A Database of Drosophila Genes & Genomes

FB2012_01, released January 20th, 2012
 

Gene Dmel\arm

General Information
SymbolDmel\armSpeciesD. melanogaster
NamearmadilloAnnotation symbolCG11579
Feature typeprotein_coding_geneFlyBase IDFBgn0000117
Gene Model StatusCurrent Stock availability 36 publicly available
Also Known Asβ-cat, EG:86E4.6, βcat
Genomic Location
Chromosome (arm)XRecombination map1-1.2
Cytogenetic map2B14-2B14Sequence locationX:1,785,434..1,794,673 [-]

Genomic Maps

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Automatically generated summary

See sections below for more information
The gene armadillo is referred to in FlyBase by the symbol Dmel\arm (CG11579, FBgn0000117). It is a protein_coding_gene from Drosophila melanogaster. There is experimental evidence that it has the molecular function: protein binding; RNA polymerase II transcription coactivator activity; kinase binding; transcription coactivator activity. There is experimental evidence for 28 unique biological process terms, many of which group under: anatomical structure development; biological regulation; cellular component organization or biogenesis; regulation of developmental process; regulation of cellular macromolecule biosynthetic process; sensory organ development; cell adhesion; organ morphogenesis; open tracheal system development; multicellular organismal reproductive process; growth; cell fate determination; larval chitin-based cuticle development; epithelial cell type specification, open tracheal system. 184 alleles are reported. The phenotypes of these alleles are annotated with: organ system; organ system subdivision; adult segment; abdominal ventral denticle belt; female germline cyst; primordium; embryonic/larval neuron; external compound sense organ; nervous system; embryonic/larval tracheal system. It has 5 annotated transcripts and 5 annotated polypeptides. Protein features are: Armadillo; Armadillo-like helical; Armadillo-type fold; Beta-catenin. Summary of modENCODE Temporal Expression Profile: Temporal profile ranges from a peak of very high expression to a trough of moderately high expression. Peak expression observed at stages throughout embryogenesis, during late larval stages, at stages throughout the pupal period, in adult female stages. Summary of FlyAtlas Anatomical Expression Data: High or moderate levels of expression observed in all larval and adult organs/tissues. Expression at high levels in the following post-embryonic organs or tissues: adult head, adult eye, larval/adult central nervous system, adult crop, larval/adult midgut, larval/adult hindgut, larval/adult Malpighian tubules, adult heart, larval fat body, larval/adult salivary gland, larval trachea, adult ovary, adult male accessory gland, larval/adult carcass. Expression at moderate levels in the following post-embryonic organs or tissues: adult fat body, adult spermathecae, adult testis. Comments on Affy2 ProbeSet: ProbeSet 1629020_s_at completely aligns to an exonic region common to each of the 5 FlyBase-annotated transcript isoforms of arm. Gene sequence location is X:1785434..1794673.

External Summaries
hide Phenotypic Description from the Red Book (Lindsley & Zimm 1992)
Gene/Allele symbols may differ from current usage
arm: armadillo
Homozygous lethal; embryonic segmentation defective by time of germ-band shortening; naked cuticle ordinarily comprising the posterior two thirds of each segment replaced by mirror-image duplication of the anteriorly situated denticle belt; strong alleles delete first denticle row in abdominal segments. May have dorsal hole in cuticle. Embryonic CNS development quasi normal (Patel, Schafer, Goodman, and Holmgren, 1989, Genes Dev. 3: 890-904). Autonomous at the level of single cells as shown by denticulate clones of homozygous cells in the naked cuticle of abdominal segments in arm/+ embryos (Wieschaus and Riggleman, 1987, Cell 49: 177-84). Clones of homozygous female germ cells arrested at stage 10 of oogenesis (Wieschaus and Noell, 1986, Wilhelm Roux's Arch. Dev. Biol. 195: 63-73). An exception is arm8 for which progeny from homozygous germ-line clones have been recovered (Klingsmith et al.). Cell lethal in imaginal discs; although clones of homozygous cells not observed in adults, their formation seems to engender mirror-image duplications, which are not seen in response to homozygosing other cuticular cell lethals (Wieschaus). Transcript found with minor fluctuations in amount, in all cell types at all stages in development (Riggleman, Wieschaus, and Schedl, 1989, Genes Dev. 3: 96-113).
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Description
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What does this section not display?
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FB2011_10
References
FB2012_01
Controlled Vocabulary Terms
References
Sequence features
All updates Click here to see a list of all updates to this record from FB2010_08 and on.
hide Detailed Mapping Data
FlyBase Computed Cytological Location
Cytogenetic map
Evidence for location
2B14-2B14  
Limits computationally determined from genome sequence between P{EP}EP1444&P{EP}CG14818EP1190 and P{EP}CG3600EP1232  
Experimentally Determined Cytological Location
Cytogenetic map
Notes
References
2B-2B  
(determined by in situ hybridisation) 2B7--10 (determined by in situ hybridisation) 2B1--14 (determined by in situ hybridisation) 2B13--18 (determined by in situ hybridisation)  
2B15-2B15  
2B-2B  
(determined by in situ hybridisation)  
2B7-2B10  
(determined by in situ hybridisation)  
2B15-2B15  
(determined by in situ hybridisation)  
Experimentally Determined Recombination Data
Location
Left of (cM)
Right of (cM)
Notes
hide Gene Model & Products
Please see the GBrowse view of Dmel\arm for information on other features
To submit a correction to a gene model please use the Contact FlyBase form
detailed view FBtr0070363 FBtr0070362 FBtr0070314 FBtr0089990 FBtr0089989 FBtr0089988 FBtr0089991 FBtr0089992 FBtr0100306 FBtr0070356 FBtr0070355 FBpp0070346 FBpp0070347 FBpp0070301 FBpp0089035 FBpp0089031 FBpp0089033 FBpp0089032 FBpp0089034 FBpp0099710 FBpp0070341 FBpp0070340 FBti0013125 FBti0041839 FBti0014260 FBti0014258 FBti0014259 FBti0057691 FBti0015679 FBti0015532 FBti0029441 FBti0143902 FBti0070831 FBti0013431 FBti0071691 FBti0018169 FBti0041247
Comments on Gene Model
Alternative translation stop created by use of multiphasic reading frames within coding region.
Variable use of small exon; supported combination results in frameshift and premature stop in downstream exon.
hide Transcript Data
Annotated Transcripts
Name
FlyBase ID
RefSeq ID
Length (nt)
Associated CDS (aa)
FBtr0089991
  3136
  843
FBtr0089989
  3220
  843
FBtr0089990
  3123
  721
FBtr0089992
  3121
  843
FBtr0089988
  3202
  843
Additional Transcript Data & Comments
Reported size (kB)
Comments
External Data
Crossreferences
hide Polypeptide Data
Annotated Polypeptides
Name
FlyBase ID
Predicted MW (kDa)
Length (aa)
Theoretical pI
RefSeq ID
GenBank protein
arm-PA  
FBpp0089034  
91.2  
843  
5.30  
arm-PB  
FBpp0089032  
91.2  
843  
5.30  
arm-PC  
FBpp0089033  
79.3  
721  
6.32  
arm-PD  
FBpp0089035  
91.2  
843  
5.30  
arm-PE  
FBpp0089031  
91.2  
843  
5.30  
Additional Polypeptide Data & Comments
Reported size (kDa)
843 (aa); 93 (kD)
721 (aa); 105-115, 82 (kD observed)
Comments
arm protein is phosphorylated on both serine or threonine and on tyrosine residues. The level of phosphorylation varies in different tissues and at different times of development. Phosphorylation of arm protein is negatively regulated by wg protein. sgg protein is required for arm protein phosphorylation.
The neural form of arm is phosphorylated on tyrosine residues. Only a small fraction of the protein appears to be tyrosine-phosphorylated.
Antibodies were generated against the carboxy-terminal 43 amino acids. The antibody does not recognize the shorter "neural" form of arm protein.
The majority of arm protein in vivo is part of a membrane-associated complex containing α-Cat and an unidentified glycoprotein.
Antibodies raised against arm protein recognize a single protein in canine (MDCK), mouse (3T3), African green monkey (COS-7), and Xenopus (A6) cultured cells. The cross-reacting proteins in A6 and MDCK cells were shown to be β-catenin.
External Data
Linkouts
Crossreferences
InterPro domains - A database of protein families, domains, and functional sites
Armadillo (IPR000225)
Beta-catenin (IPR013284)
Armadillo-type fold (IPR016024)
hide Sequences Consistent with the Gene Model
DDBJ /
EMBL /
GenBank
DNA sequence
Protein sequence
Name
 
