ash1</Name>
   <Name>l(3)SG29a</Name>
   <Name>discs absent, small, or homeotic</Name>
  </Synonyms>
  <Date>20 Aug 04</Date>
 </BASIC_INFORMATION>
 <LOCATION>
  <Chromosome>3L</Chromosome>
  <Genome_map>complement(19541259..19548705)</Genome_map>
  <Map type="cytogenetic">76B8--9</Map>
  <Scaffold>AE003516</Scaffold>
 </LOCATION>
 <GENE_PRODUCT>
  <Transcripts>
   <Transcript id="FBtr0074970">
    ash1-RA
    <Polypeptide id="FBpp0074738">ash1-PA (2217 aa)</Polypeptide>
   </Transcript>
  </Transcripts>
 </GENE_PRODUCT>
 <GENE_ONTOLOGY>
  <Molecular_function>
   <goterm id="GO:0042054">
    histone methyltransferase activity
    <goevidence>
     inferred from direct assay
    </goevidence>
   </goterm>
   <goterm id="GO:0042799">
    histone lysine N-methyltransferase activity (H4-K20 specific)
    <goevidence>
     non-traceable author statement
    </goevidence>
   </goterm>
   <goterm id="GO:0042054">
    histone methyltransferase activity
    <goevidence>
     inferred from sequence similarity with SGD_LOCUS:SET1; SGD:S0001161
    </goevidence>
   </goterm>
   <goterm id="GO:0042800">
    histone lysine N-methyltransferase activity (H3-K4 specific)
    <goevidence>
     non-traceable author statement
    </goevidence>
   </goterm>
   <goterm id="GO:0046974">
    histone lysine N-methyltransferase activity (H3-K9 specific)
    <goevidence>
     non-traceable author statement
    </goevidence>
   </goterm>
   <goterm id="GO:0030528">
    transcription regulator activity
    <goevidence>
     inferred from electronic annotation
    </goevidence>
   </goterm>
   <goterm id="GO:0042800">
    histone lysine N-methyltransferase activity (H3-K4 specific)
    <goevidence>
     traceable author statement
    </goevidence>
   </goterm>
   <goterm id="GO:0042799">
    histone lysine N-methyltransferase activity (H4-K20 specific)
    <goevidence>
     traceable author statement
    </goevidence>
   </goterm>
   <goterm id="GO:0042800">
    histone lysine N-methyltransferase activity (H3-K4 specific)
    <goevidence>
     inferred from direct assay
    </goevidence>
   </goterm>
   <goterm id="GO:0042800">
    histone lysine N-methyltransferase activity (H3-K4 specific)
    <goevidence>
     inferred from mutant phenotype
    </goevidence>
   </goterm>
   <goterm id="GO:0046974">
    histone lysine N-methyltransferase activity (H3-K9 specific)
    <goevidence>
     traceable author statement
    </goevidence>
   </goterm>
   <goterm id="GO:0030528">transcription regulator activity</goterm>
   <goterm id="GO:0042800">histone lysine N-methyltransferase activity (H3-K4 specific)</goterm>
   <goterm id="GO:0042054">histone methyltransferase activity</goterm>
   <goterm id="GO:0042799">histone lysine N-methyltransferase activity (H4-K20 specific)</goterm>
   <goterm id="GO:0046974">histone lysine N-methyltransferase activity (H3-K9 specific)</goterm>
  </Molecular_function>
  <Biological_process>
   <goterm id="GO:0048096">chromatin-mediated maintenance of transcription</goterm>
   <goterm id="GO:0001700">embryonic development (sensu Insecta)</goterm>
   <goterm id="GO:0016571">histone methylation</goterm>
   <goterm id="GO:0009993">oogenesis (sensu Insecta)</goterm>
   <goterm id="GO:0018991">oviposition</goterm>
   <goterm id="GO:0006357">regulation of transcription from Pol II promoter</goterm>
  </Biological_process>
  <Cellular_component>
   <goterm id="GO:0005634">nucleus</goterm>
  </Cellular_component>
 </GENE_ONTOLOGY>
 <FUNCTION>
  <Expressions>
   <Expression type="dev_stage">
    embryo
    <Phenotype>imaginal disc</Phenotype>
   </Expression>
   <Expression type="dev_stage">
    oogenesis, adult
    <Phenotype>nurse cell</Phenotype>
   </Expression>
  </Expressions>
  <Protein_domains>
   <db_xref>IPR001025 == BAH (bromo-adjacent homology) domain</db_xref>
   <db_xref>IPR001965 == PHD-finger</db_xref>
  </Protein_domains>
  <External_links>
   <db_xref>DEDB:3536</db_xref>
   <db_xref>FlyGRID:FBgn0005386</db_xref>
   <db_xref>KWgx:FBgn0005386</db_xref>
   <db_xref>NCBI_GEO:FBgn0005386</db_xref>
  </External_links>
 </FUNCTION>
 <LITERATURE>
  <Reference>
   <ref>
    <Identifier>FBrf0159912</Identifier>
    <Creator>Marmorstein</Creator>
    <Date>2003</Date>
    <Source>Trends Biochem. Sci. 28(2): 59--62</Source>
    <Title>Structure of SET domain proteins: a new twist on histone methylation.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0102337</Identifier>
    <Creator>Jan and Jan</Creator>
    <Date>1998</Date>
    <Source>Nature 392(6678): 775--778</Source>
    <Title>Asymmetric cell division.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0100732</Identifier>
    <Creator>Jenuwein et al.</Creator>
    <Date>1998</Date>
    <Source>Cell. Molec. Life Sci. 54(1): 80--83</Source>
    <Title>SET domain proteins modulate chromatin domains in eu- and heterochromatin.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
 </LITERATURE>
 <SUMMARY>
  <text>
   The D. melanogaster gene absent, small, or homeotic discs 1, abbreviated as ash1, is reported here. It encodes a product with histone lysine N-methyltransferase activity (H3-K4 specific) involved in oogenesis (sensu Insecta) which is a component of the nucleus; it is expressed in the larva (imaginal disc) and ovary (nurse cell). It has been sequenced and its amino acid sequence contains a BAH (bromo-adjacent homology) domain and a PHD-finger. It has been mapped by recombination to 3-46.6 and cytologically to 76B8--9. It interacts genetically with E(z), brm, trx, fs(1)h, Scr and 27 other listed genes. There are 39 recorded alleles: 5 in vitro constructs (none available from the public stock centers), 33 classical mutants (1 available from the public stock centers) and 1 wild-type. Hypomorphic mutations have been isolated which affect the wing and are pharate adult recessive lethal and homeotic visible. ash1 is discussed in 81 references (excluding sequence accessions), dated between 1971 and 2004. These include at least 18 studies of mutant phenotypes, 2 studies of wild-type function and 5 molecular studies. Among findings on ash1 mutants, ash1 mutant larvae may have small or absent imaginal discs or express homeotic transformations. Among findings on ash1 function, ash1 is one of the trithorax group of genes.
  </text>
 </SUMMARY>
</GeneSummary>
<!-- docurl="flybase-ugp.xml,6115928-6121582" -->


<GeneSummary id="FlyBase:FBgn0003742">
 <Title>FlyBase Gene: tra2</Title>
 <Source>FlyBase</Source>
 <Type>Gene Summary</Type>
 <BASIC_INFORMATION>
  <GeneID>FBgn0003742</GeneID>
  <Symbol>tra2</Symbol>
  <Full_name>transformer 2</Full_name>
  <Species id="taxon:7227">Drosophila melanogaster</Species>
  <Synonyms>
   <Name>CG10128</Name>
   <Name>tra-2</Name>
   <Name>Tra2</Name>
   <Name>TRA-2</Name>
   <Name>transformer-2</Name>
  </Synonyms>
  <Date>20 Aug 04</Date>
 </BASIC_INFORMATION>
 <LOCATION>
  <Chromosome>2R</Chromosome>
  <Genome_map>complement(9665730..9668078)</Genome_map>
  <Map type="cytogenetic">51B6</Map>
  <Scaffold>AE003814</Scaffold>
 </LOCATION>
 <GENE_PRODUCT>
  <Transcripts>
   <Transcript id="FBtr0089621">
    tra2-RG
    <Polypeptide id="FBpp0088946">tra2-PG (264 aa)</Polypeptide>
   </Transcript>
   <Transcript id="FBtr0089620">
    tra2-RF
    <Polypeptide id="FBpp0088947">tra2-PF (264 aa)</Polypeptide>
   </Transcript>
   <Transcript id="FBtr0089619">
    tra2-RC
    <Polypeptide id="FBpp0088564">tra2-PC (226 aa)</Polypeptide>
   </Transcript>
   <Transcript id="FBtr0089618">
    tra2-RB
    <Polypeptide id="FBpp0088563">tra2-PB (136 aa)</Polypeptide>
   </Transcript>
   <Transcript id="FBtr0089617">
    tra2-RA
    <Polypeptide id="FBpp0088562">tra2-PA (264 aa)</Polypeptide>
   </Transcript>
   <Transcript id="FBtr0089616">
    tra2-RE
    <Polypeptide id="FBpp0088561">tra2-PE (179 aa)</Polypeptide>
   </Transcript>
   <Transcript id="FBtr0089615">
    tra2-RD
    <Polypeptide id="FBpp0088560">tra2-PD (226 aa)</Polypeptide>
   </Transcript>
  </Transcripts>
 </GENE_PRODUCT>
 <GENE_ONTOLOGY>
  <Molecular_function>
   <goterm id="GO:0003723">RNA binding</goterm>
   <goterm id="GO:0003723">
    RNA binding
    <goevidence>
     inferred from sequence similarity
    </goevidence>
   </goterm>
   <goterm id="GO:0003723">
    RNA binding
    <goevidence>
     non-traceable author statement
    </goevidence>
   </goterm>
   <goterm id="GO:0008248">
    pre-mRNA splicing factor activity
    <goevidence>
     inferred from electronic annotation
    </goevidence>
   </goterm>
   <goterm id="GO:0008248">pre-mRNA splicing factor activity</goterm>
  </Molecular_function>
  <Biological_process>
   <goterm id="GO:0008380">RNA splicing</goterm>
   <goterm id="GO:0030237">female sex determination</goterm>
   <goterm id="GO:0019101">female somatic sex determination</goterm>
   <goterm id="GO:0006397">mRNA processing</goterm>
   <goterm id="GO:0019102">male somatic sex determination</goterm>
   <goterm id="GO:0048024">regulation of nuclear mRNA splicing, via spliceosome</goterm>
   <goterm id="GO:0000003">reproduction</goterm>
   <goterm id="GO:0007530">sex determination</goterm>
   <goterm id="GO:0007283">spermatogenesis</goterm>
   <goterm id="GO:0000245">spliceosome assembly</goterm>
  </Biological_process>
 </GENE_ONTOLOGY>
 <FUNCTION>
  <Expressions>
   <Expression type="dev_stage">
    adult
    <Phenotype>ovary</Phenotype>
    <Phenotype>testis</Phenotype>
    <Phenotype>germline</Phenotype>
   </Expression>
  </Expressions>
  <Protein_domains>
   <db_xref>IPR000504 == RNA-binding region RNP-1  (RNA recognition motif)</db_xref>
   <db_xref>SCOP:54928 == RNA-binding domain, RBD; tra2|FBgn0003742|pp-CT28507|FBan0010128</db_xref>
  </Protein_domains>
  <External_links>
   <db_xref>DEDB:12319</db_xref>
   <db_xref>FlyGRID:FBgn0003742</db_xref>
   <db_xref>IFly:../dbzhnsky/transf21.htm</db_xref>
   <db_xref>KWgx:FBgn0003742</db_xref>
   <db_xref>NCBI_GEO:FBgn0003742</db_xref>
  </External_links>
 </FUNCTION>
 <LITERATURE>
  <Reference>
   <ref>
    <Identifier>FBrf0159373</Identifier>
    <Creator>Emmons and Lipton</Creator>
    <Date>2003</Date>
    <Source>J. Neurobiol. 54(1): 93--110</Source>
    <Title>Genetic basis of male sexual behavior.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0150778</Identifier>
    <Creator>Maniatis</Creator>
    <Date>2002</Date>
    <Source>Nature 418(6894): 236--243</Source>
    <Title>[title not yet available]</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0135681</Identifier>
    <Creator>Baker et al.</Creator>
    <Date>2001</Date>
    <Source>Cell 105(1): 13--24</Source>
    <Title>Are complex behaviors specified by dedicated regulatory genes? Reasoning from Drosophila.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
 </LITERATURE>
 <SUMMARY>
  <text>
   The D. melanogaster gene transformer 2, abbreviated as tra2, is reported here. It encodes a product with RNA binding involved in mRNA processing which is expressed in the adult (germline and testis). It has been sequenced and its amino acid sequence contains a RNA-binding region RNP-1  (RNA recognition motif). It has been mapped by recombination to 2-70 and cytologically to 51B6. It interacts genetically with dsx, B52 and Doa. There are 63 recorded alleles: 45 in vitro constructs (none available from the public stock centers), 17 classical mutants (2 available from the public stock centers) and 1 wild-type. Amorphic mutations have been isolated which affect the germ cell, the sex comb, the female reproductive system and 4 other listed tissues and are recessive sex-determination defective, recessive female sterile, recessive male sterile and (with Df(2R)trix) sex-determination defective. tra2 is discussed in 202 references (excluding sequence accessions), dated between 1975 and 2004. These include at least 27 studies of mutant phenotypes, 2 studies of wild-type function and 11 molecular studies.
  </text>
 </SUMMARY>
</GeneSummary>
<!-- docurl="flybase-ugp.xml,4633084-4640540" -->