 
UniProtKB/Swiss-Prot
UniProtKB/TrEMBL
hide Mapped Features
Mapped Features have been reorganized, please see this article for details.
Additional mapped features and mutations can be found on GBrowse or related reports.
Type
Symbol & Location
Additional Notes
References
hide External Data
Linkouts
Crossreferences
hide Expression Data
hideTranscript Expression
Additional Descriptive Data
Marker for
Subcellular Localization
CV Term
Notes
hidePolypeptide Expression
No Assay Recorded
Stage
Tissue/Position (including subcellular localization)
Reference
immunolocalization
Stage
Tissue/Position (including subcellular localization)
Reference
western blot
Stage
Tissue/Position (including subcellular localization)
Reference
Additional Descriptive Data
arm protein localizes to the apical surfaces of cells.
The localization of arm protein often parallels the location of adherens junctions.
The intracellular distribution of arm protein in imaginal discs, salivary glands and larval brain was described. In salivary glands, arm protein is concentrated at the junctions between cells and is punctate on the apical surface. It is uniformly distributed on the lateral surfaces. arm protein distribution is also polarized in imaginal discs where high levels are restricted to the apical side. In the embryonic CNS and larval brain, arm protein is enriched in fiber tracts and there is less in the cell bodies of neurons. In the eye disc, arm protein accumulates fairly uniformly on the membranes separating cells in the undifferentiated region. As the morphogenetic furrow passes, arm expression appears to increase. Strong protein accumulation is seen in a star-shaped pattern on membranes where cells in the precluster abut one another but not at junctions with undifferentiated cells. arm protein often colocalizes with actin.
arm protein localizes to junctions resembling vertebrate adherens junctions.
Protein is detected in lateral membrane of the cellularizing embryo and is not detected apically.
arm protein expression was studied during oogenesis. arm protein is asymmetrically localized within follicle cells. Within each follicle cell, it accumulates heavily on the lateral cell surface near the apical end abutting the germ cells. It is less abundant on the rest of the follicle cell-follicle cell interface. Staining is the heaviest in a band around the follicle cell near the interface between the lateral and apical surfaces. The majority of arm protein in the ovary is found in the follicle cells but it is also observed in n rse cells and in the oocyte. Accumulation is germ cells is first seen at the anterior tip of the germarium. Similar intense staining is seen at the anterior tip of the testis. As with follicle cells, arm protein accumulates near or at the cell surface of germ cells but is not concentrated at any one position along the cell-cell interface. Protein accumulation appears to be heaviest where the nurse cell-nurse cell junction abuts the overlying follicle cells. It also accumulates in the cortical region of the oocyte. arm protein accumulates differentially in different follicle cells. Polar ollicle cells show more intense arm staining.
arm protein is observed outlining clusters of male germline stem cells.
In stage 13 embryos,arm protein expression is detected on the cell membrane of both somatic germline precursor cells as well as the germline cells in both males and females. This localization is concurrent with the processes of ensheathment and coalescence of the developing gonad. In stage 17 male embryos, arm protein is concentrated in the anterior of the gonad in the region corresponding to the testes hub.
high levels of wg protein induce accumulation of arm protein in stripes of cells.
The 82kD "neural" form of arm protein is first detected on western blots in germ band retracted embryos. It is the predominant form in germ band retracted embryos and is abundant in adult head. The neural form of arm protein is detected by immunolocalization in the longitudinal and commissural tracts in the embryonic CNS and in motor neurons of the segmental and intersegmental nerves as they exit the CNS. It is also detected in the PNS. In the larval CNS, it accumulates along axon tracts.
Marker for
Subcellular Localization
CV Term
intercellular junction
cell-cell adherens junction
plasma membrane intercellular junction
plasma membrane | apical
Notes
hide High-Throughput Expression Data
or
Untitled Document detailed view mRpL16-RA arm-RC arm-RB arm-RE arm-RA arm-RD CG32803-RB CG32803-RA
See Gelbart and Emmert, 2010.10.13 for analysis details and data files for all genes.

modENCODE Temporal Expression Data for FBgn0000117


   Styles
Linear
Logarithmic
Heatmap
   Scales
max expr for FBgn0000117
Very low expression bin max
Moderate expression bin max
High expression bin max
Extremely high expression bin max

Summary of modENCODE Temporal Expression Profile: Temporal profile ranges from a peak of very high expression to a trough of moderately high expression. Peak expression observed at stages throughout embryogenesis, during late larval stages, at stages throughout the pupal period, in adult female stages.
[download data (TSV)]

Guide to modENCODE expression level colors
 
No expression (0 - 0)
 
Extremely low expression (1 - 10)
 
Very low expression (11 - 100)
 
Low expression (101 - 400)
 
Moderate expression (401 - 1400)
 
Moderately high expression (1401 - 4000)
 
High expression (4001 - 10000)
 
Very high expression (10001 - 100000)
 
Extremely high expression (100001 - 2000000)

Linear, scaled to maximum FBgn0000117 expression level
Developmental Stage   Expression Level
embryo 00-02hr
 
 18295
embryo 02-04hr
 
 38225
embryo 04-06hr
 
 59310
embryo 06-08hr
 
 55080
embryo 08-10hr
 
 40818
embryo 10-12hr
 
 43251
embryo 12-14hr
 
 27968
embryo 14-16hr
 
 28921
embryo 16-18hr
 
 19257
embryo 18-20hr
 
 14357
embryo 20-22hr
 
 13768
embryo 22-24hr
 
 12611
larva L1
 
 6536
larva L2
 
 5520
larva L3 12hr old
 
 3878
larva L3 puffstage 1-2
 
 5664
larva L3 puffstage 3-6
 
 8943
larva L3 puffstage 7-9
 
 11018
white prepupae new
 
 13501
white prepupae 12hr
 
 15084
white prepupae 24hr
 
 21768
pupae 2d postWPP
 
 17940
pupae 3d postWPP
 
 9914
pupae 4d postWPP
 
 5113
adult male 01day
 
 5035
adult male 05day
 
 5248
adult male 30day
 
 5178
adult female 01day
 
 8956
adult female 05day
 
 10120
adult female 30day
 
 10896
Expression Level Scale
 None 
 Extremely low 
 Very low 
 Low 
 Moderate 
 Moderately high 
 High 
 Very high 
Linear, scaled to Very low expression
Developmental Stage   Expression Level
embryo 00-02hr
 (18295)
embryo 02-04hr
 (38225)
embryo 04-06hr
 (59310)
embryo 06-08hr
 (55080)
embryo 08-10hr
 (40818)
embryo 10-12hr
 (43251)
embryo 12-14hr
 (27968)
embryo 14-16hr
 (28921)
embryo 16-18hr
 (19257)
embryo 18-20hr
 (14357)
embryo 20-22hr
 (13768)
embryo 22-24hr
 (12611)
larva L1
 (6536)
larva L2
 (5520)
larva L3 12hr old
 (3878)
larva L3 puffstage 1-2
 (5664)
larva L3 puffstage 3-6
 (8943)
larva L3 puffstage 7-9
 (11018)
white prepupae new
 (13501)
white prepupae 12hr
 (15084)
white prepupae 24hr
 (21768)
pupae 2d postWPP
 (17940)
pupae 3d postWPP
 (9914)
pupae 4d postWPP
 (5113)
adult male 01day
 (5035)
adult male 05day
 (5248)
adult male 30day
 (5178)
adult female 01day
 (8956)
adult female 05day
 (10120)
adult female 30day
 (10896)
Expression Level Scale
 None 
 Extremely low 
 Very low 
 Low 
Linear, scaled to Moderate expression
Developmental Stage   Expression Level
embryo 00-02hr
 (18295)
embryo 02-04hr
 (38225)
embryo 04-06hr
 (59310)
embryo 06-08hr
 (55080)
embryo 08-10hr
 (40818)
embryo 10-12hr
 (43251)
embryo 12-14hr
 (27968)
embryo 14-16hr
 (28921)
embryo 16-18hr
 (19257)
embryo 18-20hr
 (14357)
embryo 20-22hr
 (13768)
embryo 22-24hr
 (12611)
larva L1
 (6536)
larva L2
 (5520)
larva L3 12hr old
 (3878)
larva L3 puffstage 1-2
 (5664)
larva L3 puffstage 3-6
 (8943)
larva L3 puffstage 7-9
 (11018)
white prepupae new
 (13501)
white prepupae 12hr
 (15084)
white prepupae 24hr
 (21768)
pupae 2d postWPP
 (17940)
pupae 3d postWPP
 (9914)
pupae 4d postWPP
 (5113)
adult male 01day
 (5035)
adult male 05day
 (5248)
adult male 30day
 (5178)
adult female 01day
 (8956)
adult female 05day
 (10120)
adult female 30day
 (10896)
Expression Level Scale
 None 
 Extremely low 
 Very low 
 Low 
 Moderate 
 Moderately high 
Linear, scaled to High expression
Developmental Stage   Expression Level
embryo 00-02hr
 (18295)
embryo 02-04hr
 (38225)
embryo 04-06hr
 (59310)
embryo 06-08hr
 (55080)
embryo 08-10hr
 (40818)
embryo 10-12hr
 (43251)
embryo 12-14hr
 (27968)
embryo 14-16hr
 (28921)
embryo 16-18hr
 (19257)
embryo 18-20hr
 (14357)
embryo 20-22hr
 (13768)
embryo 22-24hr
 (12611)
larva L1
 
 6536
larva L2
 
 5520
larva L3 12hr old
 
 3878
larva L3 puffstage 1-2
 
 5664
larva L3 puffstage 3-6
 
 8943
larva L3 puffstage 7-9
 (11018)
white prepupae new
 (13501)
white prepupae 12hr
 (15084)
white prepupae 24hr
 (21768)
pupae 2d postWPP
 (17940)
pupae 3d postWPP
 
 9914
pupae 4d postWPP
 
 5113
adult male 01day
 
 5035
adult male 05day
 
 5248
adult male 30day
 
 5178
adult female 01day
 
 8956
adult female 05day
 10120
adult female 30day
 (10896)
Expression Level Scale
 None 
 Extremely low 
 Very low 
 Low 
 Moderate 
 Moderately high 
 High 
 Very high 
Linear, scaled to Extremely high expression
Developmental Stage   Expression Level
embryo 00-02hr
 
 18295
embryo 02-04hr
 
 38225
embryo 04-06hr
 
 59310
embryo 06-08hr
 
 55080
embryo 08-10hr
 
 40818
embryo 10-12hr
 
 43251
embryo 12-14hr
 
 27968
embryo 14-16hr
 
 28921
embryo 16-18hr
 
 19257
embryo 18-20hr
 
 14357
embryo 20-22hr
 
 13768
embryo 22-24hr
 
 12611
larva L1
 
 6536
larva L2
 
 5520
larva L3 12hr old
 
 3878
larva L3 puffstage 1-2
 
 5664
larva L3 puffstage 3-6
 
 8943
larva L3 puffstage 7-9
 
 11018
white prepupae new
 
 13501
white prepupae 12hr
 
 15084
white prepupae 24hr
 
 21768
pupae 2d postWPP
 
 17940
pupae 3d postWPP
 
 9914
pupae 4d postWPP
 
 5113
adult male 01day
 
 5035
adult male 05day
 
 5248
adult male 30day
 
 5178
adult female 01day
 
 8956
adult female 05day
 
 10120
adult female 30day
 
 10896
Expression Level Scale
 None 
 Extremely low 
 Very low 
 Low 
 Moderate 
 Moderately high 
 High 
 Very high 
 Extremely high 
log, scaled to maximum FBgn0000117 expression level
Developmental Stage   Expression Level
embryo 00-02hr
 
 18295
embryo 02-04hr
 
 38225
embryo 04-06hr
 
 59310
embryo 06-08hr
 
 55080
embryo 08-10hr
 
 40818
embryo 10-12hr
 
 43251
embryo 12-14hr
 
 27968
embryo 14-16hr
 
 28921
embryo 16-18hr
 
 19257
embryo 18-20hr
 
 14357
embryo 20-22hr
 
 13768
embryo 22-24hr
 
 12611
larva L1
 
 6536
larva L2
 
 5520
larva L3 12hr old
 
 3878
larva L3 puffstage 1-2
 
 5664
larva L3 puffstage 3-6
 
 8943
larva L3 puffstage 7-9
 
 11018
white prepupae new
 
 13501
white prepupae 12hr
 
 15084
white prepupae 24hr
 
 21768
pupae 2d postWPP
 
 17940
pupae 3d postWPP
 
 9914
pupae 4d postWPP
 
 5113
adult male 01day
 
 5035
adult male 05day
 
 5248
adult male 30day
 
 5178
adult female 01day
 
 8956
adult female 05day
 
 10120
adult female 30day
 
 10896
Expression Level Scale
 None 
 Extremely low 
 Very low 
 Low 
 Moderate 
 Moderately high 
 High 
 Very high 
 Extremely high 
log, scaled to Very low expression
Developmental Stage   Expression Level
embryo 00-02hr
 (18295)
embryo 02-04hr
 (38225)
embryo 04-06hr
 (59310)
embryo 06-08hr
 (55080)
embryo 08-10hr
 (40818)
embryo 10-12hr
 (43251)
embryo 12-14hr
 (27968)
embryo 14-16hr
 (28921)
embryo 16-18hr
 (19257)
embryo 18-20hr
 (14357)
embryo 20-22hr
 (13768)
embryo 22-24hr
 (12611)
larva L1
 (6536)
larva L2
 (5520)
larva L3 12hr old
 (3878)
larva L3 puffstage 1-2
 (5664)
larva L3 puffstage 3-6
 (8943)
larva L3 puffstage 7-9
 (11018)
white prepupae new
 (13501)
white prepupae 12hr
 (15084)
white prepupae 24hr
 (21768)
pupae 2d postWPP
 (17940)
pupae 3d postWPP
 (9914)
pupae 4d postWPP
 (5113)
adult male 01day
 (5035)
adult male 05day
 (5248)
adult male 30day
 (5178)
adult female 01day
 (8956)
adult female 05day
 (10120)
adult female 30day
 (10896)
Expression Level Scale
 None 
 Extremely low 
 Very low 
 Low 
log, scaled to Moderate expression
Developmental Stage   Expression Level
embryo 00-02hr
 (18295)
embryo 02-04hr
 (38225)
embryo 04-06hr
 (59310)
embryo 06-08hr
 (55080)
embryo 08-10hr
 (40818)
embryo 10-12hr
 (43251)
embryo 12-14hr
 (27968)
embryo 14-16hr
 (28921)
embryo 16-18hr
 (19257)
embryo 18-20hr
 (14357)
embryo 20-22hr
 (13768)
embryo 22-24hr
 (12611)
larva L1
 (6536)
larva L2
 (5520)
larva L3 12hr old
 (3878)
larva L3 puffstage 1-2
 (5664)
larva L3 puffstage 3-6
 (8943)
larva L3 puffstage 7-9
 (11018)
white prepupae new
 (13501)
white prepupae 12hr
 (15084)
white prepupae 24hr
 (21768)
pupae 2d postWPP
 (17940)
pupae 3d postWPP
 (9914)
pupae 4d postWPP
 (5113)
adult male 01day
 (5035)
adult male 05day
 (5248)
adult male 30day
 (5178)
adult female 01day
 (8956)
adult female 05day
 (10120)
adult female 30day
 (10896)
Expression Level Scale
 None 
 Extremely low 
 Very low 
 Low 
 Moderate 
 Moderately high 
log, scaled to High expression
Developmental Stage   Expression Level
embryo 00-02hr
 18295
embryo 02-04hr
 (38225)
embryo 04-06hr
 (59310)
embryo 06-08hr
 (55080)
embryo 08-10hr
 (40818)
embryo 10-12hr
 (43251)
embryo 12-14hr
 (27968)
embryo 14-16hr
 (28921)
embryo 16-18hr
 19257
embryo 18-20hr
 14357
embryo 20-22hr
 13768
embryo 22-24hr
 12611
larva L1
 
 6536
larva L2
 
 5520
larva L3 12hr old
 
 3878
larva L3 puffstage 1-2
 
 5664
larva L3 puffstage 3-6
 
 8943
larva L3 puffstage 7-9
 11018
white prepupae new
 13501
white prepupae 12hr
 15084
white prepupae 24hr
 (21768)
pupae 2d postWPP
 17940
pupae 3d postWPP
 
 9914
pupae 4d postWPP
 
 5113
adult male 01day
 
 5035
adult male 05day
 
 5248
adult male 30day
 
 5178
adult female 01day
 
 8956
adult female 05day
 10120
adult female 30day
 10896
Expression Level Scale
 None 
 Extremely low 
 Very low 
 Low 
 Moderate 
 Moderately high 
 High 
 Very high 
log, scaled to Extremely high expression
Developmental Stage   Expression Level
embryo 00-02hr
 