<GeneSummary id="FlyBase:FBgn0003015">
 <Title>FlyBase Gene: osk</Title>
 <Source>FlyBase</Source>
 <Type>Gene Summary</Type>
 <BASIC_INFORMATION>
  <GeneID>FBgn0003015</GeneID>
  <Symbol>osk</Symbol>
  <Full_name>oskar</Full_name>
  <Species id="taxon:7227">Drosophila melanogaster</Species>
  <Synonyms>
   <Name>CG10901</Name>
   <Name>oskar</Name>
  </Synonyms>
  <Date>20 Aug 04</Date>
 </BASIC_INFORMATION>
 <LOCATION>
  <Chromosome>3R</Chromosome>
  <Genome_map>4760868..4764138</Genome_map>
  <Map type="cytogenetic">85B7</Map>
  <Scaffold>AE003681</Scaffold>
 </LOCATION>
 <GENE_PRODUCT>
  <Transcripts>
   <Transcript id="FBtr0081956">
    osk-RC
    <Polypeptide id="">osk-PC (468 aa)</Polypeptide>
   </Transcript>
   <Transcript id="FBtr0081955">
    osk-RB
    <Polypeptide id="FBpp0081436">osk-PB (606 aa)</Polypeptide>
   </Transcript>
   <Transcript id="FBtr0081954">
    osk-RA
    <Polypeptide id="FBpp0081435">osk-PA (606 aa)</Polypeptide>
   </Transcript>
  </Transcripts>
 </GENE_PRODUCT>
 <GENE_ONTOLOGY>
  <Biological_process>
   <goterm id="GO:0008595">determination of anterior/posterior axis, embryo</goterm>
   <goterm id="GO:0007616">long-term memory</goterm>
   <goterm id="GO:0048122">maintenance of pole plasm mRNA localization (sensu Insecta)</goterm>
   <goterm id="GO:0007314">oocyte anterior/posterior axis determination</goterm>
   <goterm id="GO:0030719">polar granule organization and biogenesis</goterm>
   <goterm id="GO:0007277">pole cell development</goterm>
   <goterm id="GO:0007278">pole cell fate determination</goterm>
   <goterm id="GO:0007279">pole cell formation</goterm>
   <goterm id="GO:0048113">pole plasm assembly (sensu Insecta)</goterm>
   <goterm id="GO:0007315">pole plasm assembly</goterm>
   <goterm id="GO:0019094">pole plasm mRNA localization</goterm>
   <goterm id="GO:0048115">pole plasm protein localization (sensu Insecta)</goterm>
   <goterm id="GO:0007318">pole plasm protein localization</goterm>
   <goterm id="GO:0045946">positive regulation of translation</goterm>
   <goterm id="GO:0046011">regulation of oskar mRNA translation</goterm>
  </Biological_process>
  <Cellular_component>
   <goterm id="GO:0018994">polar granule</goterm>
   <goterm id="GO:0045495">pole plasm</goterm>
  </Cellular_component>
 </GENE_ONTOLOGY>
 <FUNCTION>
  <Expressions>
   <Expression type="dev_stage">
    oogenesis
    <Phenotype>oocyte</Phenotype>
   </Expression>
   <Expression type="dev_stage">
    oogenesis, adult
    <Phenotype>oocyte</Phenotype>
    <Phenotype>nurse cell</Phenotype>
    <Phenotype>germarium region 2b</Phenotype>
   </Expression>
  </Expressions>
  <Protein_domains>
   <db_xref>SCOP:52266 == Esterase/acetylhydrolase; osk|FBgn0003015|pp-CT30527|FBan0010901</db_xref>
   <db_xref>SCOP:52266 == Esterase/acetylhydrolase; osk|FBgn0003015|pp-CT41904|FBan0010901</db_xref>
  </Protein_domains>
  <External_links>
   <db_xref>BDGPisx:osk</db_xref>
   <db_xref>DEDB:8560</db_xref>
   <db_xref>FlyGRID:FBgn0003015</db_xref>
   <db_xref>IFly:../torstoll/oskar1.htm</db_xref>
   <db_xref>NCBI_GEO:FBgn0003015</db_xref>
  </External_links>
 </FUNCTION>
 <LITERATURE>
  <Reference>
   <ref>
    <Identifier>FBrf0157336</Identifier>
    <Creator>Leatherman and Jongens</Creator>
    <Date>2003</Date>
    <Source>BioEssays 25(4): 326--335</Source>
    <Title>Transcriptional silencing and translational control: key features of early germline development.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0151858</Identifier>
    <Creator>Benton and St. Johnston</Creator>
    <Date>2002</Date>
    <Source>Curr. Biol. 12(14): R479--R481</Source>
    <Title>Cell polarity: posterior Par-1 prevents proteolysis.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0159816</Identifier>
    <Creator>Bullock and Ish-Horowicz</Creator>
    <Date>2002</Date>
    <Source>Nature Cell Biol. 4(5): E117--E118</Source>
    <Title>Cell polarity: Oskar seeks PARtner for a stable relationship.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0152348</Identifier>
    <Creator>Dean et al.</Creator>
    <Date>2002</Date>
    <Source>Trends Genet. 18(11): 572--577</Source>
    <Title>Translational repressors in Drosophila.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0156076</Identifier>
    <Creator>Kaltschmidt and Martinez Arias</Creator>
    <Date>2002</Date>
    <Source>Trends Cell Biol. 12(7): 316--320</Source>
    <Title>A new dawn for an old connection: development meets the cell.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0144782</Identifier>
    <Creator>Palacios</Creator>
    <Date>2002</Date>
    <Source>Curr. Biol. 12(2): R50--R52</Source>
    <Title>RNA processing: splicing and the cytoplasmic localisation of mRNA.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0155512</Identifier>
    <Creator>Pellettieri and Seydoux</Creator>
    <Date>2002</Date>
    <Source>Science 298(5600): 1946--1950</Source>
    <Title>Anterior-posterior polarity in C. elegans and Drosophila--PARallels and differences.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0150772</Identifier>
    <Creator>Schwarz and Zamore</Creator>
    <Date>2002</Date>
    <Source>Genes Dev. 16(9): 1025--1031</Source>
    <Title>Why do miRNAs live in the miRNP?</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0156097</Identifier>
    <Creator>Tekotte and Davis</Creator>
    <Date>2002</Date>
    <Source>Trends Genet. 18(12): 636--642</Source>
    <Title>Intracellular mRNA localization: motors move messages.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
 </LITERATURE>
 <SUMMARY>
  <text>
   The D. melanogaster gene oskar, abbreviated as osk, is reported here. It encodes a product involved in pole plasm protein localization which is a component of the polar granule; it is expressed in the ovary (oocyte, egg chamber, germarium region 2b, nurse cell and 2 other listed tissues) and pole granule). It has been sequenced and its amino acid sequence is also available. It has been mapped by recombination to 3-48.4 and cytologically to 85B7. It interacts genetically with nos, aub, vas, Su(osk)2 to 3-O26, Su(osk)B11 and 26 other listed genes. There are 91 recorded alleles: 61 in vitro constructs (none available from the public stock centers), 29 classical mutants (1 available from the public stock centers) and 1 wild-type. Amorphic mutations have been isolated which affect the germ cell and the pole cell and are maternal effect recessive lethal. osk is discussed in 513 references (excluding sequence accessions), dated between 1986 and 2004. These include at least 37 studies of mutant phenotypes, 4 studies of wild-type function and 15 molecular studies. Among findings on osk mutants, studies of fluorescently labelled osk RNA injected into wild type or mutant embryos reveal that microtubule-dependent cytoplasmic flows could contribute to the long range transport of osk RNA, whereas microtubule independent processes could mediate short-range transport. Among findings on osk function, osk has a role in long-term memory.
  </text>
 </SUMMARY>
</GeneSummary>
<!-- docurl="flybase-ugp.xml,5946038-5953901" -->


<GeneSummary id="FlyBase:FBgn0003659">
 <Title>FlyBase Gene: Sxl</Title>
 <Source>FlyBase</Source>
 <Type>Gene Summary</Type>
 <BASIC_INFORMATION>
  <GeneID>FBgn0003659</GeneID>
  <Symbol>Sxl</Symbol>
  <Full_name>Sex lethal</Full_name>
  <Species id="taxon:7227">Drosophila melanogaster</Species>
  <Synonyms>
   <Name>CG18350</Name>
   <Name>fs(1)M106</Name>
   <Name>Sxl-1 Sxl-2</Name>
   <Name>Sx1</Name>
   <Name>Sex-lethal</Name>
   <Name>sxl</Name>
   <Name>DmSxl</Name>
   <Name>sex-lethal</Name>
   <Name>Fl: Female lethal</Name>
   <Name>Mex156</Name>
   <Name>Su(da)</Name>
   <Name>fs(1)K1274</Name>
   <Name>l(1)6Fa</Name>
   <Name>Female lethal</Name>
  </Synonyms>
  <Date>20 Aug 04</Date>
 </BASIC_INFORMATION>
 <LOCATION>
  <Map type="cytogenetic">6F3--5</Map>
 </LOCATION>
 <GENE_ONTOLOGY>
  <Molecular_function>
   <goterm id="GO:0003723">RNA binding</goterm>
   <goterm id="GO:0008187">poly-pyrimidine tract binding</goterm>
   <goterm id="GO:0003723">
    RNA binding
    <goevidence>
     inferred from sequence similarity
    </goevidence>
   </goterm>
   <goterm id="GO:0003723">
    RNA binding
    <goevidence>
     traceable author statement
    </goevidence>
   </goterm>
   <goterm id="GO:0008248">
    pre-mRNA splicing factor activity
    <goevidence>
     non-traceable author statement
    </goevidence>
   </goterm>
   <goterm id="GO:0000900">
    translation repressor activity, nucleic acid binding
    <goevidence>
     traceable author statement
    </goevidence>
   </goterm>
   <goterm id="GO:0008187">
    poly-pyrimidine tract binding
    <goevidence>
     inferred from direct assay
    </goevidence>
   </goterm>
   <goterm id="GO:0008248">pre-mRNA splicing factor activity</goterm>
   <goterm id="GO:0000900">translation repressor activity, nucleic acid binding</goterm>
   <goterm id="GO:0048027">mRNA 5'-UTR binding</goterm>
   <goterm id="GO:0048027">
    mRNA 5'-UTR binding
    <goevidence>
     traceable author statement
    </goevidence>
   </goterm>
  </Molecular_function>
  <Biological_process>
   <goterm id="GO:0000380">alternative nuclear mRNA splicing, via spliceosome</goterm>
   <goterm id="GO:0007549">dosage compensation</goterm>
   <goterm id="GO:0019099">female germ-line sex determination</goterm>
   <goterm id="GO:0030237">female sex determination</goterm>
   <goterm id="GO:0046660">female sex differentiation</goterm>
   <goterm id="GO:0019101">female somatic sex determination</goterm>
   <goterm id="GO:0007281">germ cell development</goterm>
   <goterm id="GO:0007131">meiotic recombination</goterm>
   <goterm id="GO:0035056">negative regulation of nuclear mRNA splicing via U2-type spliceosome</goterm>
   <goterm id="GO:0048025">negative regulation of nuclear mRNA splicing, via spliceosome</goterm>
   <goterm id="GO:0016478">negative regulation of translation</goterm>
   <goterm id="GO:0000398">nuclear mRNA splicing, via spliceosome</goterm>
   <goterm id="GO:0009993">oogenesis (sensu Insecta)</goterm>
   <goterm id="GO:0048024">regulation of nuclear mRNA splicing, via spliceosome</goterm>
   <goterm id="GO:0007530">sex determination</goterm>
   <goterm id="GO:0007544">sex determination, female germ-line determination</goterm>
   <goterm id="GO:0007541">sex determination, primary response to X:A ratio</goterm>
   <goterm id="GO:0007548">sex differentiation</goterm>
   <goterm id="GO:0018993">somatic sex determination</goterm>
  </Biological_process>
  <Cellular_component>
   <goterm id="GO:0005681">spliceosome complex</goterm>
  </Cellular_component>
 </GENE_ONTOLOGY>
 <FUNCTION>
  <Expressions>
  </Expressions>
  <Protein_domains>
   <db_xref>IPR000504 == RNA-binding region RNP-1  (RNA recognition motif)</db_xref>
   <db_xref>IPR002343 == Paraneoplastic encephalomyelitis antigen</db_xref>
   <db_xref>SCOP:54928 == RNA-binding domain, RBD; Sxl|FBgn0003659|pp-CT40521|FBan0018350</db_xref>
   <db_xref>SCOP:54928 == RNA-binding domain, RBD; Sxl|FBgn0003659|pp-CT43415|FBan0018350</db_xref>
  </Protein_domains>
  <External_links>
   <db_xref>FlyGRID:FBgn0003659</db_xref>
   <db_xref>IFly:../gene/sexlthl1.htm</db_xref>
   <db_xref>KWgx:FBgn0003659</db_xref>
   <db_xref>NCBI_GEO:FBgn0003659</db_xref>
  </External_links>
 </FUNCTION>
 <LITERATURE>
  <Reference>
   <ref>
    <Identifier>FBrf0157329</Identifier>
    <Creator>Charlat et al.</Creator>
    <Date>2003</Date>
    <Source>Trends Genet. 19(4): 217--223</Source>
    <Title>Evolutionary consequences of Wolbachia infections.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0157332</Identifier>
    <Creator>Stothard and Pilgrim</Creator>
    <Date>2003</Date>
    <Source>BioEssays 25(3): 221--231</Source>
    <Title>[title not yet available]</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0152334</Identifier>
    <Creator>Burtis</Creator>
    <Date>2002</Date>
    <Source>Science 297(5584): 1135--1136</Source>
    <Title>Doublesex in the middle.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0156093</Identifier>
    <Creator>Christiansen et al.</Creator>
    <Date>2002</Date>
    <Source>Trends Genet. 18(10): 510--516</Source>
    <Title>Sex comes in from the cold: the integration of sex and pattern.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0152348</Identifier>
    <Creator>Dean et al.</Creator>
    <Date>2002</Date>
    <Source>Trends Genet. 18(11): 572--577</Source>
    <Title>Translational repressors in Drosophila.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0148923</Identifier>
    <Creator>Graveley</Creator>
    <Date>2002</Date>
    <Source>Cell 109(4): 409--412</Source>
    <Title>Sex, AGility, and the regulation of alternative splicing.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0150778</Identifier>
    <Creator>Maniatis</Creator>
    <Date>2002</Date>
    <Source>Nature 418(6894): 236--243</Source>
    <Title>[title not yet available]</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
 </LITERATURE>
 <SUMMARY>
  <text>
   The D. melanogaster gene Sex lethal, abbreviated as Sxl, is reported here. It has also been known in FlyBase as CG18350. It encodes a product with pre-mRNA splicing factor activity involved in regulation of nuclear mRNA splicing, via spliceosome which is putatively a component of the spliceosome complex. It has been sequenced and its amino acid sequence contains a RNA-binding region RNP-1  (RNA recognition motif) and a paraneoplastic encephalomyelitis antigen. It has been mapped by recombination to 1-19.2 and cytologically to 6F3--5. It interacts genetically with snf, vir, mle, otu, sc and 21 other listed genes. There are 155 recorded alleles: 81 in vitro constructs (none available from the public stock centers), 72 classical mutants (7 available from the public stock centers) and 2 wild-type. Loss-of-function mutations have been isolated which affect the gonad, the ovary and the egg and are female recessive lethal, reduced female viable, female (with Sxlfhv1) lethal and recessive female sterile. Sxl is discussed in 519 references (excluding sequence accessions), dated between 1960 and 2004. These include at least 99 studies of mutant phenotypes, 6 studies of wild-type function, 2 studies of natural polymorphisms and 16 molecular studies. Among findings on Sxl mutants, tumorous cells produced by Sxl mutants are capable of female-specific transcription and RNA processing indicating the ovarian cells retain some female identity. Among findings on Sxl function, recombination and disjunction in female germ cells depend on the germline activity of Sxl.
  </text>
 </SUMMARY>
</GeneSummary>
<!-- docurl="flybase-ugp.xml,5571838-5577572" -->


<GeneSummary id="FlyBase:FBgn0003449">
 <Title>FlyBase Gene: snf</Title>
 <Source>FlyBase</Source>
 <Type>Gene Summary</Type>
 <BASIC_INFORMATION>
  <GeneID>FBgn0003449</GeneID>
  <Symbol>snf</Symbol>
  <Full_name>sans fille</Full_name>
  <Species id="taxon:7227">Drosophila melanogaster</Species>
  <Synonyms>
   <Name>CG4528</Name>
   <Name>CG4528</Name>
   <Name>fs(1)1621</Name>
   <Name>liz</Name>
   <Name>fs(1)A1621</Name>
   <Name>snRNP B''</Name>
   <Name>fs(1)A16121</Name>
   <Name>snf1621</Name>
   <Name>U2 snRNP B'' protein</Name>
   <Name>SNF/D25</Name>
   <Name>splicing necessary factor</Name>
   <Name>SNF</Name>
   <Name>Snf</Name>
   <Name>D25</Name>
   <Name>simply not fertile</Name>
   <Name>snf</Name>
  </Synonyms>
  <Date>20 Aug 04</Date>
 </BASIC_INFORMATION>
 <LOCATION>
  <Chromosome>X</Chromosome>
  <Genome_map>5049861..5051114</Genome_map>
  <Map type="cytogenetic">4F4</Map>
  <Scaffold>AE003433</Scaffold>
 </LOCATION>
 <GENE_PRODUCT>
  <Transcripts>
   <Transcript id="FBtr0070748">
    snf-RA
    <Polypeptide id="FBpp0070716">snf-PA (216 aa)</Polypeptide>
   </Transcript>
  </Transcripts>
 </GENE_PRODUCT>
 <GENE_ONTOLOGY>
  <Molecular_function>
   <goterm id="GO:0003723">RNA binding</goterm>
   <goterm id="GO:0003723">
    RNA binding
    <goevidence>
     inferred from sequence similarity
    </goevidence>
   </goterm>
   <goterm id="GO:0003729">mRNA binding</goterm>
   <goterm id="GO:0003729">
    mRNA binding
    <goevidence>
     non-traceable author statement
    </goevidence>
   </goterm>
   <goterm id="GO:0030619">
    U1 snRNA binding
    <goevidence>
     non-traceable author statement
    </goevidence>
   </goterm>
   <goterm id="GO:0008248">
    pre-mRNA splicing factor activity
    <goevidence>
     inferred from sequence similarity with HUGO:SNRPA; OMIM:182285
    </goevidence>
   </goterm>
   <goterm id="GO:0008248">
    pre-mRNA splicing factor activity
    <goevidence>
     traceable author statement
    </goevidence>
   </goterm>
   <goterm id="GO:0008248">pre-mRNA splicing factor activity</goterm>
   <goterm id="GO:0030619">U1 snRNA binding</goterm>
  </Molecular_function>
  <Biological_process>
   <goterm id="GO:0008380">RNA splicing</goterm>
   <goterm id="GO:0019099">female germ-line sex determination</goterm>
   <goterm id="GO:0000398">nuclear mRNA splicing, via spliceosome</goterm>
   <goterm id="GO:0009993">oogenesis (sensu Insecta)</goterm>
   <goterm id="GO:0007539">primary sex determination, soma</goterm>
  </Biological_process>
  <Cellular_component>
   <goterm id="GO:0005634">nucleus</goterm>
   <goterm id="GO:0030532">small nuclear ribonucleoprotein complex</goterm>
   <goterm id="GO:0005685">snRNP U1</goterm>
   <goterm id="GO:0005692">snRNP U11</goterm>
   <goterm id="GO:0005686">snRNP U2</goterm>
   <goterm id="GO:0005681">spliceosome complex</goterm>
  </Cellular_component>
 </GENE_ONTOLOGY>
 <FUNCTION>
  <Expressions>
  </Expressions>
  <Protein_domains>
   <db_xref>IPR000504 == RNA-binding region RNP-1  (RNA recognition motif)</db_xref>
   <db_xref>SCOP:54928 == RNA-binding domain, RBD; snf|FBgn0003449|pp-CT14684|FBan0004528</db_xref>
  </Protein_domains>
  <External_links>
   <db_xref>DEDB:528</db_xref>
   <db_xref>FlyGRID:FBgn0003449</db_xref>
   <db_xref>IFly:../dbzhnsky/sansfil1.htm</db_xref>
   <db_xref>KWgx:FBgn0003449</db_xref>
   <db_xref>NCBI_GEO:FBgn0003449</db_xref>
  </External_links>
 </FUNCTION>
 <LITERATURE>
  <Reference>
   <ref>
    <Identifier>FBrf0125416</Identifier>
    <Creator>Schutt and Nothiger</Creator>
    <Date>2000</Date>
    <Source>Development 127(4): 667--677</Source>
    <Title>Structure, function and evolution of sex-determining systems in Dipteran insects.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0102142</Identifier>
    <Creator>Gellon and McGinnis</Creator>
    <Date>1998</Date>
    <Source>BioEssays 20(2): 116--125</Source>
    <Title>Shaping animal body plans in development and evolution by modulation of Hox expression patterns.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0100730</Identifier>
    <Creator>Mizzen and Allis</Creator>
    <Date>1998</Date>
    <Source>Cell. Molec. Life Sci. 54(1): 6--20</Source>
    <Title>Linking histone acetylation to transcriptional regulation.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
 </LITERATURE>
 <SUMMARY>
  <text>
   The D. melanogaster gene sans fille, abbreviated as snf, is reported here. It encodes a product with U1 snRNA binding involved in nuclear mRNA splicing, via spliceosome which is localized to the nucleus. It has been sequenced and its amino acid sequence contains a RNA-binding region RNP-1  (RNA recognition motif). It has been mapped by recombination to 1-11.7 and cytologically to 4F4. It interacts genetically with Sxl, ovo, Aats-asp, Aats-trp, da and 3 other listed genes. There are 15 recorded alleles: 6 in vitro constructs (2 available from the public stock centers), 8 classical mutants (2 available from the public stock centers) and 1 wild-type. Hypomorphic mutations have been isolated which affect the ovary and are recessive female sterile, female sterile germ-line-dependent, dominant maternal effect lethal and viable. snf is discussed in 121 references (excluding sequence accessions), dated between 1975 and 2004. These include at least 23 studies of mutant phenotypes, 2 studies of wild-type function and 6 molecular studies. Among findings on snf mutants, tumorous cells produced by snf mutants are capable of female-specific transcription and RNA processing indicating the ovarian cells retain some female identity.
  </text>
 </SUMMARY>
</GeneSummary>
<!-- docurl="flybase-ugp.xml,16100283-16109185" -->