 18295
embryo 02-04hr
 
 38225
embryo 04-06hr
 
 59310
embryo 06-08hr
 
 55080
embryo 08-10hr
 
 40818
embryo 10-12hr
 
 43251
embryo 12-14hr
 
 27968
embryo 14-16hr
 
 28921
embryo 16-18hr
 
 19257
embryo 18-20hr
 
 14357
embryo 20-22hr
 
 13768
embryo 22-24hr
 
 12611
larva L1
 
 6536
larva L2
 
 5520
larva L3 12hr old
 
 3878
larva L3 puffstage 1-2
 
 5664
larva L3 puffstage 3-6
 
 8943
larva L3 puffstage 7-9
 
 11018
white prepupae new
 
 13501
white prepupae 12hr
 
 15084
white prepupae 24hr
 
 21768
pupae 2d postWPP
 
 17940
pupae 3d postWPP
 
 9914
pupae 4d postWPP
 
 5113
adult male 01day
 
 5035
adult male 05day
 
 5248
adult male 30day
 
 5178
adult female 01day
 
 8956
adult female 05day
 
 10120
adult female 30day
 
 10896
Expression Level Scale
 None 
 Extremely low 
 Very low 
 Low 
 Moderate 
 Moderately high 
 High 
 Very high 
 Extremely high 
Heatmap
Developmental Stage   Expression Level
embryo 00-02hr
 
 
embryo 02-04hr
 
 
embryo 04-06hr
 
 
embryo 06-08hr
 
 
embryo 08-10hr
 
 
embryo 10-12hr
 
 
embryo 12-14hr
 
 
embryo 14-16hr
 
 
embryo 16-18hr
 
 
embryo 18-20hr
 
 
embryo 20-22hr
 
 
embryo 22-24hr
 
 
larva L1
 
 
larva L2
 
 
larva L3 12hr old
 
 
larva L3 puffstage 1-2
 
 
larva L3 puffstage 3-6
 
 
larva L3 puffstage 7-9
 
 
white prepupae new
 
 
white prepupae 12hr
 
 
white prepupae 24hr
 
 
pupae 2d postWPP
 
 
pupae 3d postWPP
 
 
pupae 4d postWPP
 
 
adult male 01day
 
 
adult male 05day
 
 
adult male 30day
 
 
adult female 01day
 
 
adult female 05day
 
 
adult female 30day
 
 

FlyAtlas Anatomical Expression Data for FBgn0000117


   Styles
Linear
Logarithmic
Heatmap
Back-to-back
   Scales
max expr for FBgn0000117
Moderate expression bin max
High level expression bin max
Very high expression bin max

Summary of FlyAtlas Anatomical Expression Data: High or moderate levels of expression observed in all larval and adult organs/tissues. Expression at high levels in the following post-embryonic organs or tissues: adult head, adult eye, larval/adult central nervous system, adult crop, larval/adult midgut, larval/adult hindgut, larval/adult Malpighian tubules, adult heart, larval fat body, larval/adult salivary gland, larval trachea, adult ovary, adult male accessory gland, larval/adult carcass. Expression at moderate levels in the following post-embryonic organs or tissues: adult fat body, adult spermathecae, adult testis.
[download data (TSV)]

Guide to FlyAtlas expression level colors
 
No expression (0 - 9.999)
 
Low expression (10 - 99.999)
 
Moderate expression (100 - 499.999)
 
High level expression (500 - 999.999)
 
Very high expression (1000 - 25000)

Linear, scaled to maximum FBgn0000117 expression level
Tissue   Expression Level
Larval Central Nervous System
 
 1559.625
Larval Midgut
 
 1046.4
Larval Hindgut
 
 997
Larval Malpighian Tubules
 
 1168
Larval Fat Body
 
 590.5
Larval Salivary Gland
 
 1544.7
Larval Trachea
 
 1310.375
Larval Carcass
 
 823.6
Adult Head
 
 1001.2
Adult Eye
 
 1372.125
Adult Brain
 
 1619.9
Adult Thoracic-Abdominal Ganglion
 
 1297.6
Adult Crop
 
 1023.7
Adult Midgut
 
 771.5
Adult Hindgut
 
 802.8
Adult Malpighian Tubules
 
 813
Adult Fat Body
 
 398.8
Adult Salivary Gland
 
 1858.3
Adult Heart
 
 551.15
Adult VirginFemale Spermatheca
 
 369.8
Adult InseminatedFemale Spermatheca
 
 414.7
Adult Ovary
 
 988
Adult Testis
 
 217.6
Adult Male Accessory Gland
 
 811.2
Adult Carcass
 
 561.8
Expression Level Scale
 None 
 Low 
 Moderate 
 High 
 Very high 
Linear, scaled to Moderate expression
Tissue   Expression Level
Larval Central Nervous System
 (1559.625)
Larval Midgut
 (1046.4)
Larval Hindgut
 (997)
Larval Malpighian Tubules
 (1168)
Larval Fat Body
 (590.5)
Larval Salivary Gland
 (1544.7)
Larval Trachea
 (1310.375)
Larval Carcass
 (823.6)
Adult Head
 (1001.2)
Adult Eye
 (1372.125)
Adult Brain
 (1619.9)
Adult Thoracic-Abdominal Ganglion
 (1297.6)
Adult Crop
 (1023.7)
Adult Midgut
 (771.5)
Adult Hindgut
 (802.8)
Adult Malpighian Tubules
 (813)
Adult Fat Body
 
 398.8
Adult Salivary Gland
 (1858.3)
Adult Heart
 (551.15)
Adult VirginFemale Spermatheca
 
 369.8
Adult InseminatedFemale Spermatheca
 
 414.7
Adult Ovary
 (988)
Adult Testis
 
 217.6
Adult Male Accessory Gland
 (811.2)
Adult Carcass
 (561.8)
Expression Level Scale
 None 
 Low 
 Moderate 
 High 
Linear, scaled to High level expression
Tissue   Expression Level
Larval Central Nervous System
 (1559.625)
Larval Midgut
 1046.4
Larval Hindgut
 
 997
Larval Malpighian Tubules
 (1168)
Larval Fat Body
 
 590.5
Larval Salivary Gland
 (1544.7)
Larval Trachea
 (1310.375)
Larval Carcass
 
 823.6
Adult Head
 1001.2
Adult Eye
 (1372.125)
Adult Brain
 (1619.9)
Adult Thoracic-Abdominal Ganglion
 (1297.6)
Adult Crop
 1023.7
Adult Midgut
 
 771.5
Adult Hindgut
 
 802.8
Adult Malpighian Tubules
 
 813
Adult Fat Body
 
 398.8
Adult Salivary Gland
 (1858.3)
Adult Heart
 
 551.15
Adult VirginFemale Spermatheca
 
 369.8
Adult InseminatedFemale Spermatheca
 
 414.7
Adult Ovary
 
 988
Adult Testis
 
 217.6
Adult Male Accessory Gland
 
 811.2
Adult Carcass
 
 561.8
Expression Level Scale
 None 
 Low 
 Moderate 
 High 
 Very high 
Linear, scaled to Very high expression
Tissue   Expression Level
Larval Central Nervous System
 
 1559.625
Larval Midgut
 
 1046.4
Larval Hindgut
 
 997
Larval Malpighian Tubules
 
 1168
Larval Fat Body
 
 590.5
Larval Salivary Gland
 
 1544.7
Larval Trachea
 
 1310.375
Larval Carcass
 
 823.6
Adult Head
 
 1001.2
Adult Eye
 
 1372.125
Adult Brain
 
 1619.9
Adult Thoracic-Abdominal Ganglion
 
 1297.6
Adult Crop
 
 1023.7
Adult Midgut
 
 771.5
Adult Hindgut
 
 802.8
Adult Malpighian Tubules
 
 813
Adult Fat Body
 
 398.8
Adult Salivary Gland
 
 1858.3
Adult Heart
 
 551.15
Adult VirginFemale Spermatheca
 
 369.8
Adult InseminatedFemale Spermatheca
 
 414.7
Adult Ovary
 
 988
Adult Testis
 
 217.6
Adult Male Accessory Gland
 
 811.2
Adult Carcass
 
 561.8
Expression Level Scale
 None 
 Low 
 Moderate 
 High 
 Very high 
log, scaled to maximum FBgn0000117 expression level
Tissue   Expression Level
Larval Central Nervous System
 
 1559.625
Larval Midgut
 
 1046.4
Larval Hindgut
 
 997
Larval Malpighian Tubules
 
 1168
Larval Fat Body
 
 590.5
Larval Salivary Gland
 
 1544.7
Larval Trachea
 
 1310.375
Larval Carcass
 
 823.6
Adult Head
 
 1001.2
Adult Eye
 
 1372.125
Adult Brain
 
 1619.9
Adult Thoracic-Abdominal Ganglion
 
 1297.6
Adult Crop
 
 1023.7
Adult Midgut
 
 771.5
Adult Hindgut
 
 802.8
Adult Malpighian Tubules
 
 813
Adult Fat Body
 
 398.8
Adult Salivary Gland
 
 1858.3
Adult Heart
 
 551.15
Adult VirginFemale Spermatheca
 
 369.8
Adult InseminatedFemale Spermatheca
 
 414.7
Adult Ovary
 
 988
Adult Testis
 
 217.6
Adult Male Accessory Gland
 
 811.2
Adult Carcass
 
 561.8
Expression Level Scale
 None 
 Low 
 Moderate 
 High 
 Very high 
log, scaled to Moderate expression
Tissue   Expression Level
Larval Central Nervous System
 (1559.625)
Larval Midgut
 (1046.4)
Larval Hindgut
 (997)
Larval Malpighian Tubules
 (1168)
Larval Fat Body
 590.5
Larval Salivary Gland
 (1544.7)
Larval Trachea
 (1310.375)
Larval Carcass
 (823.6)
Adult Head
 (1001.2)
Adult Eye
 (1372.125)
Adult Brain
 (1619.9)
Adult Thoracic-Abdominal Ganglion
 (1297.6)
Adult Crop
 (1023.7)
Adult Midgut
 771.5
Adult Hindgut
 802.8
Adult Malpighian Tubules
 813
Adult Fat Body
 