<GeneSummary id="FlyBase:FBgn0016917">
 <Title>FlyBase Gene: Stat92E</Title>
 <Source>FlyBase</Source>
 <Type>Gene Summary</Type>
 <BASIC_INFORMATION>
  <GeneID>FBgn0016917</GeneID>
  <Symbol>Stat92E</Symbol>
  <Full_name>Signal-transducer and activator of transcription protein at 92E</Full_name>
  <Species id="taxon:7227">Drosophila melanogaster</Species>
  <Synonyms>
   <Name>CG4257</Name>
   <Name>Stat1&amp;agr;-like</Name>
   <Name>marelle</Name>
   <Name>D-Stat</Name>
   <Name>mrl: marelle</Name>
   <Name>Stat</Name>
   <Name>stat</Name>
   <Name>d-STAT</Name>
   <Name>D-STAT</Name>
   <Name>l(3)06346</Name>
   <Name>dSTAT</Name>
   <Name>stat92E</Name>
   <Name>D-stat</Name>
   <Name>STAT</Name>
   <Name>Dstat92E</Name>
   <Name>Dstat 92E</Name>
   <Name>Dstat</Name>
   <Name>DSTAT</Name>
   <Name>mrl stat92E</Name>
   <Name>DRODSRC</Name>
   <Name>DSRC</Name>
   <Name>SD-stat</Name>
   <Name>STAT 92E</Name>
   <Name>dSTAT92E/marelle</Name>
   <Name>STAT92E</Name>
   <Name>Stat92E/marelle</Name>
   <Name>D-stat/stat92E</Name>
   <Name>mrL</Name>
   <Name>DmSTAT</Name>
   <Name>l(3)j6C8</Name>
   <Name>mrl</Name>
   <Name>Signal-transducer and activator of transcription protein</Name>
  </Synonyms>
  <Date>20 Aug 04</Date>
 </BASIC_INFORMATION>
 <LOCATION>
  <Chromosome>3R</Chromosome>
  <Genome_map>complement(16361422..16378051)</Genome_map>
  <Map type="cytogenetic">92F1</Map>
  <Scaffold>AE003731</Scaffold>
 </LOCATION>
 <GENE_PRODUCT>
  <Transcripts>
   <Transcript id="FBtr0089487">
    Stat92E-RE
    <Polypeptide id="FBpp0088978">Stat92E-PE (754 aa)</Polypeptide>
   </Transcript>
   <Transcript id="FBtr0089486">
    Stat92E-RF
    <Polypeptide id="FBpp0088489">Stat92E-PF (761 aa)</Polypeptide>
   </Transcript>
   <Transcript id="FBtr0089485">
    Stat92E-RC
    <Polypeptide id="FBpp0088488">Stat92E-PC (754 aa)</Polypeptide>
   </Transcript>
   <Transcript id="FBtr0089484">
    Stat92E-RB
    <Polypeptide id="FBpp0088487">Stat92E-PB (628 aa)</Polypeptide>
   </Transcript>
  </Transcripts>
 </GENE_PRODUCT>
 <GENE_ONTOLOGY>
  <Molecular_function>
   <goterm id="GO:0003677">DNA binding</goterm>
   <goterm id="GO:0003677">
    DNA binding
    <goevidence>
     traceable author statement
    </goevidence>
   </goterm>
   <goterm id="GO:0003677">
    DNA binding
    <goevidence>
     inferred from sequence similarity with HUGO:STAT5A; OMIM:601511
    </goevidence>
   </goterm>
   <goterm id="GO:0003677">
    DNA binding
    <goevidence>
     inferred from sequence similarity with HUGO:STAT6; OMIM:601512
    </goevidence>
   </goterm>
   <goterm id="GO:0003702">
    RNA polymerase II transcription factor activity
    <goevidence>
     non-traceable author statement
    </goevidence>
   </goterm>
   <goterm id="GO:0003700">
    transcription factor activity
    <goevidence>
     traceable author statement
    </goevidence>
   </goterm>
   <goterm id="GO:0003702">RNA polymerase II transcription factor activity</goterm>
   <goterm id="GO:0003700">transcription factor activity</goterm>
   <goterm id="GO:0003702">
    RNA polymerase II transcription factor activity
    <goevidence>
     inferred from sequence similarity with UniProt:P51692
    </goevidence>
   </goterm>
  </Molecular_function>
  <Biological_process>
   <goterm id="GO:0007259">JAK-STAT cascade</goterm>
   <goterm id="GO:0006916">anti-apoptosis</goterm>
   <goterm id="GO:0007350">blastoderm segmentation</goterm>
   <goterm id="GO:0007298">border cell migration (sensu Insecta)</goterm>
   <goterm id="GO:0006968">cellular defense response</goterm>
   <goterm id="GO:0006952">defense response</goterm>
   <goterm id="GO:0007456">eye morphogenesis (sensu Drosophila)</goterm>
   <goterm id="GO:0042078">germ-line stem cell renewal</goterm>
   <goterm id="GO:0035172">hemocyte proliferation (sensu Arthropoda)</goterm>
   <goterm id="GO:0030097">hemopoiesis</goterm>
   <goterm id="GO:0007442">hindgut morphogenesis</goterm>
   <goterm id="GO:0006959">humoral immune response</goterm>
   <goterm id="GO:0035171">lamellocyte differentiation</goterm>
   <goterm id="GO:0007498">mesoderm development</goterm>
   <goterm id="GO:0007399">neurogenesis</goterm>
   <goterm id="GO:0009993">oogenesis (sensu Insecta)</goterm>
   <goterm id="GO:0007538">primary sex determination</goterm>
   <goterm id="GO:0045449">regulation of transcription</goterm>
   <goterm id="GO:0006357">regulation of transcription from Pol II promoter</goterm>
   <goterm id="GO:0007530">sex determination</goterm>
   <goterm id="GO:0007165">signal transduction</goterm>
   <goterm id="GO:0048103">somatic stem cell renewal</goterm>
   <goterm id="GO:0019827">stem cell maintenance</goterm>
   <goterm id="GO:0017145">stem cell renewal</goterm>
   <goterm id="GO:0007425">tracheal cell fate determination (sensu Insecta)</goterm>
   <goterm id="GO:0007424">tracheal system development (sensu Insecta)</goterm>
   <goterm id="GO:0007476">wing morphogenesis</goterm>
  </Biological_process>
  <Cellular_component>
   <goterm id="GO:0005737">cytoplasm</goterm>
   <goterm id="GO:0005634">nucleus</goterm>
  </Cellular_component>
 </GENE_ONTOLOGY>
 <FUNCTION>
  <Expressions>
   <Expression type="dev_stage">
    embryo
    <Phenotype>mesoderm</Phenotype>
    <Phenotype>embryonic/larval hindgut</Phenotype>
    <Phenotype>embryonic/larval foregut</Phenotype>
    <Phenotype>gonad</Phenotype>
   </Expression>
  </Expressions>
  <Protein_domains>
   <db_xref>IPR000980 == Src homology 2 (SH2) domain</db_xref>
   <db_xref>IPR001217 == STAT protein</db_xref>
   <db_xref>SCOP:47655 == STAT; Stat92E|FBgn0016917|pp-CT13948|FBan0004257</db_xref>
   <db_xref>SCOP:49417 == p53-like transcription factors; Stat92E|FBgn0016917|pp-CT13948|FBan0004257</db_xref>
   <db_xref>SCOP:55550 == SH2 domain; Stat92E|FBgn0016917|pp-CT13948|FBan0004257</db_xref>
  </Protein_domains>
  <External_links>
   <db_xref>DEDB:9953</db_xref>
   <db_xref>FlyGRID:FBgn0016917</db_xref>
   <db_xref>Hybrigenics:522066</db_xref>
   <db_xref>IFly:../gene/marelle.htm</db_xref>
   <db_xref>KWgx:FBgn0016917</db_xref>
   <db_xref>NCBI_GEO:FBgn0016917</db_xref>
  </External_links>
 </FUNCTION>
 <LITERATURE>
  <Reference>
   <ref>
    <Identifier>FBrf0155682</Identifier>
    <Creator>Silver and Montell</Creator>
    <Date>2003</Date>
    <Source>Dev. Cell 4(2): 148--149</Source>
    <Title>A New Trick for Cyclin-Cdk. Activation of STAT.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0151864</Identifier>
    <Creator>Castelli-Gair Hombria and Brown</Creator>
    <Date>2002</Date>
    <Source>Curr. Biol. 12(16): R569--R575</Source>
    <Title>The fertile field of Drosophila Jak/STAT signalling.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0155676</Identifier>
    <Creator>Hou et al.</Creator>
    <Date>2002</Date>
    <Source>Dev. Cell 3(6): 765--778</Source>
    <Title>The JAK/STAT pathway in model organisms: emerging roles in cell movement.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0155987</Identifier>
    <Creator>Lin</Creator>
    <Date>2002</Date>
    <Source>Nature Rev. Genet. 3(12): 931--940</Source>
    <Title>The stem-cell niche theory: lessons from flies.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
 </LITERATURE>
 <SUMMARY>
  <text>
   The D. melanogaster gene Signal-transducer and activator of transcription protein at 92E, abbreviated as Stat92E, is reported here. It has also been known in FlyBase as Stat, l(3)06346 and mare. It encodes a product with DNA binding involved in JAK-STAT cascade which is a component of the nucleus; it is expressed in the embryo (embryonic/larval foregut, embryonic/larval hindgut, gonad and mesoderm). It has been sequenced. It has been mapped by recombination to 3-68.9 and cytologically to 92F1. It interacts genetically with hop, os, dome, tor, Su(var)2-10 and 5 other listed genes. There are 32 recorded alleles: 16 in vitro constructs (none available from the public stock centers), 15 classical mutants (1 available from the public stock centers) and 1 wild-type. Amorphic mutations have been isolated which affect the embryonic abdominal segment 4 to 5, the embryonic head, the telson and 39 other listed tissues and are embryonic rescuable maternal effect recessive lethal, somatic clone wild-type, pupal conditional ts (with Stat92EF) lethal, conditional ts (with Stat92EF) female sterile and (with Stat92EF) male sterile. Stat92E is discussed in 162 references (excluding sequence accessions), dated between 1994 and 2004. These include at least 15 studies of mutant phenotypes, 5 studies of wild-type function and 5 molecular studies. Among findings on Stat92E function, Stat92E is involved in proper differentiation and morphogenesis of multiple tissues.
  </text>
 </SUMMARY>
</GeneSummary>
<!-- docurl="flybase-ugp.xml,7477470-7480824" -->


<GeneSummary id="FlyBase:FBgn0004650">
 <Title>FlyBase Gene: fs(1)N</Title>
 <Source>FlyBase</Source>
 <Type>Gene Summary</Type>
 <BASIC_INFORMATION>
  <GeneID>FBgn0004650</GeneID>
  <Symbol>fs(1)N</Symbol>
  <Full_name>female sterile (1) Nasrat</Full_name>
  <Species id="taxon:7227">Drosophila melanogaster</Species>
  <Synonyms>
   <Name>CG11411</Name>
   <Name>CG11411</Name>
   <Name>CG11411</Name>
   <Name>CG11411</Name>
   <Name>fs(1)K1540</Name>
   <Name>371</Name>
   <Name>fs(1)M6</Name>
   <Name>fs(1)Nasrat</Name>
   <Name>fs(1)Nas</Name>
   <Name>fs(1)A371</Name>
   <Name>Nasrat</Name>
   <Name>8D8.1</Name>
   <Name>EG:8D8.1</Name>
   <Name>fs(1)&lt;up>nas&lt;/up></Name>
  </Synonyms>
  <Date>20 Aug 04</Date>
 </BASIC_INFORMATION>
 <LOCATION>
  <Chromosome>X</Chromosome>
  <Genome_map>1079962..1086891</Genome_map>
  <Map type="cytogenetic">1F3</Map>
  <Scaffold>AE003420</Scaffold>
 </LOCATION>
 <GENE_PRODUCT>
  <Transcripts>
   <Transcript id="FBtr0070207">
    fs(1)N-RA
    <Polypeptide id="FBpp0070200">fs(1)N-PA (2118 aa)</Polypeptide>
   </Transcript>
  </Transcripts>
 </GENE_PRODUCT>
 <GENE_ONTOLOGY>
  <Biological_process>
   <goterm id="GO:0008595">determination of anterior/posterior axis, embryo</goterm>
   <goterm id="GO:0007306">insect chorion formation</goterm>
   <goterm id="GO:0009993">oogenesis (sensu Insecta)</goterm>
  </Biological_process>
 </GENE_ONTOLOGY>
 <FUNCTION>
  <Expressions>
  </Expressions>
  <External_links>
   <db_xref>DEDB:156</db_xref>
   <db_xref>FlyGRID:FBgn0004650</db_xref>
   <db_xref>Hybrigenics:522656</db_xref>
   <db_xref>NCBI_GEO:FBgn0004650</db_xref>
  </External_links>
 </FUNCTION>
 <LITERATURE>
  <Reference>
   <ref>
    <Identifier>FBrf0111327</Identifier>
    <Creator>Baek and Lee</Creator>
    <Date>1999</Date>
    <Source>J. Biomed. Sci. 6(5): 314--319</Source>
    <Title>Signal transduction pathway for anterior-posterior development in Drosophila.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
 </LITERATURE>
 <SUMMARY>
  <text>
   The D. melanogaster gene female sterile (1) Nasrat, abbreviated as fs(1)N, is reported here. It has also been known in FlyBase as EG:8D8.1. It encodes a product involved in determination of anterior/posterior axis, embryo. It has been sequenced and its amino acid sequence is also available. It has been mapped by recombination to 1-0.0 and cytologically to 1F3. It interacts genetically with tsl. There are 26 recorded alleles: 4 in vitro constructs (none available from the public stock centers), 21 classical mutants (3 available from the public stock centers) and 1 wild-type. Loss-of-function mutations have been isolated which affect the maternal effect cephalopharyngeal skeleton, the anterior maternal effect head, the maternal effect telson and 3 other listed tissues and are embryonic maternal effect lethal, embryonic maternal effect terminal (with fs(1)N12) lethal and embryonic terminal (with fs(1)N&amp;Dgr;6) lethal. fs(1)N is discussed in 60 references (excluding sequence accessions), dated between 1957 and 2003. These include at least 4 studies of mutant phenotypes, one study of wild-type function and 2 molecular studies. Among findings on fs(1)N mutants, mutations of fs(1)N produce eggs with vitelline membrane defects and some embryos with defective development.
  </text>
 </SUMMARY>
</GeneSummary>
<!-- docurl="flybase-ugp.xml,2453505-2460307" -->


<GeneSummary id="FlyBase:FBgn0001291">
 <Title>FlyBase Gene: Jra</Title>
 <Source>FlyBase</Source>
 <Type>Gene Summary</Type>
 <BASIC_INFORMATION>
  <GeneID>FBgn0001291</GeneID>
  <Symbol>Jra</Symbol>
  <Full_name>Jun-related antigen</Full_name>
  <Species id="taxon:7227">Drosophila melanogaster</Species>
  <Synonyms>
   <Name>CG2275</Name>
   <Name>CG2275</Name>
   <Name>l(2)IA109</Name>
   <Name>dJRA</Name>
   <Name>dJra</Name>
   <Name>Djun</Name>
   <Name>d-JRA</Name>
   <Name>jun</Name>
   <Name>dAP-1</Name>
   <Name>dm-Jun</Name>
   <Name>Jun</Name>
   <Name>D-jun</Name>
   <Name>D-Jun</Name>
   <Name>DJun</Name>
   <Name>dJUN</Name>
   <Name>Jun oncogene</Name>
   <Name>l(2R)IA109</Name>
   <Name>V: transcript group V</Name>
   <Name>DJUN</Name>
   <Name>dJun</Name>
   <Name>c-Jun</Name>
   <Name>d-Jun</Name>
   <Name>cJun</Name>
   <Name>Complementation group V</Name>
   <Name>jra</Name>
   <Name>AP1</Name>
   <Name>d-jun</Name>
   <Name>AP-1</Name>
   <Name>l(2)46Ef</Name>
   <Name>lethal(2)IA109</Name>
   <Name>lethal(2)1A109</Name>
   <Name>V</Name>
  </Synonyms>
  <Date>20 Aug 04</Date>
 </BASIC_INFORMATION>
 <LOCATION>
  <Chromosome>2R</Chromosome>
  <Genome_map>5157113..5159238</Genome_map>
  <Map type="cytogenetic">46E4--5</Map>
  <Scaffold>AE003831</Scaffold>
 </LOCATION>
 <GENE_PRODUCT>
  <Transcripts>
   <Transcript id="FBtr0088411">
    Jra-RA
    <Polypeptide id="FBpp0087499">Jra-PA (289 aa)</Polypeptide>
   </Transcript>
   <Transcript id="FBtr0088410">
    Jra-RB
    <Polypeptide id="FBpp0087498">Jra-PB (289 aa)</Polypeptide>
   </Transcript>
  </Transcripts>
 </GENE_PRODUCT>
 <GENE_ONTOLOGY>
  <Molecular_function>
   <goterm id="GO:0008134">transcription factor binding</goterm>
   <goterm id="GO:0008134">
    transcription factor binding
    <goevidence>
     non-traceable author statement
    </goevidence>
   </goterm>
   <goterm id="GO:0008134">
    transcription factor binding
    <goevidence>
     traceable author statement
    </goevidence>
   </goterm>
   <goterm id="GO:0003704">
    specific RNA polymerase II transcription factor activity
    <goevidence>
     non-traceable author statement
    </goevidence>
   </goterm>
   <goterm id="GO:0046982">
    protein heterodimerization activity
    <goevidence>
     inferred from sequence similarity
    </goevidence>
   </goterm>
   <goterm id="GO:0003702">RNA polymerase II transcription factor activity</goterm>
   <goterm id="GO:0003704">specific RNA polymerase II transcription factor activity</goterm>
   <goterm id="GO:0046982">protein heterodimerization activity</goterm>
   <goterm id="GO:0003702">
    RNA polymerase II transcription factor activity
    <goevidence>
     inferred from sequence similarity with UniProt:P27921
    </goevidence>
   </goterm>
  </Molecular_function>
  <Biological_process>
   <goterm id="GO:0007254">JNK cascade</goterm>
   <goterm id="GO:0000165">MAPKKK cascade</goterm>
   <goterm id="GO:0007464">R3/R4 cell fate commitment</goterm>
   <goterm id="GO:0007465">R7 cell fate commitment</goterm>
   <goterm id="GO:0046843">dorsal appendage formation</goterm>
   <goterm id="GO:0007391">dorsal closure</goterm>
   <goterm id="GO:0001736">establishment of planar polarity</goterm>
   <goterm id="GO:0046844">micropyle formation</goterm>
   <goterm id="GO:0006357">regulation of transcription from Pol II promoter</goterm>
  </Biological_process>
  <Cellular_component>
   <goterm id="GO:0005737">cytoplasm</goterm>
   <goterm id="GO:0005634">nucleus</goterm>
  </Cellular_component>
 </GENE_ONTOLOGY>
 <FUNCTION>
  <Expressions>
  </Expressions>
  <Protein_domains>
   <db_xref>IPR001630 == cAMP response element binding (CREB) protein</db_xref>
   <db_xref>IPR001871 == bZIP (Basic-leucine zipper) transcription factor family</db_xref>
   <db_xref>IPR002112 == Jun transcription factor</db_xref>
   <db_xref>SCOP:47454 == Binding domain of Skn-1; Jra|FBgn0001291|pp-CT7577|FBan0002275</db_xref>
  </Protein_domains>
  <External_links>
   <db_xref>DEDB:12928</db_xref>
   <db_xref>FlyGRID:FBgn0001291</db_xref>
   <db_xref>IFly:../gene/djun.htm</db_xref>
   <db_xref>KWgx:FBgn0001291</db_xref>
   <db_xref>NCBI_GEO:FBgn0001291</db_xref>
  </External_links>
 </FUNCTION>
 <LITERATURE>
  <Reference>
   <ref>
    <Identifier>FBrf0156094</Identifier>
    <Creator>Mlodzik</Creator>
    <Date>2002</Date>
    <Source>Trends Genet. 18(11): 564--571</Source>
    <Title>Planar cell polarization: do the same mechanisms regulate Drosophila tissue polarity and vertebrate gastrulation?</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0149002</Identifier>
    <Creator>Van Aelst and Symons</Creator>
    <Date>2002</Date>
    <Source>Genes Dev. 16(9): 1032--1054</Source>
    <Title>Role of Rho family GTPases in epithelial morphogenesis.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0139822</Identifier>
    <Creator>Jacinto et al.</Creator>
    <Date>2001</Date>
    <Source>Nature Cell Biol. 3(5): E117--E123</Source>
    <Title>Mechanisms of epithelial fusion and repair.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
 </LITERATURE>
 <SUMMARY>
  <text>
   The D. melanogaster gene Jun-related antigen, abbreviated as Jra, is reported here. It has also been known in FlyBase as l(2)46Ck, l(2)46Ef and l(2)IA109. It encodes a product with transcription factor binding involved in JNK cascade which is localized to the nucleus; it is expressed in the embryo (amnioserosa, cephalic furrow and dorsal ectoderm) and larva (cone cell, morphogenetic furrow, mystery cell, ommatidial cluster and photoreceptor cell). It has been sequenced and its amino acid sequence contains a cAMP response element binding (CREB) domain, a bZIP (Basic-leucine zipper) transcription factor family and a jun transcription factor. It has been mapped by recombination to 2-60 and cytologically to 46E4--5. It interacts genetically with sev, pnt, rl, Rac1, bsk and 24 other listed genes. There are 23 recorded alleles: 17 in vitro constructs (2 available from the public stock centers), 5 classical mutants (1 available from the public stock centers) and 1 wild-type. Amorphic mutations have been isolated which affect the dorsal embryonic epidermis, the head, the somatic clone ommatidium and 2 other listed tissues and are embryonic recessive lethal, somatic clone tissue polarity and (with Df(2R)X1) lethal. Jra is discussed in 160 references (excluding sequence accessions), dated between 1984 and 2004. These include at least 29 studies of mutant phenotypes, 5 studies of wild-type function and 8 molecular studies. Among findings on Jra function, Jra function is not required for the specification of cell fate in the eye.
  </text>
 </SUMMARY>
</GeneSummary>
<!-- docurl="flybase-ugp.xml,8728039-8733168" -->


<GeneSummary id="FlyBase:FBgn0005638">
 <Title>FlyBase Gene: slbo</Title>
 <Source>FlyBase</Source>
 <Type>Gene Summary</Type>
 <BASIC_INFORMATION>
  <GeneID>FBgn0005638</GeneID>
  <Symbol>slbo</Symbol>
  <Full_name>slow border cells</Full_name>
  <Species id="taxon:7227">Drosophila melanogaster</Species>
  <Synonyms>
   <Name>CG4354</Name>
   <Name>C/EBP</Name>
   <Name>DmC/EBP</Name>
   <Name>DC/EBP</Name>
   <Name>slobo</Name>
   <Name>fs(2)7</Name>
   <Name>fs(2)8</Name>
   <Name>fs(2)ry7</Name>
   <Name>fs(2)ry8</Name>
   <Name>CCAAT/enhancer binding protein</Name>
  </Synonyms>
  <Date>20 Aug 04</Date>
 </BASIC_INFORMATION>
 <LOCATION>
  <Chromosome>2R</Chromosome>
  <Genome_map>complement(19375090..19377874)</Genome_map>
  <Map type="cytogenetic">60C6</Map>
  <Scaffold>AE003463</Scaffold>
 </LOCATION>
 <GENE_PRODUCT>
  <Transcripts>
   <Transcript id="FBtr0072272">
    slbo-RA
    <Polypeptide id="FBpp0072179">slbo-PA (449 aa)</Polypeptide>
   </Transcript>
  </Transcripts>
 </GENE_PRODUCT>
 <GENE_ONTOLOGY>
  <Molecular_function>
   <goterm id="GO:0003677">DNA binding</goterm>
   <goterm id="GO:0003677">
    DNA binding
    <goevidence>
     non-traceable author statement
    </goevidence>
   </goterm>
   <goterm id="GO:0030528">
    transcription regulator activity
    <goevidence>
     non-traceable author statement
    </goevidence>
   </goterm>
   <goterm id="GO:0046982">
    protein heterodimerization activity
    <goevidence>
     inferred from sequence similarity
    </goevidence>
   </goterm>
   <goterm id="GO:0030528">transcription regulator activity</goterm>
   <goterm id="GO:0046982">protein heterodimerization activity</goterm>
  </Molecular_function>
  <Biological_process>
   <goterm id="GO:0007298">border cell migration (sensu Insecta)</goterm>
   <goterm id="GO:0001708">cell fate specification</goterm>
   <goterm id="GO:0006355">regulation of transcription, DNA-dependent</goterm>
  </Biological_process>
  <Cellular_component>
   <goterm id="GO:0005634">nucleus</goterm>
  </Cellular_component>
 </GENE_ONTOLOGY>
 <FUNCTION>
  <Expressions>
   <Expression type="dev_stage">
    oogenesis, adult
    <Phenotype>ovary</Phenotype>
    <Phenotype>centripetally migrating follicle cell</Phenotype>
    <Phenotype>border follicle cell</Phenotype>
   </Expression>
  </Expressions>
  <Protein_domains>
   <db_xref>IPR001871 == bZIP (Basic-leucine zipper) transcription factor family</db_xref>
  </Protein_domains>
  <External_links>
   <db_xref>DEDB:1646</db_xref>
   <db_xref>FlyGRID:FBgn0005638</db_xref>
   <db_xref>IFly:../newgene/slowbo1.htm</db_xref>
   <db_xref>KWgx:FBgn0005638</db_xref>
   <db_xref>NCBI_GEO:FBgn0005638</db_xref>
  </External_links>
 </FUNCTION>
 <LITERATURE>
  <Reference>
   <ref>
    <Identifier>FBrf0128450</Identifier>
    <Creator>Dobens and Raftery</Creator>
    <Date>2000</Date>
    <Source>Dev. Dynamics 218(1): 80--93</Source>
    <Title>Integration of epithelial patterning and morphogenesis in Drosophila ovarian follicle cells.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0108951</Identifier>
    <Creator>Montell</Creator>
    <Date>1999</Date>
    <Source>Development 126(14): 3035--3046</Source>
    <Title>The genetics of cell migration in Drosophila melanogaster and Caenorhabditis elegans development.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0103248</Identifier>
    <Creator>Deng and Bownes</Creator>
    <Date>1998</Date>
    <Source>Int. J. Dev. Biol. 42(4): 541--552</Source>
    <Title>Patterning and morphogenesis of the follicle cell epithelium during Drosophila oogenesis.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
 </LITERATURE>
 <SUMMARY>
  <text>
   The D. melanogaster gene slow border cells, abbreviated as slbo, is reported here. It has also been known in FlyBase as fs(2)7. It encodes a product with DNA binding involved in border cell migration (sensu Insecta) which is localized to the nucleus; it is expressed in the embryo (embryonic/larval anterior spiracle, embryonic/larval foregut, embryonic/larval hindgut, embryonic/larval midgut and 3 other listed tissues) and ovary (border follicle cell, centripetally migrating follicle cell and ovary). It has been sequenced and its amino acid sequence contains a bZIP (Basic-leucine zipper) transcription factor family. It has been mapped cytologically to 60C6. It interacts genetically with mbc, btl, Ets97D, Ras85D,
   &amp;agr;-Adaptin and 9 other listed genes. There are 64 recorded alleles: 50 in vitro constructs (none available from the public stock centers), 13 classical mutants (2 available from the public stock centers) and 1 wild-type. Loss-of-function mutations have been isolated which affect the border follicle cell and are female fertile. slbo is discussed in 78 references (excluding sequence accessions), dated between 1982 and 2004. These include at least 13 studies of mutant phenotypes, one study of wild-type function, one study of natural polymorphisms and 4 molecular studies.
  </text>
 </SUMMARY>
</GeneSummary>
<!-- docurl="flybase-ugp.xml,5588920-5594444" -->