 398.8
Adult Salivary Gland
 (1858.3)
Adult Heart
 551.15
Adult VirginFemale Spermatheca
 
 369.8
Adult InseminatedFemale Spermatheca
 
 414.7
Adult Ovary
 (988)
Adult Testis
 
 217.6
Adult Male Accessory Gland
 811.2
Adult Carcass
 561.8
Expression Level Scale
 None 
 Low 
 Moderate 
 High 
log, scaled to High level expression
Tissue   Expression Level
Larval Central Nervous System
 1559.625
Larval Midgut
 1046.4
Larval Hindgut
 
 997
Larval Malpighian Tubules
 1168
Larval Fat Body
 
 590.5
Larval Salivary Gland
 1544.7
Larval Trachea
 1310.375
Larval Carcass
 
 823.6
Adult Head
 1001.2
Adult Eye
 1372.125
Adult Brain
 1619.9
Adult Thoracic-Abdominal Ganglion
 1297.6
Adult Crop
 1023.7
Adult Midgut
 
 771.5
Adult Hindgut
 
 802.8
Adult Malpighian Tubules
 
 813
Adult Fat Body
 
 398.8
Adult Salivary Gland
 (1858.3)
Adult Heart
 
 551.15
Adult VirginFemale Spermatheca
 
 369.8
Adult InseminatedFemale Spermatheca
 
 414.7
Adult Ovary
 
 988
Adult Testis
 
 217.6
Adult Male Accessory Gland
 
 811.2
Adult Carcass
 
 561.8
Expression Level Scale
 None 
 Low 
 Moderate 
 High 
 Very high 
log, scaled to Very high expression
Tissue   Expression Level
Larval Central Nervous System
 
 1559.625
Larval Midgut
 
 1046.4
Larval Hindgut
 
 997
Larval Malpighian Tubules
 
 1168
Larval Fat Body
 
 590.5
Larval Salivary Gland
 
 1544.7
Larval Trachea
 
 1310.375
Larval Carcass
 
 823.6
Adult Head
 
 1001.2
Adult Eye
 
 1372.125
Adult Brain
 
 1619.9
Adult Thoracic-Abdominal Ganglion
 
 1297.6
Adult Crop
 
 1023.7
Adult Midgut
 
 771.5
Adult Hindgut
 
 802.8
Adult Malpighian Tubules
 
 813
Adult Fat Body
 
 398.8
Adult Salivary Gland
 
 1858.3
Adult Heart
 
 551.15
Adult VirginFemale Spermatheca
 
 369.8
Adult InseminatedFemale Spermatheca
 
 414.7
Adult Ovary
 
 988
Adult Testis
 
 217.6
Adult Male Accessory Gland
 
 811.2
Adult Carcass
 
 561.8
Expression Level Scale
 None 
 Low 
 Moderate 
 High 
 Very high 
Heatmap
Tissue   Expression Level
Larval Central Nervous System
 
 
Larval Midgut
 
 
Larval Hindgut
 
 
Larval Malpighian Tubules
 
 
Larval Fat Body
 
 
Larval Salivary Gland
 
 
Larval Trachea
 
 
Larval Carcass
 
 
Adult Head
 
 
Adult Eye
 
 
Adult Brain
 
 
Adult Thoracic-Abdominal Ganglion
 
 
Adult Crop
 
 
Adult Midgut
 
 
Adult Hindgut
 
 
Adult Malpighian Tubules
 
 
Adult Fat Body
 
 
Adult Salivary Gland
 
 
Adult Heart
 
 
Adult VirginFemale Spermatheca
 
 
Adult InseminatedFemale Spermatheca
 
 
Adult Ovary
 
 
Adult Testis
 
 
Adult Male Accessory Gland
 
 
Adult Carcass
 
 

FlyAtlas Organ/Tissue Expression, larval vs. adult
Larval Expression Level Tissue Adult Expression Level
 
NA 
Head
 
 1001.2
 
NA 
Eye
 
 1372.125
 
NA 
Brain
 
 1619.9
 
1559.625 
Central Nervous System
 
 NA
 
NA 
Thoracic-Abdominal Ganglion
 
 1297.6
 
NA 
Crop
 
 1023.7
 
1046.4 
Midgut
 
 771.5
 
997 
Hindgut
 
 802.8
 
1168 
Malpighian Tubules
 
 813
 
590.5 
Fat Body
 
 398.8
 
1544.7 
Salivary Gland
 
 1858.3
 
NA 
Heart
 
 551.15
 
1310.375 
Trachea
 
 NA
 
NA 
VirginFemale Spermatheca
 
 369.8
 
NA 
InseminatedFemale Spermatheca
 
 414.7
 
NA 
Ovary
 
 988
 
NA 
Testis
 
 217.6
 
NA 
Male Accessory Gland
 
 811.2
 
823.6 
Carcass
 
 561.8

modENCODE Temporal Expression Data (Graveley et al., 2011)
FlyAtlas Anatomical Expression Data (Chintapalli et al., 2007)
hide Expression Clusters
A cluster of genes with similar mRNA expression dynamics across development.
hide External Data & Images
Linkouts
FLIGHT - Cell culture data for RNAi and other high-throughput technologies
FlyAtlas - Adult expression by tissue, using Affymetrix Dros2 array
hide Alleles & Phenotypes
hide Summary of Allele Phenotypes
Lethality
Allele
Sterility
Allele
Other Phenotypes
Allele
Phenotype manifest in
Allele
adult cuticle & abdomen | somatic clone
dorsal mesothoracic disc & peripodial epithelium | somatic clone | cell autonomous, with Scer\GAL4αTub84B.PL
embryonic/first instar larval cuticle & denticle | ectopic, with Scer\GAL4da.G32
embryonic/first instar larval cuticle & denticle belt, with Scer\GAL4da.G32
nurse cell & actin filament
nurse cell & nucleus
nurse cell & nucleus | germ-line clone
oocyte & actin filament
sensory mother cell & dorsal mesothoracic disc | ectopic, with Scer\GAL4sd-SG29.1
wing & macrochaeta | ectopic, with Scer\GAL4C-765
hide Classical Alleles ( 37 )
For All Classical Alleles Show

Allele of armClassMutagenStocksKnown lesion
arm1amorphic allele - genetic evidence2 Yes
arm4loss of function allele, amorphic allele - genetic evidence2 Yes
arme045952 --
armG0268a2 --
arm2amorphic allele - genetic evidence, loss of function allele, hypomorphic allele - genetic evidence1 Yes
arm3amorphic allele - genetic evidence1 Yes
arm5-HA-1184
1 --
arm8loss of function allele, hypomorphic allele - genetic evidence1 Yes
armEY155651 --
armG01921 --
armGS11411 Yes
arm2a9amorphic allele - genetic evidence0 Yes
arm#20 Yes
arm043A010 Yes
arm13-170 Yes
arm17-114
0 --
arm25Bloss of function allele, hypomorphic allele - genetic evidence0 Yes
arm50 Yes
arm60 Yes
armBCD70 --
armCPTI0011980 Yes
armEH2430 --
armEY120370 --
armF1αloss of function allele, hypomorphic allele - genetic evidence
0 Yes
armG02340 --
armG04100 --
armI
0 --
armK2
0 --
armL510 --
armLM134loss of function allele
0 Yes
armPG1200 --
armPG980 --
armPL270 --
armS90 --
armT52A.S56A.Act5C
0 Yes
armunspecified
0 --
armweep
0 Yes
hide Alleles Carried on Transgenic Constructs ( 147 )
For All Alleles Carried on Transgenic Constructs Show

Allele of armClassMutagenStocksKnown lesion
armNdel.vg.MQgain of function allele3 Yes
armS56F.Scer\UAS3 Yes
arm+mOa.T:Avic\GFP2 Yes
armS10.Scer\UAS.T:Hsap\MYC2 Yes
armS2.Scer\UAS.T:Hsap\MYC2 Yes
armScer\UAS.Exel2 Yes
armGD13721 Yes
armGMR.Exel1 Yes
armHMS014141 Yes
armJF012511 Yes
armJF012521 Yes
armKK1025451 Yes
armT52A.GMRgain of function allele1 Yes
arm+mOa0 Yes
arm+mWa0 Yes
arm+t10.50 Yes
arm043.Scer\UAS0 Yes
arm1-429.T:Scer\GAL40 Yes
arm429-843.T:Scer\GAL40 Yes
armAAA.S10.Scer\UAS0 Yes
armact.hs.2sev0 Yes
armact.Scer\FRT.hs.2sev0 Yes
armact.Scer\FRT.Scer\UAS0 Yes
armact.Scer\UAS0 Yes
armAct5C.PD0 Yes
armcBa0 Yes
armcMa.T:Avic\GFP0 Yes
armD164A.αTub84B.T:Hsap\MYC0 Yes
armD88A.Scer\UAS.T:Zzzz\FLAG0 Yes
armdsRNA.cBa0 Yes
armdsRNA.cKa0 Yes
armdsRNA.cLa0 Yes
armdsRNA.cMa0 --
armdsRNA.Scer\UAS0 Yes
armdsRNA.si.cKa0 Yes
armE163A.αTub84B.T:Hsap\MYC0 Yes
armED-QN.MtnA.T:Hsap\MYC0 Yes
armhs.2sev0 Yes
armhs.Sev.T:Ivir\HA1,T:Scer\GAL4,T:Hsim\VP160 Yes
armhs.T:Scer\GAL4,T:en-Rep0 Yes
armhs.T:Scer\GAL4,T:Hsim\VP160 --
armhs.T:Scer\GAL40 Yes
armK435E.αTub84B.T:Hsap\MYC0 Yes
armM+N-.Scer\UAS.T:Ivir\HA1,T:Myr10 Yes
armM-N+.Scer\UAS.T:Ivir\HA1,T:SV40\nls20 Yes
armM-N-.Scer\UAS.T:Ivir\HA10 Yes
armm.Δ.M-N-.Scer\UAS.T:Ivir\HA10 Yes
armMtnA.PP0 Yes
armMtnA.PY0 Yes
armMtnA.T:Hsap\MYC0 Yes
armNIG.11579R0 --
armNR.Scer\UAS.T:Hsap\MYC0 Yes
armR.Scer\UAS.T:Hsap\MYC0 Yes
armR.Scer\UAS0 Yes
armS10.D164A.Scer\UAS.T:Hsap\MYC0 Yes
armS10.K435E.Scer\UAS.T:Hsap\MYC0 Yes
armS10.MtnA.T:Hsap\MYC0 Yes
armS10.T:Hsap\MYC0 Yes
armS11.T:Hsap\MYC0 Yes
armS12.T:Hsap\MYC0 Yes
armS14.T:Hsap\MYC0 Yes
armS15.T:Hsap\MYC0 Yes
armS2.T:Hsap\MYC0 Yes
armS4.T:Hsap\MYC0 Yes
armS44Y.GMR0 Yes
armS5.T:Hsap\MYC0 Yes
armS56A.MtnA.T:Hsap\MYC0 Yes
armS56A.Scer\UAS.T:Zzzz\His6.T:Hsap\MYC0 Yes
armS56F.GMR0 Yes
armS58A.MtnA.T:Hsap\MYC0 Yes
armS6.T:Hsap\MYC0 Yes
armS80 Yes
armScer\FRT.Rnor\CD2.043.Scer\UAS0 Yes
armScer\FRT.Rnor\CD2.hs.Sev.T:Ivir\HA1,T:Scer\GAL4,T:Hsim\VP160 Yes
armScer\FRT.Rnor\CD2.hs.T:Scer\GAL4,T:en-Rep0 Yes
armScer\FRT.Rnor\CD2.hs.T:Scer\GAL4,T:Hsim\VP160 Yes
armScer\FRT.Rnor\CD2.hs.T:Scer\GAL40 Yes
armScer\FRT.Rnor\CD2.M+N-.Scer\UAS.T:Ivir\HA1,T:Myr10 Yes
armScer\FRT.Rnor\CD2.M-N+.Scer\UAS.T:Ivir\HA10 Yes
armScer\FRT.Rnor\CD2.M-N-.Scer\UAS.T:Ivir\HA10 Yes
armScer\FRT.Rnor\CD2.m.Δ.M-N-.Scer\UAS.T:Ivir\HA10 Yes
armScer\FRT.Rnor\CD2.Scer\UAS.T:Ivir\HA1,T:Myr1,T:SV40\nls20 Yes
armScer\FRT.Rnor\CD2.Scer\UAS.T:Ivir\HA10 Yes
armScer\FRT.Rnor\CD2.Scer\UAS0 Yes
armScer\FRT.Rnor\CD2.Sev.M-N-.Scer\UAS.T:Ivir\HA10 Yes
armScer\FRT.Rnor\CD2.XM19.Scer\UAS0 Yes
armScer\FRT.Rnor\CD2.XP33.Scer\UAS0 Yes
armScer\FRT.Rnor\CD2.Δ.M+N-.Scer\UAS.T:Ivir\HA1,T:Myr10 Yes
armScer\FRT.Rnor\CD2.Δ.M-N+.Scer\UAS.T:Ivir\HA1,T:SV40\nls20 Yes
armScer\FRT.Rnor\CD2.Δ.M-N-.Scer\UAS.T:Ivir\HA10 Yes
armScer\FRT.Rnor\CD2.Δ.Scer\UAS.T:Ivir\HA1,T:Myr1,T:SV40\nls20 Yes
armScer\FRT.Rnor\CD2.Δ.Scer\UAS0 Yes
armScer\FRT.Rnor\CD2.Δ.Sev.M-N+.Scer\UAS.T:Ivir\HA1,T:SV40\nls20 Yes
armScer\FRT.Rnor\CD2.Δ.Sev.M-N-.Scer\UAS.T:Ivir\HA10 Yes
armScer\FRT.Rnor\CD2.Δ.XM19.Scer\UAS0 Yes
armScer\FRT.Rnor\CD2.Δ.Δ.M+N-.Scer\UAS.T:Ivir\HA1,T:Myr10 Yes
armScer\FRT.Rnor\CD2.Δ.Δ.M-N-.Scer\UAS.T:Ivir\HA1,T:Hsim\VP160 Yes
armScer\FRT.Rnor\CD2.Δ.Δ.M-N-.Scer\UAS.T:Ivir\HA10 Yes
armScer\FRT.Rnor\CD2.Δ.Δ.Sev.M-N-.Scer\UAS.T:Ivir\HA10 Yes
armScer\UAS.cCa0 Yes
armScer\UAS.cKa0 Yes
armScer\UAS.cSa0 Yes
armScer\UAS.cTa0 Yes
armScer\UAS.cWa0 Yes
armScer\UAS.T:Hsap\MYC,T:Ocun\nes0 Yes
armScer\UAS.T:Hsap\MYC,T:SV40\nls20 Yes
armScer\UAS.T:Hsap\MYC,T:Xlae\Ncad0 Yes
armScer\UAS.T:Ivir\HA1,T:Myr1,T:SV40\nls20 Yes
armScer\UAS.T:Ivir\HA10 Yes
armScer\UAS.T:sev-TM0 Yes
armScer\UAS.wt0 Yes
armSev.M-N-.Scer\UAS.T:Ivir\HA10 Yes
armST-A.MtnA.T:Hsap\MYC0 Yes
armT:Avic\GFP-EGFP0 Yes
armT:Avic\GFP0 Yes
armT:Hsap\MYC,T:Hsap\CAAX0 Yes
armT:Scer\GAL40 Yes
armXM19.Scer\UAS0 Yes
armXP33.Scer\UAS0 Yes
armαTub84B.T:Hsap\MYC0 Yes
armΔ.D164A.Scer\UAS.T:Hsap\MYC0 Yes
armΔ.K435E.Scer\UAS.T:Hsap\MYC0 Yes
armΔ.M+N-.Scer\UAS.T:Ivir\HA1,T:Myr10 Yes
armΔ.M-N+.Scer\UAS.T:Ivir\HA1,T:SV40\nls20 Yes
armΔ.M-N-.Scer\UAS.T:Ivir\HA10 Yes
armΔ.Scer\FRT-.Scer\UAS.T:Ivir\HA10 Yes
armΔ.Scer\FRT.Scer\UAS.T:Ivir\HA10 Yes
armΔ.Scer\UAS.T:Hsap\MYC0 Yes
armΔ.Scer\UAS.T:Ivir\HA1,T:Myr1,T:SV40\nls20 Yes
armΔ.Scer\UAS.T:Ivir\HA10 Yes
armΔ.Scer\UAS0 Yes
armΔ.Sev.M-N+.Scer\UAS.T:Ivir\HA1,T:SV40\nls20 Yes
armΔ.Sev.M-N-.Scer\UAS.T:Ivir\HA10 Yes
armΔ.XM19.Scer\UAS0 Yes
armΔ.Δ.M+N-.Scer\UAS.T:Ivir\HA1,T:Myr10 Yes
armΔ.Δ.M-N-.Scer\UAS.T:Ivir\HA1,T:Hsim\VP160 Yes
armΔ.Δ.M-N-.Scer\UAS.T:Ivir\HA10 Yes
armΔ.Δ.Sev.M-N-.Scer\UAS.T:Ivir\HA10 Yes
armΔ114.MtnA.T:Hsap\MYC0 Yes
armΔC.Scer\UAS0 Yes
armΔN-88.Scer\UAS0 Yes
armΔN.Act5C0 Yes
armΔN.Scer\UAS0 Yes
armΔN.T:Hsap\MYC0 Yes
armΔN138.MtnA.T:Hsap\MYC0 Yes
armΔN58.MtnA.T:Hsap\MYC0 Yes
armΔα.Scer\UAS0 Yes
hide Aneuploid Aberrations
Disrupted in
Not disrupted in
Duplicated in
Not duplicated in
hide Transgenic Constructs & Insertions
Transgenic Constructs
heat-shock construct
NameExpression Data
P{2sev-hs-arm.W}NA
P{hsp70(FRT.CD2,y+)arm.GAL4.enRep}NA
P{hsp70(FRT.CD2,y+)arm.GAL4.VP16}NA
P{hsp70(FRT.CD2,y+)arm.GAL4}NA
P{hsp70(FRT.CD2,y+)arm.Sev.Flu.GAL4.VP16}NA
P{hsp70(-FRT)arm.GAL4.enRep}NA
P{hsp70(-FRT)arm.GAL4.VP16}NA
P{hsp70(-FRT)arm.GAL4}NA
P{hsp70(-FRT)arm.Sev.Flu.GAL4.VP16}NA
reporter construct
NameExpression Data
P{11E3:6.2}No
P{11E3:15.4}No
P{23E12:7.7}No
P{123B12:9.0}No
P{144A7:12.8}No
P{185B11:5.0}No
P{185B11:6.6}No
P{arm-lacZ.V}No
P{arm-lacZ-Brd+GYmut}No
P{arm-lacZ-Brdmut123}No
P{arm-lacZ-GYmut}No
P{arm-lacZ-m8.5xCAACmut}No
P{arm-lacZ-m8.K1K2mut}No
P{arm-lacZ-m8.K/CAACdel}No
P{arm-lacZ-m8.wt}No
P{arm-lacZ-SV40t}No
P{arm-lacZ-wtBrd}No
P{HF11}No
P{HF17}No
P{HF18}No
UAS construct
NameExpression Data
P{GD1372}NA
P{GMR-arm.S56F}NA
P{KK102545}NA
P{Scer(FRT.CD2,y+)arm.Sev.M-N-.Flu}NA
P{Scer\UAS(FRT.CD2).arm.Flu}NA
P{TRiP.HMS01414}NA
P{TRiP.JF01251}NA
P{TRiP.JF01252}NA
P{UAS(FRT.CD2,y+)arm.043}NA
P{UAS(FRT.CD2,y+)arm.C}NA
P{UAS(FRT.CD2,y+)arm.Flu}NA
P{UAS(FRT.CD2,y+)arm.M+N+.Flu.Δ}NA
P{UAS(FRT.CD2,y+)arm.M+N+.Flu}NA
P{UAS(FRT.CD2,y+)arm.M+N-.Flu.Δ}NA
P{UAS(FRT.CD2,y+)arm.M+N-.Flu.ΔΔ}NA
P{UAS(FRT.CD2,y+)arm.M+N-.Flu}NA
P{UAS(FRT.CD2,y+)arm.M-N+.Flu.Δ}NA
P{UAS(FRT.CD2,y+)arm.M-N+.Flu}NA
P{UAS(FRT.CD2,y+)arm.M-N-.Flu.VP16.ΔΔ}NA
P{UAS(FRT.CD2,y+)arm.M-N-.Flu.Δ.m}NA
P{UAS(FRT.CD2,y+)arm.M-N-.Flu.Δ}NA
P{UAS(FRT.CD2,y+)arm.M-N-.Flu.ΔΔ}NA