<GeneSummary id="FlyBase:FBgn0003460">
 <Title>FlyBase Gene: so</Title>
 <Source>FlyBase</Source>
 <Type>Gene Summary</Type>
 <BASIC_INFORMATION>
  <GeneID>FBgn0003460</GeneID>
  <Symbol>so</Symbol>
  <Full_name>sine oculis</Full_name>
  <Species id="taxon:7227">Drosophila melanogaster</Species>
  <Synonyms>
   <Name>CG11121</Name>
   <Name>mda</Name>
   <Name>Drl: Droplet</Name>
   <Name>somda</Name>
   <Name>So</Name>
   <Name>ami</Name>
   <Name>med: medusa</Name>
   <Name>old: optic lobe defective</Name>
   <Name>Drl</Name>
   <Name>optic lobe defective</Name>
   <Name>Droplet</Name>
   <Name>absent minded</Name>
   <Name>medusa</Name>
  </Synonyms>
  <Date>20 Aug 04</Date>
 </BASIC_INFORMATION>
 <LOCATION>
  <Chromosome>2R</Chromosome>
  <Genome_map>2479933..2495773</Genome_map>
  <Map type="cytogenetic">43B3--C1</Map>
  <Scaffold>AE003841</Scaffold>
 </LOCATION>
 <GENE_PRODUCT>
  <Transcripts>
   <Transcript id="FBtr0088970">
    so-RA
    <Polypeptide id="">so-PA (416 aa)</Polypeptide>
   </Transcript>
  </Transcripts>
 </GENE_PRODUCT>
 <GENE_ONTOLOGY>
  <Molecular_function>
   <goterm id="GO:0003700">
    transcription factor activity
    <goevidence>
     traceable author statement
    </goevidence>
   </goterm>
   <goterm id="GO:0003702">RNA polymerase II transcription factor activity</goterm>
   <goterm id="GO:0003700">transcription factor activity</goterm>
   <goterm id="GO:0003702">
    RNA polymerase II transcription factor activity
    <goevidence>
     inferred from sequence similarity with UniProt:Q62231
    </goevidence>
   </goterm>
  </Molecular_function>
  <Biological_process>
   <goterm id="GO:0001746">Bolwig's organ morphogenesis</goterm>
   <goterm id="GO:0007623">circadian rhythm</goterm>
   <goterm id="GO:0007456">eye morphogenesis (sensu Drosophila)</goterm>
   <goterm id="GO:0007455">eye-antennal disc metamorphosis</goterm>
   <goterm id="GO:0008347">glia cell migration</goterm>
   <goterm id="GO:0001744">optic placode formation (sensu Drosophila)</goterm>
   <goterm id="GO:0045449">regulation of transcription</goterm>
   <goterm id="GO:0006357">regulation of transcription from Pol II promoter</goterm>
   <goterm id="GO:0007283">spermatogenesis</goterm>
  </Biological_process>
  <Cellular_component>
   <goterm id="GO:0005634">nucleus</goterm>
  </Cellular_component>
 </GENE_ONTOLOGY>
 <FUNCTION>
  <Expressions>
   <Expression type="dev_stage">
    embryo
    <Phenotype>optic lobe placode</Phenotype>
    <Phenotype>epidermis</Phenotype>
    <Phenotype>Bolwig's organ</Phenotype>
    <Phenotype>optic lobe</Phenotype>
   </Expression>
   <Expression type="dev_stage">
    larva
    <Phenotype>eye disc</Phenotype>
   </Expression>
  </Expressions>
  <Protein_domains>
   <db_xref>IPR001356 == Homeobox domain</db_xref>
   <db_xref>SCOP:46689 == Homeodomain-like; so|FBgn0003460|pp-CT8839|FBan0011121</db_xref>
  </Protein_domains>
  <External_links>
   <db_xref>BDGPisx:so</db_xref>
   <db_xref>DEDB:13328</db_xref>
   <db_xref>FlyGRID:FBgn0003460</db_xref>
   <db_xref>IFly:../neural/sineocul.htm</db_xref>
   <db_xref>NCBI_GEO:FBgn0003460</db_xref>
  </External_links>
 </FUNCTION>
 <LITERATURE>
  <Reference>
   <ref>
    <Identifier>FBrf0145194</Identifier>
    <Creator>Foster and Helfrich-Foerster</Creator>
    <Date>2001</Date>
    <Source>Phil. Trans. r. Soc. B. 356(1415): 1779--1789</Source>
    <Title>The regulation of circadian clocks by light in fruitflies and mice.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0125060</Identifier>
    <Creator>Relaix and Buckingham</Creator>
    <Date>1999</Date>
    <Source>Genes Dev. 13(24): 3171--3178</Source>
    <Title>From insect eye to vertebrate muscle: redeployment of a regulatory network.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0111566</Identifier>
    <Creator>Treisman</Creator>
    <Date>1999</Date>
    <Source>BioEssays 21(10): 843--850</Source>
    <Title>A conserved blueprint for the eye?</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
 </LITERATURE>
 <SUMMARY>
  <text>
   The D. melanogaster gene sine oculis, abbreviated as so, is reported here. It encodes a product with transcription factor activity involved in regulation of transcription which is localized to the nucleus; it is expressed in the adult (ocellus, optic lobe and photoreceptor cell R1 to 7), embryo (Bolwig's organ, epidermis, optic lobe and optic lobe placode) and larva (eye disc, eye-antennal disc and photoreceptor cell R1 to 7). It has been sequenced and its amino acid sequence contains a homeobox domain. It has been mapped by recombination to 2-57.1 and cytologically to 43B3--C1. It interacts genetically with eya, ey, tsh, dpp and gish. There are 36 recorded alleles: 3 in vitro constructs (none available from the public stock centers), 32 classical mutants (3 available from the public stock centers) and 1 wild-type. Amorphic mutations have been isolated which affect the visual primordium, the Bolwig's organ, the somatic clone eye disc and 4 other listed tissues and are embryonic recessive lethal, (with so9) viable and male (with so9) fertile. so is discussed in 197 references (excluding sequence accessions), dated between 1941 and 2004. These include at least 15 studies of mutant phenotypes, 4 studies of wild-type function and 6 molecular studies. Among findings on so mutants, mutants of so display a degraded ERG response.
  </text>
 </SUMMARY>
</GeneSummary>
<!-- docurl="flybase-ugp.xml,287810-298064" -->


<GeneSummary id="FlyBase:FBgn0000117">
 <Title>FlyBase Gene: arm</Title>
 <Source>FlyBase</Source>
 <Type>Gene Summary</Type>
 <BASIC_INFORMATION>
  <GeneID>FBgn0000117</GeneID>
  <Symbol>arm</Symbol>
  <Full_name>armadillo</Full_name>
  <Species id="taxon:7227">Drosophila melanogaster</Species>
  <Synonyms>
   <Name>CG11579</Name>
   <Name>CG11579</Name>
   <Name>CG11579</Name>
   <Name>CG11579</Name>
   <Name>CG11579</Name>
   <Name>CG11579</Name>
   <Name>CG11579</Name>
   <Name>l(1)arm</Name>
   <Name>&amp;bgr;-catenin</Name>
   <Name>l(1)G0234</Name>
   <Name>l(1)G0192</Name>
   <Name>Armadillo</Name>
   <Name>beta-catenin</Name>
   <Name>Arm</Name>
   <Name>&amp;bgr;-Catenin</Name>
   <Name>EG:86E4.6</Name>
   <Name>l(1)G0410</Name>
   <Name>&amp;Bgr;-catenin</Name>
   <Name>b-catenin</Name>
   <Name>ARM</Name>
   <Name>t12687 ALR Dm</Name>
   <Name>catenin</Name>
   <Name>Beta-catenin</Name>
   <Name>l(1)2Bv</Name>
  </Synonyms>
  <Date>20 Aug 04</Date>
 </BASIC_INFORMATION>
 <LOCATION>
  <Chromosome>X</Chromosome>
  <Genome_map>complement(1648173..1657412)</Genome_map>
  <Map type="cytogenetic">2B14</Map>
  <Scaffold>AE003422</Scaffold>
 </LOCATION>
 <GENE_PRODUCT>
  <Transcripts>
   <Transcript id="FBtr0089991">
    arm-RA
    <Polypeptide id="FBpp0089034">arm-PA (843 aa)</Polypeptide>
   </Transcript>
   <Transcript id="FBtr0089989">
    arm-RB
    <Polypeptide id="FBpp0089032">arm-PB (843 aa)</Polypeptide>
   </Transcript>
   <Transcript id="FBtr0089990">
    arm-RC
    <Polypeptide id="FBpp0089033">arm-PC (721 aa)</Polypeptide>
   </Transcript>
   <Transcript id="FBtr0089988">
    arm-RE
    <Polypeptide id="FBpp0089031">arm-PE (843 aa)</Polypeptide>
   </Transcript>
   <Transcript id="FBtr0089992">
    arm-RD
    <Polypeptide id="FBpp0089035">arm-PD (843 aa)</Polypeptide>
   </Transcript>
  </Transcripts>
 </GENE_PRODUCT>
 <GENE_ONTOLOGY>
  <Molecular_function>
   <goterm id="GO:0008092">
    cytoskeletal protein binding
    <goevidence>
     inferred from sequence similarity
    </goevidence>
   </goterm>
   <goterm id="GO:0008092">cytoskeletal protein binding</goterm>
   <goterm id="GO:0045294">
    alpha-catenin binding
    <goevidence>
     non-traceable author statement
    </goevidence>
   </goterm>
   <goterm id="GO:0005200">
    structural constituent of cytoskeleton
    <goevidence>
     inferred from electronic annotation
    </goevidence>
   </goterm>
   <goterm id="GO:0005102">
    receptor binding
    <goevidence>
     inferred from electronic annotation
    </goevidence>
   </goterm>
   <goterm id="GO:0005200">structural constituent of cytoskeleton</goterm>
   <goterm id="GO:0005102">receptor binding</goterm>
   <goterm id="GO:0045294">alpha-catenin binding</goterm>
  </Molecular_function>
  <Biological_process>
   <goterm id="GO:0016055">Wnt receptor signaling pathway</goterm>
   <goterm id="GO:0007155">cell adhesion</goterm>
   <goterm id="GO:0016337">cell-cell adhesion</goterm>
   <goterm id="GO:0007016">cytoskeletal anchoring</goterm>
   <goterm id="GO:0007391">dorsal closure</goterm>
   <goterm id="GO:0007398">ectoderm development</goterm>
   <goterm id="GO:0007163">establishment and/or maintenance of cell polarity</goterm>
   <goterm id="GO:0007222">frizzled signaling pathway</goterm>
   <goterm id="GO:0042078">germ-line stem cell renewal</goterm>
   <goterm id="GO:0007507">heart development</goterm>
   <goterm id="GO:0007400">neuroblast cell fate determination</goterm>
   <goterm id="GO:0030720">oocyte positioning</goterm>
   <goterm id="GO:0009993">oogenesis (sensu Insecta)</goterm>
   <goterm id="GO:0030707">ovarian follicle cell development (sensu Insecta)</goterm>
   <goterm id="GO:0046330">positive regulation of JNK cascade</goterm>
   <goterm id="GO:0008104">protein localization</goterm>
   <goterm id="GO:0008360">regulation of cell shape</goterm>
   <goterm id="GO:0007367">segment polarity determination</goterm>
   <goterm id="GO:0035019">somatic stem cell maintenance</goterm>
   <goterm id="GO:0045186">zonula adherens assembly</goterm>
  </Biological_process>
  <Cellular_component>
   <goterm id="GO:0005912">adherens junction</goterm>
   <goterm id="GO:0016327">apicolateral plasma membrane</goterm>
   <goterm id="GO:0016342">catenin complex</goterm>
   <goterm id="GO:0005737">cytoplasm</goterm>
   <goterm id="GO:0016020">membrane</goterm>
   <goterm id="GO:0005914">spot adherens junction</goterm>
   <goterm id="GO:0005915">zonula adherens</goterm>
  </Cellular_component>
 </GENE_ONTOLOGY>
 <FUNCTION>
  <Expressions>
  </Expressions>
  <Protein_domains>
   <db_xref>SCOP:48371 == ARM repeat; arm|FBgn0000117|pp-CT12773|FBan0011579</db_xref>
   <db_xref>SCOP:48371 == ARM repeat; arm|FBgn0000117|pp-CT36518|FBan0011579</db_xref>
   <db_xref>SCOP:48371 == ARM repeat; arm|FBgn0000117|pp-CT36522|FBan0011579</db_xref>
  </Protein_domains>
  <External_links>
   <db_xref>DEDB:229</db_xref>
   <db_xref>FlyGRID:FBgn0000117</db_xref>
   <db_xref>IFly:../segment/armadilo.htm</db_xref>
   <db_xref>NCBI_GEO:FBgn0000117</db_xref>
  </External_links>
 </FUNCTION>
 <LITERATURE>
  <Reference>
   <ref>
    <Identifier>FBrf0159315</Identifier>
    <Creator>Cereijido et al.</Creator>
    <Date>2003</Date>
    <Source>Prog. Biophys. Molec. Biol. 81(2): 81--115</Source>
    <Title>Membrane targeting.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0155680</Identifier>
    <Creator>Muller</Creator>
    <Date>2003</Date>
    <Source>Dev. Cell 4(1): 1--3</Source>
    <Title>Epithelial polarity in flies. More than just crumbs.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0151433</Identifier>
    <Creator>Bienz</Creator>
    <Date>2002</Date>
    <Source>Nature Rev. Molec. Cell. Biol. 3(5): 328--338</Source>
    <Title>The subcellular destinations of APC proteins.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0151249</Identifier>
    <Creator>Cripps and Olson</Creator>
    <Date>2002</Date>
    <Source>Dev. Biol. 246(1): 14--28</Source>
    <Title>Control of cardiac development by an evolutionarily conserved transcriptional network.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0156092</Identifier>
    <Creator>Galis et al.</Creator>
    <Date>2002</Date>
    <Source>Trends Genet. 18(10): 504--509</Source>
    <Title>Conservation of the segmented germband stage: robustness or pleiotropy?</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0155667</Identifier>
    <Creator>Jin and Harper</Creator>
    <Date>2002</Date>
    <Source>Dev. Cell 2(6): 685--687</Source>
    <Title>RING finger specificity in SCF-driven protein destruction.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0155493</Identifier>
    <Creator>Knust and Bossinger</Creator>
    <Date>2002</Date>
    <Source>Science 298(5600): 1955--1959</Source>
    <Title>Composition and formation of intercellular junctions in epithelial cells.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0155987</Identifier>
    <Creator>Lin</Creator>
    <Date>2002</Date>
    <Source>Nature Rev. Genet. 3(12): 931--940</Source>
    <Title>The stem-cell niche theory: lessons from flies.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0151776</Identifier>
    <Creator>Pandur et al.</Creator>
    <Date>2002</Date>
    <Source>BioEssays 24(10): 881--884</Source>
    <Title>Increasingly complex: new players enter the Wnt signaling network.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0151324</Identifier>
    <Creator>Seto et al.</Creator>
    <Date>2002</Date>
    <Source>Genes Dev. 16(11): 1314--1336</Source>
    <Title>When cell biology meets development: endocytic regulation of signaling pathways.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0155643</Identifier>
    <Creator>Wedlich</Creator>
    <Date>2002</Date>
    <Source>Curr. Opin. Cell Biol. 14(5): 563--568</Source>
    <Title>The polarising role of cell adhesion molecules in early development.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
 </LITERATURE>
 <SUMMARY>
  <text>
   The D. melanogaster gene armadillo, abbreviated as arm, is reported here. It has also been known in FlyBase as l(1)G0192, l(1)G0234 and l(1)G0410. It encodes a product with alpha-catenin binding involved in segment polarity determination which is localized to the cell-cell adherens junction, the intercellular junction and the plasma membrane; it is expressed in the adult (head), embryo (Malpighian tubule, antennal segment, axon, embryonic central nervous system and 22 other listed tissues), larva (embryonic/larval digestive system, embryonic/larval salivary gland, eye-antennal disc, imaginal disc and 5 other listed tissues) and ovary (follicle cell, nurse cell and oocyte). It has been sequenced and its amino acid sequence is also available. It has been mapped by recombination to 1-1.2 and cytologically to 2B14. It interacts genetically with pan, shg, wg, nkd, sgg and 49 other listed genes. There are 146 recorded alleles: 84 in vitro constructs (2 available from the public stock centers), 61 classical mutants (4 available from the public stock centers) and 1 wild-type. Amorphic mutations have been isolated which affect the embryonic somatic clone cell autonomous segment, the embryonic head, the dorsal embryonic epidermis and 20 other listed tissues and are embryonic segment polarity recessive lethal. arm is discussed in 815 references (excluding sequence accessions), dated between 1982 and 2004. These include at least 69 studies of mutant phenotypes, 10 studies of wild-type function and 26 molecular studies. Among findings on arm mutants, arm mutants display mirror image duplication of denticle belts. Among findings on arm function, arm does not play a general role in inhibiting cell migration or process extension.
  </text>
 </SUMMARY>
</GeneSummary>
<!-- docurl="flybase-ugp.xml,722530-728726" -->


<GeneSummary id="FlyBase:FBgn0000308">
 <Title>FlyBase Gene: chic</Title>
 <Source>FlyBase</Source>
 <Type>Gene Summary</Type>
 <BASIC_INFORMATION>
  <GeneID>FBgn0000308</GeneID>
  <Symbol>chic</Symbol>
  <Full_name>chickadee</Full_name>
  <Species id="taxon:7227">Drosophila melanogaster</Species>
  <Synonyms>
   <Name>CG9553</Name>
   <Name>CG9553</Name>
   <Name>sand</Name>
   <Name>D88</Name>
   <Name>l(2)27/7</Name>
   <Name>profilin</Name>
   <Name>Profilin</Name>
   <Name>chi</Name>
   <Name>Chic</Name>
   <Name>Chi</Name>
   <Name>stranded</Name>
  </Synonyms>
  <Date>20 Aug 04</Date>
 </BASIC_INFORMATION>
 <LOCATION>
  <Chromosome>2L</Chromosome>
  <Genome_map>complement(5965115..5973240)</Genome_map>
  <Map type="cytogenetic">26A5--B2</Map>
  <Scaffold>AE003612</Scaffold>
 </LOCATION>
 <GENE_PRODUCT>
  <Transcripts>
   <Transcript id="FBtr0079236">
    chic-RD
    <Polypeptide id="">chic-PD (126 aa)</Polypeptide>
   </Transcript>
   <Transcript id="FBtr0079235">
    chic-RB
    <Polypeptide id="FBpp0078866">chic-PB (126 aa)</Polypeptide>
   </Transcript>
   <Transcript id="FBtr0079234">
    chic-RC
    <Polypeptide id="FBpp0078865">chic-PC (126 aa)</Polypeptide>
   </Transcript>
   <Transcript id="FBtr0079233">
    chic-RA
    <Polypeptide id="FBpp0078864">chic-PA (126 aa)</Polypeptide>
   </Transcript>
  </Transcripts>
 </GENE_PRODUCT>
 <GENE_ONTOLOGY>
  <Molecular_function>
   <goterm id="GO:0003779">actin binding</goterm>
   <goterm id="GO:0003779">
    actin binding
    <goevidence>
     inferred from sequence similarity
    </goevidence>
   </goterm>
   <goterm id="GO:0003779">
    actin binding
    <goevidence>
     non-traceable author statement
    </goevidence>
   </goterm>
   <goterm id="GO:0005546">
    phosphatidylinositol-4,5-bisphosphate binding
    <goevidence>
     non-traceable author statement
    </goevidence>
   </goterm>
   <goterm id="GO:0005200">
    structural constituent of cytoskeleton
    <goevidence>
     inferred from electronic annotation
    </goevidence>
   </goterm>
   <goterm id="GO:0005200">structural constituent of cytoskeleton</goterm>
   <goterm id="GO:0005546">phosphatidylinositol-4,5-bisphosphate binding</goterm>
  </Molecular_function>
  <Biological_process>
   <goterm id="GO:0007015">actin filament organization</goterm>
   <goterm id="GO:0030041">actin filament polymerization</goterm>
   <goterm id="GO:0008154">actin polymerization and/or depolymerization</goterm>
   <goterm id="GO:0000915">cytokinesis, contractile ring formation</goterm>
   <goterm id="GO:0007391">dorsal closure</goterm>
   <goterm id="GO:0007300">nurse cell to ocyte transport (sensu Insecta)</goterm>
   <goterm id="GO:0045451">pole plasm oskar mRNA localization</goterm>
   <goterm id="GO:0007283">spermatogenesis</goterm>
  </Biological_process>
 </GENE_ONTOLOGY>
 <FUNCTION>
  <Expressions>
   <Expression type="dev_stage">
    oogenesis, adult
    <Phenotype>ovary</Phenotype>
   </Expression>
  </Expressions>
  <Protein_domains>
   <db_xref>SCOP:55770 == Profilin (actin-binding protein); chic|FBgn0000308|pp-CT27020|FBan0009553</db_xref>
   <db_xref>SCOP:55770 == Profilin (actin-binding protein); chic|FBgn0000308|pp-CT36595|FBan0009553</db_xref>
  </Protein_domains>
  <External_links>
   <db_xref>DEDB:6587</db_xref>
   <db_xref>FlyGRID:FBgn0000308</db_xref>
   <db_xref>IFly:../cytoskel/chickd1.htm</db_xref>
   <db_xref>KWgx:FBgn0000308</db_xref>
   <db_xref>NCBI_GEO:FBgn0000308</db_xref>
  </External_links>
 </FUNCTION>
 <LITERATURE>
  <Reference>
   <ref>
    <Identifier>FBrf0151730</Identifier>
    <Creator>Hudson and Cooley</Creator>
    <Date>2002</Date>
    <Source>A. Rev. Genet. 36: 455--488</Source>
    <Title>Understanding the function of actin-binding proteins through genetic analysis of Drosophila oogenesis.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0151872</Identifier>
    <Creator>Martin and Wood</Creator>
    <Date>2002</Date>
    <Source>Curr. Opin. Cell Biol. 14(5): 569--574</Source>
    <Title>Epithelial fusions in the embryo.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0151773</Identifier>
    <Creator>Mazumdar and Mazumdar</Creator>
    <Date>2002</Date>
    <Source>BioEssays 24(11): 1012--1022</Source>
    <Title>How one becomes many: blastoderm cellularization in Drosophila melanogaster.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0149002</Identifier>
    <Creator>Van Aelst and Symons</Creator>
    <Date>2002</Date>
    <Source>Genes Dev. 16(9): 1032--1054</Source>
    <Title>Role of Rho family GTPases in epithelial morphogenesis.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
 </LITERATURE>
 <SUMMARY>
  <text>
   The D. melanogaster gene chickadee, abbreviated as chic, is reported here. It has also been known in FlyBase as chi and sand. It encodes a product with actin binding involved in spermatogenesis which is expressed in the embryo (ventral nerve cord) and ovary (border follicle cell, follicle cell, nurse cell and ovary). It has been sequenced and its amino acid sequence is also available. It has been mapped cytologically to 26A5--B2. It interacts genetically with capu, Abl, cib, Ras85D, Cdc42 and 3 other listed genes. There are 45 recorded alleles: 2 in vitro constructs (none available from the public stock centers), 42 classical mutants (4 available from the public stock centers) and 1 wild-type. Amorphic mutations have been isolated which affect the nurse cell, the border follicle cell, the wing and 7 other listed tissues and are recessive lethal, recessive semi-lethal and recessive male sterile. chic is discussed in 152 references (excluding sequence accessions), dated between 1988 and 2004. These include at least 12 studies of mutant phenotypes, 3 studies of wild-type function and 10 molecular studies. Among findings on chic mutants, mutations at the chic locus cause defects in midoogenesis. Among findings on chic function, chic regulates actin filament formation throughout the cell cortex in the follicular epithelium.
  </text>
 </SUMMARY>
</GeneSummary>
<!-- docurl="flybase-ugp.xml,2348627-2354449" -->


<GeneSummary id="FlyBase:FBgn0001233">
 <Title>FlyBase Gene: Hsp83</Title>
 <Source>FlyBase</Source>
 <Type>Gene Summary</Type>
 <BASIC_INFORMATION>
  <GeneID>FBgn0001233</GeneID>
  <Symbol>Hsp83</Symbol>
  <Full_name>Heat shock protein 83</Full_name>
  <Species id="taxon:7227">Drosophila melanogaster</Species>
  <Synonyms>
   <Name>CG1242</Name>
   <Name>CG1242</Name>
   <Name>CG1242</Name>
   <Name>hsp83</Name>
   <Name>83K HSP</Name>
   <Name>hsp82</Name>
   <Name>83</Name>
   <Name>Hsp82</Name>
   <Name>E(sev)3A: Enhancer of sevenless 3A</Name>
   <Name>hsp84</Name>
   <Name>l(3)j5C2</Name>
   <Name>E(sina)2</Name>
   <Name>HSP83</Name>
   <Name>Hsp90</Name>
   <Name>clone 2.53</Name>
   <Name>HSP90</Name>
   <Name>hsp90</Name>
   <Name>DMHSP82</Name>
   <Name>HSP82</Name>
   <Name>ms(3)08445</Name>
   <Name>ORF1</Name>
   <Name>en(lz)3C/4C</Name>
   <Name>anon-WO0068693</Name>
   <Name>Su(Raf)3A</Name>
   <Name>anon-EST:Liang-2.53</Name>
   <Name>stc</Name>
   <Name>E(sev)3A</Name>
   <Name>scratch</Name>
   <Name>Enhancer of seven in absentia 2</Name>
   <Name>Enhancer of sevenless 3A</Name>
  </Synonyms>
  <Date>20 Aug 04</Date>
 </BASIC_INFORMATION>
 <LOCATION>
  <Chromosome>3L</Chromosome>
  <Genome_map>3173656..3177690</Genome_map>
  <Map type="cytogenetic">63B11</Map>
  <Scaffold>AE003477</Scaffold>
 </LOCATION>
 <GENE_PRODUCT>
  <Transcripts>
   <Transcript id="FBtr0073040">
    Hsp83-RA
    <Polypeptide id="FBpp0072904">Hsp83-PA (717 aa)</Polypeptide>
   </Transcript>
  </Transcripts>
 </GENE_PRODUCT>
 <GENE_ONTOLOGY>
  <Molecular_function>
   <goterm id="GO:0042623">
    ATPase activity, coupled
    <goevidence>
     inferred from sequence similarity with EMBL:J04988
    </goevidence>
   </goterm>
   <goterm id="GO:0042623">ATPase activity, coupled</goterm>
  </Molecular_function>
  <Biological_process>
   <goterm id="GO:0007465">R7 cell fate commitment</goterm>
   <goterm id="GO:0007015">actin filament organization</goterm>
   <goterm id="GO:0007098">centrosome cycle</goterm>
   <goterm id="GO:0006952">defense response</goterm>
   <goterm id="GO:0008595">determination of anterior/posterior axis, embryo</goterm>
   <goterm id="GO:0006461">protein complex assembly</goterm>
   <goterm id="GO:0006457">protein folding</goterm>
   <goterm id="GO:0008360">regulation of cell shape</goterm>
   <goterm id="GO:0045187">regulation of circadian sleep/wake cycle, sleep</goterm>
   <goterm id="GO:0009408">response to heat</goterm>
   <goterm id="GO:0007283">spermatogenesis</goterm>
   <goterm id="GO:0008293">torso signaling pathway</goterm>
  </Biological_process>
  <Cellular_component>
   <goterm id="GO:0005813">centrosome</goterm>
   <goterm id="GO:0005737">cytoplasm</goterm>
  </Cellular_component>
 </GENE_ONTOLOGY>
 <FUNCTION>
  <Expressions>
  </Expressions>
  <Protein_domains>
   <db_xref>IPR003594 == Histidine kinase-like ATPase</db_xref>
   <db_xref>SCOP:48264 == Cytochrome P450; Hsp83|FBgn0001233|pp-CT2354|FBan0001242</db_xref>
   <db_xref>SCOP:55874 == ATPase domain of HSP90 chaperone/DNA topoisomerase II/histidine kinase; Hsp83|FBgn0001233|pp-CT2354|FBan0001242</db_xref>
  </Protein_domains>
  <External_links>
   <db_xref>DEDB:2150</db_xref>
   <db_xref>FlyGRID:FBgn0001233</db_xref>
   <db_xref>Hybrigenics:522751</db_xref>
   <db_xref>NCBI_GEO:FBgn0001233</db_xref>
  </External_links>
 </FUNCTION>
 <LITERATURE>
  <Reference>
   <ref>
    <Identifier>FBrf0156003</Identifier>
    <Creator>Rutherford and Henikoff</Creator>
    <Date>2003</Date>
    <Source>Nature Genetics 33(1): 6--8</Source>
    <Title>Quantitative epigenetics.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0157214</Identifier>
    <Creator>Tatar et al.</Creator>
    <Date>2003</Date>
    <Source>Science 299(5611): 1346--1351</Source>
    <Title>The endocrine regulation of aging by insulin-like signals.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0156039</Identifier>
    <Creator>Ohta</Creator>
    <Date>2002</Date>
    <Source>Proc. Natl. Acad. Sci. USA 99(25): 16134--16137</Source>
    <Title>Near-neutrality in evolution of genes and gene regulation.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0156097</Identifier>
    <Creator>Tekotte and Davis</Creator>
    <Date>2002</Date>
    <Source>Trends Genet. 18(12): 636--642</Source>
    <Title>Intracellular mRNA localization: motors move messages.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
 </LITERATURE>
 <SUMMARY>
  <text>
   The D. melanogaster gene Heat shock protein 83, abbreviated as Hsp83, is reported here. It has also been known in FlyBase as Su(Raf)3A, l(3)j5C2 and ms(3)08445. It encodes a product with ATPase activity, coupled involved in centrosome cycle which is a component of the cytoplasm. It has been sequenced and its amino acid sequence contains a histidine kinase-like ATPase. It has been mapped by recombination to 3-5 and cytologically to 63B11. It interacts genetically with sev, sina, phl, lz and tor. There are 65 recorded alleles: 49 in vitro constructs (1 available from the public stock centers), 15 classical mutants (4 available from the public stock centers) and 1 wild-type. Hypomorphic mutations have been isolated which affect the spermatocyte, the spermatid, the Nebenkern and the spermatozoon and are recessive lethal. Hsp83 is discussed in 226 references (excluding sequence accessions), dated between 1970 and 2004. These include at least 21 studies of mutant phenotypes, 7 studies of wild-type function, 4 studies of natural polymorphisms and 11 molecular studies. Among findings on Hsp83 function, Hsp83 may have a role in ensuring proper centrosome function.
  </text>
 </SUMMARY>
</GeneSummary>
<!-- docurl="flybase-ugp.xml,1056605-1068071" -->