P{UAS(FRT.CD2,y+)arm.M-N-.Flu}NA
P{UAS(FRT.CD2,y+)arm.Sev.M-N+.Flu.Δ}NA
P{UAS(FRT.CD2,y+)arm.Sev.M-N-.Flu.Δ}NA
P{UAS(FRT.CD2,y+)arm.Sev.M-N-.Flu.ΔΔ}NA
P{UAS(FRT.CD2,y+)arm.XM19}NA
P{UAS(FRT.CD2,y+)arm.XP33}NA
P{UAS(FRT.CD2,y+)arm.Δ.XM19}NA
P{UAS(FRT.CD2,y+)arm.Δ}NA
P{UAS(FRT.wGMR)arm.act}NA
P{UAS(FRT.y+CD2)arm.Δ.flu}NA
P{UAS(-FRT)arm.043}NA
P{UAS(-FRT)arm.act}NA
P{UAS(-FRT)arm.C}NA
P{UAS(-FRT)arm.Flu}NA
P{UAS(-FRT)arm.M+N+.Flu.Δ}NA
P{UAS(-FRT)arm.M+N+.Flu}NA
P{UAS(-FRT)arm.M+N-.Flu.Δ}NA
P{UAS(-FRT)arm.M+N-.Flu.ΔΔ}NA
P{UAS(-FRT)arm.M+N-.Flu}NA
P{UAS(-FRT)arm.M-N+.Flu.Δ}NA
P{UAS(-FRT)arm.M-N+.Flu}NA
P{UAS(-FRT)arm.M-N-.Flu.VP16.ΔΔ}NA
P{UAS(-FRT)arm.M-N-.Flu.Δ.m}NA
P{UAS(-FRT)arm.M-N-.Flu.Δ}NA
P{UAS(-FRT)arm.M-N-.Flu.ΔΔ}NA
P{UAS(-FRT)arm.Sev.M-N+.Flu.Δ}NA
P{UAS(-FRT)arm.Sev.M-N-.Flu.Δ}NA
P{UAS(-FRT)arm.Sev.M-N-.Flu.ΔΔ}NA
P{UAS(-FRT)arm.Sev.M-N-.Flu}NA
P{UAS(-FRT)arm.XM19}NA
P{UAS(-FRT)arm.XP33}NA
P{UAS(-FRT)arm.Δ.flu}NA
P{UAS(-FRT)arm.Δ.XM19}NA
P{UAS(-FRT)arm.Δ}NA
P{UAS-arm.D88A}NA
P{UAS-arm.D164A.Myc}NA
P{UAS-arm.Exel}NA
P{UAS-arm.K435E.Myc}NA
P{UAS-arm.K}NA
P{UAS-arm.NES}NA
P{UAS-arm.NLS}NA
P{UAS-arm.NR}NA
P{UAS-arm.R}NA
P{UAS-arm.RMyc}NA
P{UAS-arm.S2}NA
P{UAS-arm.S10.AAA}NA
P{UAS-arm.S10}NA
P{UAS-arm.S56A}NA
P{UAS-arm.S}NA
P{UAS-arm.T}NA
P{UAS-arm.TM}NA
P{UAS-arm.W}NA
P{UAS-arm.wt}NA
P{UAS-arm.Δ.D164A}NA
P{UAS-arm.Δ.flu}NA
P{UAS-arm.Δ.K435E}NA
P{UAS-arm.ΔC}NA
P{UAS-arm.ΔMYC}NA
P{UAS-arm.ΔN-88}NA
P{UAS-arm.ΔN}NA
P{UAS-arm.Δα}NA
P{UAS-sev-arm}NA
characterization construct
NameExpression Data
P{arm10.5}NA
P{arm.CAAX}NA
P{arm.S4}NA
P{arm.S5}NA
P{arm.S6}NA
P{arm.S8}NA
P{arm.S10}NA
P{arm.S11}NA
P{arm.S12}NA
P{arm.S14}NA
P{arm.S15}NA
P{arm}NA
P{arm+mWa}NA
P{arm-cmyc}NA
P{arm-eGFP}NA
P{arm-GFP.P}NA
P{arm-GFP}NA
P{arm-HeT-A\gag::EGFP}NA
P{arm-Hsap\JUP.W}NA
P{arm-I-element\gag::EGFP}NA
P{arm-jockey\gag::EGFP}NA
P{arm-Mmus\Catnb.W}NA
P{arm-TART-element\gag::EGFP}NA
P{arm-TFR-K10}NA
P{arm-TFR-olc21}NA
P{GFP-arm}NA
P{GMR-arm.Exel}NA
P{GMR-arm.T52A}NA
P{GMR-armS44Y}NA
P{GMR-armS56F}NA
P{hs.2sev(FRT.wGMR)arm.act}NA
P{hs.2sev(-FRT)arm.act}NA
P{NIG.11579R}NA
P{UAS(FRT.CD2,y+)arm::Pen.m.Δ.M-N-.Flu}NA
P{UAS(FRT.CD2,y+)arm::Pen.Δ.M-N-.Flu}NA
P{UAS(-FRT)arm::Pen.m.Δ.M-N-.Flu}NA
P{UAS(-FRT)arm::Pen.Δ.M-N-.Flu}NA
P{UAS-armC-ΔNpan}NA
P{vgMQ-arm.Ndel}NA
P{ΔN}NA
P{αTub-arm.D164A.MYC}NA
P{αTub-arm.E163A.MYC}NA
P{αTub-arm.K435E.MYC}NA
P{αTub-arm.MYC}NA
Insertions
Type of insertions
Name
Expression data
insertion of enhancer trap binary system
hide Gene Ontology: Function, Process & Cellular Component ( 48 unique terms )
hide Terms Based on Experimental Evidence ( 37 terms )
Molecular Function
CV term
References
inferred from physical interaction with hipk
inferred from physical interaction with Apc2
inferred from physical interaction with Axn
inferred from physical interaction with Mer
inferred from physical interaction with ssp
inferred from physical interaction with UniProtKB:P22265
(assigned by UniProtKB)
inferred from physical interaction with lgs
inferred from physical interaction with pygo
Biological Process
CV term
References
inferred from mutant phenotype
inferred from mutant phenotype
inferred from mutant phenotype
inferred from mutant phenotype
inferred from mutant phenotype
inferred from mutant phenotype
inferred from mutant phenotype
inferred from mutant phenotype
inferred from mutant phenotype
inferred from mutant phenotype
inferred from mutant phenotype
inferred from mutant phenotype
inferred from mutant phenotype
inferred from mutant phenotype
inferred from mutant phenotype
inferred from mutant phenotype
Cellular Component
CV term
References
inferred from direct assay
inferred from direct assay
inferred from direct assay
inferred from direct assay
hide Terms Based on Predictions or Assertions ( 14 terms )
Molecular Function
CV term
References
inferred from sequence or structural similarity
Biological Process
CV term
References
inferred from sequence or structural similarity
inferred from sequence or structural similarity with mouse Catnb
non-traceable author statement
Cellular Component
CV term
References
inferred from sequence or structural similarity
non-traceable author statement
non-traceable author statement
non-traceable author statement
non-traceable author statement
hide Sequence Ontology: Class of Gene
hide Interactions & Pathways
hide Summary of Physical Interactions
Protein-protein
Interacting group
Assay
References
hide Summary of Genetic Interactions
Interacts with
Please look at the allele data for full details of the genetic interactions
arm allele
Gene
References
hide External Data
Linkouts
BioGRID - A database of protein and genetic interactions
DPiM - DPiM, Drosophila Protein interaction Map
DroID - A comprehensive database of gene and protein interactions.
InterologFinder Protein-protein interactions (PPI) from both known and predicted PPI data sets.
hide Orthologs
Genome-wide drosophilid orthologs
Curated drosophilid orthologs
Linkouts
InParanoid A subset of ortholog calls from InParanoid.
OrthoDB (Arthropod subset) The hierarchical catalog of eukaryotic orthologs.
hide Stocks & Reagents
hide Stocks Listed in FlyBase ( 36 )
Bloomington
Harvard
Kyoto
VDRC
hide Genomic Clones ( 2 )
Please Note FlyBase no longer curates genomic clone accessions so this list may not be complete
hide cDNA Clones ( 525 )
Please Note
This section lists cDNAs and ESTs that fall within the genomic extent of the gene model, which may include cDNAs and ESTs of genes within introns, or of overlapping genes. Please see GBrowse for alignment of the cDNAs and ESTs to the gene model.
cDNA Clones, Fully Sequenced
BDGP DGC clones
Other clones
cDNA Clones, End Sequenced (ESTs)
BDGP DGC clones
Other clones
hide RNAi & Array Information
Linkouts
DRSC - Results from RNAi screens.
GenomeRNAi - GenomeRNAi – A database for cell-based and in vivo RNAi phenotypes and reagents
hide Antibody Information
hide Other Information
hide Discoverer
hide Etymology
hide Identification
hide Relationship to Other Genes
Source for database identity of
Source for database merge of
Source for merge of: arm l(1)G0192 l(1)G0234
Source for merge of: arm l(1)G0410
Additional comments
hide Other Comments
dsRNA made from templates generated with primers directed against this gene has been transfected into Kc cells.