<GeneSummary id="FlyBase:FBgn0000463">
 <Title>FlyBase Gene: Dl</Title>
 <Source>FlyBase</Source>
 <Type>Gene Summary</Type>
 <BASIC_INFORMATION>
  <GeneID>FBgn0000463</GeneID>
  <Symbol>Dl</Symbol>
  <Full_name>Delta</Full_name>
  <Species id="taxon:7227">Drosophila melanogaster</Species>
  <Synonyms>
   <Name>CG3619</Name>
   <Name>CG3619</Name>
   <Name>C1</Name>
   <Name>D</Name>
   <Name>0495/20</Name>
   <Name>0926/11</Name>
   <Name>1053/14</Name>
   <Name>1119/09</Name>
   <Name>1304/03</Name>
   <Name>1423/11</Name>
   <Name>1440/11</Name>
   <Name>1485/04</Name>
   <Name>dmDelta</Name>
   <Name>delta D1</Name>
   <Name>delta</Name>
   <Name>Overflow</Name>
   <Name>CT12133</Name>
   <Name>l(3)05151</Name>
   <Name>l(3)92Ab</Name>
   <Name>l(3)j8C3</Name>
   <Name>Complementation group 1</Name>
  </Synonyms>
  <Date>20 Aug 04</Date>
 </BASIC_INFORMATION>
 <LOCATION>
  <Chromosome>3R</Chromosome>
  <Genome_map>complement(15128470..15151952)</Genome_map>
  <Map type="cytogenetic">92A1--2</Map>
  <Scaffold>AE003725</Scaffold>
 </LOCATION>
 <GENE_PRODUCT>
  <Transcripts>
   <Transcript id="FBtr0083740">
    Dl-RB
    <Polypeptide id="FBpp0083154">Dl-PB (833 aa)</Polypeptide>
   </Transcript>
   <Transcript id="FBtr0083739">
    Dl-RA
    <Polypeptide id="FBpp0083153">Dl-PA (833 aa)</Polypeptide>
   </Transcript>
  </Transcripts>
 </GENE_PRODUCT>
 <GENE_ONTOLOGY>
  <Molecular_function>
   <goterm id="GO:0005102">
    receptor binding
    <goevidence>
     non-traceable author statement
    </goevidence>
   </goterm>
   <goterm id="GO:0005112">
    Notch binding
    <goevidence>
     non-traceable author statement
    </goevidence>
   </goterm>
   <goterm id="GO:0005112">
    Notch binding
    <goevidence>
     inferred from direct assay
    </goevidence>
   </goterm>
   <goterm id="GO:0005112">
    Notch binding
    <goevidence>
     traceable author statement
    </goevidence>
   </goterm>
   <goterm id="GO:0004871">
    signal transducer activity
    <goevidence>
     traceable author statement
    </goevidence>
   </goterm>
   <goterm id="GO:0005102">receptor binding</goterm>
   <goterm id="GO:0005112">Notch binding</goterm>
   <goterm id="GO:0004871">signal transducer activity</goterm>
  </Molecular_function>
  <Biological_process>
   <goterm id="GO:0007219">Notch signaling pathway</goterm>
   <goterm id="GO:0007464">R3/R4 cell fate commitment</goterm>
   <goterm id="GO:0045465">R8 differentiation</goterm>
   <goterm id="GO:0007469">antennal morphogenesis</goterm>
   <goterm id="GO:0008356">asymmetric cytokinesis</goterm>
   <goterm id="GO:0007155">cell adhesion</goterm>
   <goterm id="GO:0001708">cell fate specification</goterm>
   <goterm id="GO:0008283">cell proliferation</goterm>
   <goterm id="GO:0016337">cell-cell adhesion</goterm>
   <goterm id="GO:0007417">central nervous system development</goterm>
   <goterm id="GO:0007466">cone cell fate commitment (sensu Drosophila)</goterm>
   <goterm id="GO:0007451">dorsal/ventral lineage restriction, imaginal disc</goterm>
   <goterm id="GO:0007398">ectoderm development</goterm>
   <goterm id="GO:0042067">establishment of ommatidial polarity (sensu Drosophila)</goterm>
   <goterm id="GO:0001736">establishment of planar polarity</goterm>
   <goterm id="GO:0007456">eye morphogenesis (sensu Drosophila)</goterm>
   <goterm id="GO:0046331">lateral inhibition</goterm>
   <goterm id="GO:0007480">leg morphogenesis (sensu Holometabola)</goterm>
   <goterm id="GO:0007498">mesoderm development</goterm>
   <goterm id="GO:0035157">negative regulation of fusion cell fate specification</goterm>
   <goterm id="GO:0035155">negative regulation of terminal cell fate specification</goterm>
   <goterm id="GO:0007399">neurogenesis</goterm>
   <goterm id="GO:0016318">ommatidial rotation</goterm>
   <goterm id="GO:0007314">oocyte anterior/posterior axis determination</goterm>
   <goterm id="GO:0009993">oogenesis (sensu Insecta)</goterm>
   <goterm id="GO:0030707">ovarian follicle cell development (sensu Insecta)</goterm>
   <goterm id="GO:0007422">peripheral nervous system development</goterm>
   <goterm id="GO:0045468">regulation of R8 spacing</goterm>
   <goterm id="GO:0007461">restriction of R8 fate</goterm>
   <goterm id="GO:0046667">retinal programmed cell death (sensu Drosophila)</goterm>
   <goterm id="GO:0007424">tracheal system development (sensu Insecta)</goterm>
   <goterm id="GO:0007419">ventral cord development</goterm>
   <goterm id="GO:0007474">wing vein specification</goterm>
  </Biological_process>
  <Cellular_component>
   <goterm id="GO:0016021">integral to membrane</goterm>
   <goterm id="GO:0005886">plasma membrane</goterm>
  </Cellular_component>
 </GENE_ONTOLOGY>
 <FUNCTION>
  <Expressions>
   <Expression type="dev_stage">
    embryo
    <Phenotype>neuroblast</Phenotype>
    <Phenotype>posterior embryonic/larval midgut</Phenotype>
    <Phenotype>hindgut primordium</Phenotype>
    <Phenotype>neurectoderm</Phenotype>
    <Phenotype>ectoderm</Phenotype>
    <Phenotype>ventral midline</Phenotype>
    <Phenotype>embryonic peripheral nervous system</Phenotype>
    <Phenotype>embryonic stomatogastric nervous system</Phenotype>
    <Phenotype>procephalic neurogenic region</Phenotype>
    <Phenotype>embryonic/larval tracheal system</Phenotype>
   </Expression>
   <Expression type="dev_stage">
    larva
    <Phenotype>photoreceptor cell R3</Phenotype>
   </Expression>
  </Expressions>
  <Protein_domains>
   <db_xref>IPR001774 == Delta serrate ligand</db_xref>
   <db_xref>IPR001881 == Calcium-binding EGF-like domain</db_xref>
   <db_xref>SCOP:57196 == EGF/Laminin; dl|FBgn0000462|pp-CT12133|FBan0003619</db_xref>
  </Protein_domains>
  <External_links>
   <db_xref>BDGPisx:Dl</db_xref>
   <db_xref>DEDB:9797</db_xref>
   <db_xref>FlyGRID:FBgn0000463</db_xref>
   <db_xref>Hybrigenics:521443</db_xref>
   <db_xref>IFly:../neural/delta.htm</db_xref>
   <db_xref>KWgx:FBgn0000463</db_xref>
   <db_xref>NCBI_GEO:FBgn0000463</db_xref>
  </External_links>
 </FUNCTION>
 <LITERATURE>
  <Reference>
   <ref>
    <Identifier>FBrf0158840</Identifier>
    <Creator>Skeath and Thor</Creator>
    <Date>2003</Date>
    <Source>Curr. Opin. Neurobiol. 13(1): 8--15</Source>
    <Title>Genetic control of Drosophila nerve cord development.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0158727</Identifier>
    <Creator>de Celis</Creator>
    <Date>2003</Date>
    <Source>BioEssays 25(5): 443--451</Source>
    <Title>Pattern formation in the Drosophila wing: the development of the veins.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0144824</Identifier>
    <Creator>Frankfort and Mardon</Creator>
    <Date>2002</Date>
    <Source>Development 129(6): 1295--1306</Source>
    <Title>R8 development in the Drosophila eye: a paradigm for neural selection and differentiation.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0156092</Identifier>
    <Creator>Galis et al.</Creator>
    <Date>2002</Date>
    <Source>Trends Genet. 18(10): 504--509</Source>
    <Title>Conservation of the segmented germband stage: robustness or pleiotropy?</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0147184</Identifier>
    <Creator>Gorski and Marra</Creator>
    <Date>2002</Date>
    <Source>Physiol. Genomics 9(2): 59--69</Source>
    <Title>Programmed cell death takes flight: genetic and genomic approaches to gene discovery in Drosophila.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0155573</Identifier>
    <Creator>Haltiwanger and Stanley</Creator>
    <Date>2002</Date>
    <Source>Biochim. biophys. Acta 1573(3): 328--335</Source>
    <Title>Modulation of receptor signaling by glycosylation: fringe is an O-fucose-beta1,3-N-acetylglucosaminyltransferase.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0151530</Identifier>
    <Creator>Martinez Arias</Creator>
    <Date>2002</Date>
    <Source>Trends Genet. 18(4): 168--170</Source>
    <Title>New alleles of Notch draw a blueprint for multifunctionality.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0156094</Identifier>
    <Creator>Mlodzik</Creator>
    <Date>2002</Date>
    <Source>Trends Genet. 18(11): 564--571</Source>
    <Title>Planar cell polarization: do the same mechanisms regulate Drosophila tissue polarity and vertebrate gastrulation?</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0151324</Identifier>
    <Creator>Seto et al.</Creator>
    <Date>2002</Date>
    <Source>Genes Dev. 16(11): 1314--1336</Source>
    <Title>When cell biology meets development: endocytic regulation of signaling pathways.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0151490</Identifier>
    <Creator>Stewart</Creator>
    <Date>2002</Date>
    <Source>Semin. Cell Dev. Biol. 13(2): 91--97</Source>
    <Title>Membrane trafficking in Drosophila wing and eye development.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0149002</Identifier>
    <Creator>Van Aelst and Symons</Creator>
    <Date>2002</Date>
    <Source>Genes Dev. 16(9): 1032--1054</Source>
    <Title>Role of Rho family GTPases in epithelial morphogenesis.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
 </LITERATURE>
 <SUMMARY>
  <text>
   The D. melanogaster gene Delta, abbreviated as Dl, is reported here. It encodes a product with Notch binding involved in mesoderm development which is a component of the integral to membrane; it is expressed in the embryo (amnioproctodeal invagination, antenno-maxillary complex, anterior embryonic/larval midgut, anterior midgut primordium and 32 other listed tissues), larva (antennal disc, cone cell, eye disc, glial cell and 14 other listed tissues), ovary (centripetally migrating follicle cell, follicle cell, germarium region 1 to 3, nurse cell and oocyte) and prepupa and pupa (macrochaetae, microchaetae, proneural cluster, sensillum campaniformium and 4 other listed tissues). It has been sequenced and its amino acid sequence contains a delta serrate ligand and a calcium-binding EGF-like domain. It has been mapped by recombination to 3-66.2 and cytologically to 92A1--2. It interacts genetically with H, Su(H), Ser, Egfr, ed and 74 other listed genes. There are 350 recorded alleles: 40 in vitro constructs (3 available from the public stock centers), 309 classical mutants (17 available from the public stock centers) and 1 wild-type. Amorphic mutations have been isolated which affect the embryonic epidermis, the wing, the eye and 10 other listed tissues and are embryonic neurogenic recessive lethal, somatic clone cell lethal, visible and (with DlRF) visible. Dl is discussed in 837 references (excluding sequence accessions), dated between 1923 and 2004. These include at least 126 studies of mutant phenotypes, 9 studies of wild-type function, 3 studies of natural polymorphisms and 22 molecular studies. Among findings on Dl mutants, mutation in Dl affects sensory organ precursor formation. Among findings on Dl function, Dl has a role in leg and antennal segmentation.
  </text>
 </SUMMARY>
</GeneSummary>
<!-- docurl="flybase-ugp.xml,1128361-1143037" -->


<GeneSummary id="FlyBase:FBgn0000490">
 <Title>FlyBase Gene: dpp</Title>
 <Source>FlyBase</Source>
 <Type>Gene Summary</Type>
 <BASIC_INFORMATION>
  <GeneID>FBgn0000490</GeneID>
  <Symbol>dpp</Symbol>
  <Full_name>decapentaplegic</Full_name>
  <Species id="taxon:7227">Drosophila melanogaster</Species>
  <Synonyms>
   <Name>CG9885</Name>
   <Name>CG9885</Name>
   <Name>ho: heldout</Name>
   <Name>M(2)LS1</Name>
   <Name>shv</Name>
   <Name>l(2)22Fa</Name>
   <Name>Dpp</Name>
   <Name>DPP</Name>
   <Name>TGF-&amp;bgr;</Name>
   <Name>l(2)10638</Name>
   <Name>l(2)k17036</Name>
   <Name>TGF-b</Name>
   <Name>shortvein</Name>
   <Name>Dm-DPP</Name>
   <Name>TGF-beta</Name>
   <Name>TGF&amp;bgr;</Name>
   <Name>DPP-C</Name>
   <Name>Hin-d: Haplo-insufficient</Name>
   <Name>M(2)23AB</Name>
   <Name>Tg: Tegula</Name>
   <Name>blk: blink</Name>
   <Name>blink</Name>
   <Name>Haplo-insufficient</Name>
   <Name>Tegula</Name>
   <Name>heldout</Name>
   <Name>ho</Name>
  </Synonyms>
  <Date>20 Aug 04</Date>
 </BASIC_INFORMATION>
 <LOCATION>
  <Chromosome>2L</Chromosome>
  <Genome_map>2421021..2452176</Genome_map>
  <Map type="cytogenetic">22F1--3</Map>
  <Scaffold>AE003583</Scaffold>
 </LOCATION>
 <GENE_PRODUCT>
  <Transcripts>
   <Transcript id="FBtr0077774">
    dpp-RD
    <Polypeptide id="FBpp0077454">dpp-PD (588 aa)</Polypeptide>
   </Transcript>
   <Transcript id="FBtr0077773">
    dpp-RC
    <Polypeptide id="FBpp0077453">dpp-PC (588 aa)</Polypeptide>
   </Transcript>
   <Transcript id="FBtr0077775">
    dpp-RE
    <Polypeptide id="FBpp0077455">dpp-PE (588 aa)</Polypeptide>
   </Transcript>
   <Transcript id="FBtr0077771">
    dpp-RA
    <Polypeptide id="FBpp0077451">dpp-PA (588 aa)</Polypeptide>
   </Transcript>
   <Transcript id="FBtr0077772">
    dpp-RB
    <Polypeptide id="FBpp0077452">dpp-PB (588 aa)</Polypeptide>
   </Transcript>
  </Transcripts>
 </GENE_PRODUCT>
 <GENE_ONTOLOGY>
  <Molecular_function>
   <goterm id="GO:0004871">
    signal transducer activity
    <goevidence>
     traceable author statement
    </goevidence>
   </goterm>
   <goterm id="GO:0016015">
    morphogen activity
    <goevidence>
     traceable author statement
    </goevidence>
   </goterm>
   <goterm id="GO:0016015">
    morphogen activity
    <goevidence>
     non-traceable author statement
    </goevidence>
   </goterm>
   <goterm id="GO:0005160">
    transforming growth factor beta receptor binding
    <goevidence>
     non-traceable author statement
    </goevidence>
   </goterm>
   <goterm id="GO:0005160">
    transforming growth factor beta receptor binding
    <goevidence>
     inferred from sequence similarity with MGD:Bmp4; MGI:MGI:88180
    </goevidence>
   </goterm>
   <goterm id="GO:0016015">morphogen activity</goterm>
   <goterm id="GO:0004871">signal transducer activity</goterm>
   <goterm id="GO:0005160">transforming growth factor beta receptor binding</goterm>
  </Molecular_function>
  <Biological_process>
   <goterm id="GO:0030509">BMP signaling pathway</goterm>
   <goterm id="GO:0007378">amnioserosa formation</goterm>
   <goterm id="GO:0009948">anterior/posterior axis specification</goterm>
   <goterm id="GO:0007448">anterior/posterior pattern formation, imaginal disc</goterm>
   <goterm id="GO:0046845">branch cell fate determination (sensu Insecta)</goterm>
   <goterm id="GO:0001709">cell fate determination</goterm>
   <goterm id="GO:0001708">cell fate specification</goterm>
   <goterm id="GO:0007267">cell-cell signaling</goterm>
   <goterm id="GO:0001745">compound eye morphogenesis (sensu Drosophila)</goterm>
   <goterm id="GO:0007391">dorsal closure</goterm>
   <goterm id="GO:0007393">dorsal closure, leading edge cell fate determination</goterm>
   <goterm id="GO:0009950">dorsal/ventral axis specification</goterm>
   <goterm id="GO:0007450">dorsal/ventral pattern formation, imaginal disc</goterm>
   <goterm id="GO:0001715">ectoderm cell fate specification</goterm>
   <goterm id="GO:0007398">ectoderm development</goterm>
   <goterm id="GO:0009795">embryonic morphogenesis</goterm>
   <goterm id="GO:0007440">foregut morphogenesis</goterm>
   <goterm id="GO:0035215">genital disc development</goterm>
   <goterm id="GO:0048131">germ-line stem cell division</goterm>
   <goterm id="GO:0042078">germ-line stem cell renewal</goterm>
   <goterm id="GO:0007507">heart development</goterm>
   <goterm id="GO:0007442">hindgut morphogenesis</goterm>
   <goterm id="GO:0007444">imaginal disc development</goterm>
   <goterm id="GO:0007446">imaginal disc growth</goterm>
   <goterm id="GO:0007447">imaginal disc pattern formation</goterm>
   <goterm id="GO:0002168">larval development (sensu Insecta)</goterm>
   <goterm id="GO:0007479">leg disc proximal/distal pattern formation</goterm>
   <goterm id="GO:0008285">negative regulation of cell proliferation</goterm>
   <goterm id="GO:0045705">negative regulation of salivary gland determination</goterm>
   <goterm id="GO:0045476">nurse cell apoptosis</goterm>
   <goterm id="GO:0009993">oogenesis (sensu Insecta)</goterm>
   <goterm id="GO:0030707">ovarian follicle cell development (sensu Insecta)</goterm>
   <goterm id="GO:0048066">pigmentation</goterm>
   <goterm id="GO:0007458">progression of morphogenetic furrow (sensu Drosophila)</goterm>
   <goterm id="GO:0042127">regulation of cell proliferation</goterm>
   <goterm id="GO:0046620">regulation of organ size</goterm>
   <goterm id="GO:0035158">regulation of tracheal tube diameter</goterm>
   <goterm id="GO:0019827">stem cell maintenance</goterm>
   <goterm id="GO:0017145">stem cell renewal</goterm>
   <goterm id="GO:0035147">tracheal branch fusion</goterm>
   <goterm id="GO:0007425">tracheal cell fate determination (sensu Insecta)</goterm>
   <goterm id="GO:0007427">tracheal cell migration (sensu Insecta)</goterm>
   <goterm id="GO:0007424">tracheal system development (sensu Insecta)</goterm>
   <goterm id="GO:0007179">transforming growth factor beta receptor signaling pathway</goterm>
   <goterm id="GO:0048100">wing disc anterior/posterior pattern formation</goterm>
   <goterm id="GO:0007473">wing disc proximal/distal pattern formation</goterm>
   <goterm id="GO:0007476">wing morphogenesis</goterm>
   <goterm id="GO:0008586">wing vein morphogenesis</goterm>
   <goterm id="GO:0007474">wing vein specification</goterm>
   <goterm id="GO:0007354">zygotic determination of anterior/posterior axis, embryo</goterm>
   <goterm id="GO:0007352">zygotic determination of dorsal/ventral axis</goterm>
  </Biological_process>
  <Cellular_component>
   <goterm id="GO:0005576">extracellular</goterm>
   <goterm id="GO:0005615">extracellular space</goterm>
   <goterm id="GO:0005622">intracellular</goterm>
  </Cellular_component>
 </GENE_ONTOLOGY>
 <FUNCTION>
  <Expressions>
   <Expression type="dev_stage">
    embryo
    <Phenotype>
     parasegment 7
     &lt;of> visceral mesoderm
    </Phenotype>
    <Phenotype>embryonic/larval pharynx</Phenotype>
    <Phenotype>midgut constriction 3</Phenotype>
    <Phenotype>embryonic/larval hindgut</Phenotype>
    <Phenotype>cephalic segment</Phenotype>
    <Phenotype>thoracic segment</Phenotype>
    <Phenotype>
     visceral mesoderm
     &lt;of> parasegment 7
    </Phenotype>
   </Expression>
   <Expression type="dev_stage">
    larva
    <Phenotype>dorsal mesothoracic disc</Phenotype>
    <Phenotype>cephalic segment</Phenotype>
    <Phenotype>thoracic segment</Phenotype>
    <Phenotype>ventral thoracic disc</Phenotype>
   </Expression>
   <Expression type="dev_stage">
    prepupa
    <Phenotype>ventral thoracic disc</Phenotype>
    <Phenotype>dorsal mesothoracic disc</Phenotype>
   </Expression>
   <Expression type="dev_stage">
    pupa
    <Phenotype>wing vein</Phenotype>
   </Expression>
  </Expressions>
  <Protein_domains>
   <db_xref>
    IPR002405 == Inhibin
    &amp;agr; chain
   </db_xref>
   <db_xref>SCOP:57501 == Cystine-knot cytokines; dpp|FBgn0000490|pp-CT9505|FBan0009885</db_xref>
  </Protein_domains>
  <External_links>
   <db_xref>DEDB:5561</db_xref>
   <db_xref>FlyGRID:FBgn0000490</db_xref>
   <db_xref>Hybrigenics:522739</db_xref>
   <db_xref>IFly:../torstoll/decapen1.htm</db_xref>
   <db_xref>KWgx:FBgn0000490</db_xref>
   <db_xref>NCBI_GEO:FBgn0000490</db_xref>
  </External_links>
 </FUNCTION>
 <LITERATURE>
  <Reference>
   <ref>
    <Identifier>FBrf0159337</Identifier>
    <Creator>Abrams et al.</Creator>
    <Date>2003</Date>
    <Source>Trends Cell Biol. 13(5): 247--254</Source>
    <Title>Constructing an organ: the Drosophila salivary gland as a model for tube formation.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0158727</Identifier>
    <Creator>de Celis</Creator>
    <Date>2003</Date>
    <Source>BioEssays 25(5): 443--451</Source>
    <Title>Pattern formation in the Drosophila wing: the development of the veins.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0152334</Identifier>
    <Creator>Burtis</Creator>
    <Date>2002</Date>
    <Source>Science 297(5584): 1135--1136</Source>
    <Title>Doublesex in the middle.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0151319</Identifier>
    <Creator>Calleja et al.</Creator>
    <Date>2002</Date>
    <Source>Gene 292(1-2): 1--12</Source>
    <Title>How to pattern an epithelium: lessons from achaete-scute regulation on the notum of Drosophila.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0151249</Identifier>
    <Creator>Cripps and Olson</Creator>
    <Date>2002</Date>
    <Source>Dev. Biol. 246(1): 14--28</Source>
    <Title>Control of cardiac development by an evolutionarily conserved transcriptional network.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0145168</Identifier>
    <Creator>Curtiss et al.</Creator>
    <Date>2002</Date>
    <Source>Nature Cell Biol. 4(3): E48--E51</Source>
    <Title>Selector and signalling molecules cooperate in organ patterning.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0151731</Identifier>
    <Creator>Duncan</Creator>
    <Date>2002</Date>
    <Source>A. Rev. Genet. 36: 521--556</Source>
    <Title>Transvection effects in Drosophila.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0155987</Identifier>
    <Creator>Lin</Creator>
    <Date>2002</Date>
    <Source>Nature Rev. Genet. 3(12): 931--940</Source>
    <Title>The stem-cell niche theory: lessons from flies.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0151711</Identifier>
    <Creator>Mann and Casares</Creator>
    <Date>2002</Date>
    <Source>Nature 418(6899): 737--739</Source>
    <Title>Developmental biology: signalling legacies.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0151872</Identifier>
    <Creator>Martin and Wood</Creator>
    <Date>2002</Date>
    <Source>Curr. Opin. Cell Biol. 14(5): 569--574</Source>
    <Title>Epithelial fusions in the embryo.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0155572</Identifier>
    <Creator>Nakato and Kimata</Creator>
    <Date>2002</Date>
    <Source>Biochim. biophys. Acta 1573(3): 312--318</Source>
    <Title>Heparan sulfate fine structure and specificity of proteoglycan functions.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0151324</Identifier>
    <Creator>Seto et al.</Creator>
    <Date>2002</Date>
    <Source>Genes Dev. 16(11): 1314--1336</Source>
    <Title>When cell biology meets development: endocytic regulation of signaling pathways.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0151490</Identifier>
    <Creator>Stewart</Creator>
    <Date>2002</Date>
    <Source>Semin. Cell Dev. Biol. 13(2): 91--97</Source>
    <Title>Membrane trafficking in Drosophila wing and eye development.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0149002</Identifier>
    <Creator>Van Aelst and Symons</Creator>
    <Date>2002</Date>
    <Source>Genes Dev. 16(9): 1032--1054</Source>
    <Title>Role of Rho family GTPases in epithelial morphogenesis.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0155675</Identifier>
    <Creator>Vincent and Dubois</Creator>
    <Date>2002</Date>
    <Source>Dev. Cell 3(5): 615--623</Source>
    <Title>Morphogen transport along epithelia, an integrated trafficking problem.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
 </LITERATURE>
 <SUMMARY>
  <text>
   The D. melanogaster gene decapentaplegic, abbreviated as dpp, is reported here. It encodes a product with transforming growth factor beta receptor binding involved in hindgut morphogenesis which is a component of the extracellular space; it is expressed in the embryo (cephalic segment, embryonic brain, embryonic/larval foregut, embryonic/larval hindgut and 8 other listed tissues), larva (dorsal mesothoracic disc, eye-antennal disc, female genital disc, imaginal disc anlagen and 5 other listed tissues) and prepupa and pupa (wing vein, eye-antennal disc, leg disc, wing disc and wing vein). It has been sequenced and its amino acid sequence contains an inhibin
   &amp;agr; chain. It has been mapped by recombination to 2-4.0 and cytologically to 22F1--3. It interacts genetically with tkv, Mad, Med, ptc, tld and 73 other listed genes. There are 256 recorded alleles: 49 in vitro constructs (2 available from the public stock centers), 206 classical mutants (15 available from the public stock centers) and 1 wild-type. Mutations have been isolated which affect the embryonic dorsal epidermis and the amnioserosa and are embryonic dominant lethal. dpp is discussed in 1543 references (excluding sequence accessions), dated between 1937 and 2004. These include at least 106 studies of mutant phenotypes, 79 studies of wild-type function, 3 studies of natural polymorphisms and 108 molecular studies. Among findings on dpp mutants, allelic complementation at dpp is demonstrated to be a transvection effect, structural heterozygosity disrupts complementation. Among findings on dpp function, wing and eye disc peripodial cell survival hinges upon dpp signal reception. (However, there is much more information on function so that may not be representative.)
  </text>
 </SUMMARY>
</GeneSummary>
<!-- docurl="flybase-ugp.xml,12951986-12960875" -->


<GeneSummary id="FlyBase:FBgn0013984">
 <Title>FlyBase Gene: InR</Title>
 <Source>FlyBase</Source>
 <Type>Gene Summary</Type>
 <BASIC_INFORMATION>
  <GeneID>FBgn0013984</GeneID>
  <Symbol>InR</Symbol>
  <Full_name>Insulin-like receptor</Full_name>
  <Species id="taxon:7227">Drosophila melanogaster</Species>
  <Synonyms>
   <Name>CG18402</Name>
   <Name>CG18402</Name>
   <Name>er10</Name>
   <Name>DILR</Name>
   <Name>dir</Name>
   <Name>DIRH</Name>
   <Name>dIRH</Name>
   <Name>dInsR</Name>
   <Name>IR</Name>
   <Name>DIR</Name>
   <Name>DIHR</Name>
   <Name>DIR&amp;bgr;</Name>
   <Name>dIR</Name>
   <Name>inr</Name>
   <Name>Inr</Name>
   <Name>l(3)05545</Name>
   <Name>DInr</Name>
   <Name>INR</Name>
   <Name>insulin receptor</Name>
   <Name>dinr</Name>
   <Name>dInr</Name>
   <Name>insulin/insulin-like growth factor receptor</Name>
   <Name>dInR</Name>
   <Name>DInR</Name>
   <Name>Dir-a</Name>
   <Name>Dir-b</Name>
   <Name>Inr-&amp;agr;</Name>
   <Name>Inr-&amp;bgr;</Name>
   <Name>l(3)93Dj</Name>
   <Name>l(3)er10</Name>
   <Name>lethal(3)93Dj</Name>
   <Name>insulin receptor homolog</Name>
  </Synonyms>
  <Date>20 Aug 04</Date>
 </BASIC_INFORMATION>
 <LOCATION>
  <Chromosome>3R</Chromosome>
  <Genome_map>complement(17389185..17397215)</Genome_map>
  <Map type="cytogenetic">93E4</Map>
  <Scaffold>AE003735</Scaffold>
 </LOCATION>
 <GENE_PRODUCT>
  <Transcripts>
   <Transcript id="FBtr0084121">
    InR-RA
    <Polypeptide id="FBpp0083519">InR-PA (2144 aa)</Polypeptide>
   </Transcript>
  </Transcripts>
 </GENE_PRODUCT>
 <GENE_ONTOLOGY>
  <Molecular_function>
   <goterm id="GO:0005520">
    insulin-like growth factor binding
    <goevidence>
     non-traceable author statement
    </goevidence>
   </goterm>
   <goterm id="GO:0005009">
    insulin receptor activity
    <goevidence>
     inferred from direct assay
    </goevidence>
   </goterm>
   <goterm id="GO:0005009">
    insulin receptor activity
    <goevidence>
     inferred from sequence similarity
    </goevidence>
   </goterm>
   <goterm id="GO:0004713">
    protein-tyrosine kinase activity ;  ; EC:2.7.1.112
    <goevidence>
     non-traceable author statement
    </goevidence>
   </goterm>
   <goterm id="GO:0004713">protein-tyrosine kinase activity ;  ; EC:2.7.1.112</goterm>
   <goterm id="GO:0005009">insulin receptor activity</goterm>
   <goterm id="GO:0005520">insulin-like growth factor binding</goterm>
   <goterm id="GO:0005009">
    insulin receptor activity
    <goevidence>
     inferred from sequence similarity with UniProt:P06213
    </goevidence>
   </goterm>
  </Molecular_function>
  <Biological_process>
   <goterm id="GO:0007568">aging</goterm>
   <goterm id="GO:0046777">autophosphorylation</goterm>
   <goterm id="GO:0007411">axon guidance</goterm>
   <goterm id="GO:0016049">cell growth</goterm>
   <goterm id="GO:0008340">determination of adult life span</goterm>
   <goterm id="GO:0007391">dorsal closure</goterm>
   <goterm id="GO:0001700">embryonic development (sensu Insecta)</goterm>
   <goterm id="GO:0007390">germ-band shortening</goterm>
   <goterm id="GO:0040007">growth</goterm>
   <goterm id="GO:0008286">insulin receptor signaling pathway</goterm>
   <goterm id="GO:0040018">positive regulation of body size</goterm>
   <goterm id="GO:0030307">positive regulation of cell growth</goterm>
   <goterm id="GO:0008284">positive regulation of cell proliferation</goterm>
   <goterm id="GO:0045793">positive regulation of cell size</goterm>
   <goterm id="GO:0046622">positive regulation of organ size</goterm>
   <goterm id="GO:0006468">protein amino acid phosphorylation</goterm>
   <goterm id="GO:0040014">regulation of body size</goterm>
   <goterm id="GO:0008361">regulation of cell size</goterm>
   <goterm id="GO:0046620">regulation of organ size</goterm>
   <goterm id="GO:0007584">response to nutrients</goterm>
   <goterm id="GO:0007296">vitellogenesis</goterm>
  </Biological_process>
  <Cellular_component>
   <goterm id="GO:0005899">insulin receptor complex</goterm>
   <goterm id="GO:0005887">integral to plasma membrane</goterm>
   <goterm id="GO:0005911">intercellular junction</goterm>
   <goterm id="GO:0005886">plasma membrane</goterm>
  </Cellular_component>
 </GENE_ONTOLOGY>
 <FUNCTION>
  <Expressions>
  </Expressions>
  <Protein_domains>
   <db_xref>IPR000494 == Epidermal  growth-factor receptor (EGFR), L domain</db_xref>
   <db_xref>IPR000719 == Eukaryotic protein kinase</db_xref>
   <db_xref>IPR001245 == Tyrosine kinase catalytic domain</db_xref>
   <db_xref>IPR002011 == Receptor tyrosine kinase class II</db_xref>
   <db_xref>IPR002174 == Furin-like cysteine rich region</db_xref>
   <db_xref>SCOP:49265 == Fibronectin type III; InR|FBgn0013984|pp-CT19952|FBan0018402</db_xref>
   <db_xref>SCOP:52058 == L domain-like; InR|FBgn0013984|pp-CT19952|FBan0018402</db_xref>
   <db_xref>SCOP:56112 == Protein kinase-like (PK-like); InR|FBgn0013984|pp-CT19952|FBan0018402</db_xref>
   <db_xref>SCOP:57184 == IGF binding domain; InR|FBgn0013984|pp-CT19952|FBan0018402</db_xref>
  </Protein_domains>
  <External_links>
   <db_xref>DEDB:10062</db_xref>
   <db_xref>FlyGRID:FBgn0013984</db_xref>
   <db_xref>Hybrigenics:522048</db_xref>
   <db_xref>NCBI_GEO:FBgn0013984</db_xref>
  </External_links>
 </FUNCTION>
 <LITERATURE>
  <Reference>
   <ref>
    <Identifier>FBrf0159325</Identifier>
    <Creator>Dickson</Creator>
    <Date>2003</Date>
    <Source>Science 300(5618): 440--441</Source>
    <Title>Development. Wiring the brain with insulin.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0155558</Identifier>
    <Creator>Helfand and Rogina</Creator>
    <Date>2003</Date>
    <Source>BioEssays 25(2): 134--141</Source>
    <Title>Molecular genetics of aging in the fly: is this the end of the beginning?</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0157213</Identifier>
    <Creator>Longo</Creator>
    <Date>2003</Date>
    <Source>Science 299(5611): 1342--1346</Source>
    <Title>[title not yet available]</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0156084</Identifier>
    <Creator>Oldham and Hafen</Creator>
    <Date>2003</Date>
    <Source>Trends Cell Biol. 13(2): 79--85</Source>
    <Title>Insulin/IGF and target of rapamycin signaling: a TOR de force in growth control.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0159736</Identifier>
    <Creator>Saucedo</Creator>
    <Date>2003</Date>
    <Source>Curr. Opin. Genet. Dev. 12(5): 565--571</Source>
    <Title>[title not yet available]</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
  <Reference>
   <ref>
    <Identifier>FBrf0157214</Identifier>
    <Creator>Tatar et al.</Creator>
    <Date>2003</Date>
    <Source>Science 299(5611): 1346--1351</Source>
    <Title>The endocrine regulation of aging by insulin-like signals.</Title>
    <Type>Review</Type>
   </ref>
  </Reference>
 </LITERATURE>
 <SUMMARY>
  <text>
   The D. melanogaster gene Insulin-like receptor, abbreviated as InR, is reported here. It has also been known in FlyBase as l(3)93Dj. It encodes a product with insulin receptor activity involved in insulin receptor signaling pathway which is a component of the intercellular junction; it is expressed in the embryo (embryonic/larval hindgut, epidermis, neuroblast, posterior midgut primordium and 2 other listed tissues). It has been sequenced and its amino acid sequence contains an epidermal  growth-factor receptor (EGFR), L domain, an eukaryotic protein kinase, a tyrosine kinase catalytic domain, a receptor tyrosine kinase class II and a furin-like cysteine rich region. It has been mapped cytologically to 93E4. It interacts genetically with chico, peb, Pten, Ilp2, Pk61C and 3 other listed genes. There are 49 recorded alleles: 14 in vitro constructs (none available from the public stock centers), 34 classical mutants (1 available from the public stock centers) and 1 wild-type. Hypomorphic mutations have been isolated which affect the longitudinal connective, the commissure, the fascicle and 2 other listed tissues and are embryonic recessive lethal, recessive somatic clone visible, dominant long lived, (with InRE19) small body, (with InRE19) developmental rate defective, (with InRE19) long lived, (with InRE19) female sterile, partially (with InRE19) male sterile and (with InR353) lethal. InR is discussed in 121 references (excluding sequence accessions), dated between 1984 and 2004. These include at least 12 studies of mutant phenotypes, 6 studies of wild-type function and 14 molecular studies. Among findings on InR function, InR is required for photoreceptor cell axons to find their way from the retina to the brain during development of the visual system.
  </text>
 </SUMMARY>
</GeneSummary></GeneSummaries>