dsRNA made from templates generated with primers directed against this gene profoundly reduces the wg-signaling pathway.
In order to activate pan protein, arm protein must enter the nucleus and form a complex with lgs and pygo proteins.
Nuclear localisation of arm is necessary for Wnt pathway activation.
FlyBase curator comment: FBrf0161468 is an erratum for FBrf0151816, which has been retracted, see Struhl, 2004, Cell 116(3): 481.
RNAi screen using dsRNA made from templates generated with primers directed against this gene causes a phenotype when assayed in Kc167 and S2R+ cells: cells become round and detached.
dsRNA made from templates generated with primers directed against this gene tested in RNAi screen for effects on Kc167 and S2R+ cell morphology.
ci, tsh and arm may act as a complex.
Different combinations of the proteins ci, tsh and arm appear to be employed for the specification of naked cuticle at distinct positions both along the anterior posterior axis and within individual trunk segments.
FlyBase curator comment: FBrf0151816 has been retracted, see Struhl, 2004, Cell 116(3): 481.
arm does not play a general role in inhibiting cell migration or process extension.
arm and pan act together with JNK signalling pathways in both ventral patterning and dorsal closure.
fz and fz2 function downstream of wg and upstream of arm in the wg signalling pathway.
Membrane tethered arm cannot signal on its own, however it can function in adherens junctions.
Analysis of C-terminally truncated arm proteins suggests that the C-terminal domain of arm plays a complex role in wg signalling and the arm protein recruits the transcriptional machinery via multiple contact sites.
The arm/pan protein complex has a role in the activation of apoptosis during retinal development. Regulation of arm by Apc inhibits neuronal apoptosis during retinal development.
The pan gene product can function as either an activator or a repressor of wg-responsive genes depending on the state of the wg signalling pathway and thus the availability of arm, the pan product coactivator. In the absence of arm, pan acts to repress wg responsive genes, with the gro protein acting as a corepressor.
arm function in wg signal transduction is required early in neural development for determination of neuroblast fate. Later in neural development, the cell-cell adhesion function of arm is required for development of the correct axonal scaffold.
Ectopic wg expression non-cell autonomously induces vg expression in leg discs and activated arm (a cytosolic transducer of wg signalling) cell-autonomously induces vg expression, indicating that vg expression is directly activated by wg signalling.
Segment polarity gene expression is necessary for the survival of specific rows of epidermal cells.
Apc expression pattern and preliminary genetic analysis suggest that it may not be an essential component of arm regulation in the wg pathway.
wg signals through arm. wg can activate arm in a cell line.
A shg/arm complex has multiple functions for the regulation of organised cell adhesion events.
Mmus\Lef1 can form a stable complex with arm protein on the Ubx wg response sequence (WRS) and function in vivo depends on arm.
pan functions directly downstream of arm in the establishment of segment polarity.
Some of the proteins of apico-lateral junctions are required both for apico-basal cell polarity and for the signalling mechanisms controlling cell proliferation, whereas others are required more specifically in cell-cell signalling.
Adherens junctions cannot assemble in the absence of arm, leading to dramatic defects in cell-cell adhesion. Embryonic epithelial cells lose adhesion to each other, round up and apparently become mesenchymal. Mutant cells also lose their normal cell polarity. These disruptions in the integrity of the epithelia block the appropriate morphogenetic movements of gastrulation.
Embryos mutant for arm and sdt baz double mutant embryos have very similar early phenotypes with respect to zonula adherens formation. Results suggest that early stages in the assembly of the zonula adherens are critical for the stability of the polarised blastoderm epithelium.
The binding sites for shg and α-Cat are mapped, these bind independently of each other to arm and binding of each is required for the function of adherens junctions. arm is critical for wg signalling. arms roles in adherens junctions and wg signalling are independent.
Yeast two-hybrid system and in vivo assays have identified a 76 amino acid region of arm that is necessary and sufficient for binding α-Cat and also that the N-terminal 258 amino acids of α-Cat interact with arm. A large region of arm, spanning six central arm repeats, is required for shg binding, whereas only 41 amino acids of shg are sufficient for arm binding.
dsh and arm, but not sgg are required for heart formation.
arm is not required for wg self-refinement at the wing margin.
Overexpression of full length or truncated shg phenocopies wg. This is achieved by titrating arm away from a signalling function in the wg pathway.
arm mutations mimic all effects of a wg mutation. sgg, dsh and arm function to transmit the wg signal in the midgut in the same way as they do in the epidermis. Results suggest the wg signal transduction pathway acts in all three germ layers, the ectoderm, mesoderm and endoderm.
Tethered arm has autonomous effects on the transcription of target genes.
The arm gene product is required for wg-dependent bristle inhibition.
The arm product has a role in cell-cell adhesion, gastrulation and epithelial sheet integrity.
The arm locus encodes a truncated 82kD isoform specific to the nervous system.
arm forms part of the multi-protein adherins junction complex and in this role is critical for cell adhesion and the integrity of the actin cytoskeleton. One domain of arm is made of 12 copies of a degenerate motif, named the armadillo repeat. This motif modulates protein protein interactions.
arm gene is indispensable for the transmission of the wg signal in distinct cells.
arm, dsh and sgg encode elements of a unique wg signalling pathway that is used several times throughout development.
Direct wg autoregulation differs from wg signalling to adjacent cells in the importance of fu, smo and ci relative to sgg and arm.
arm mutants display a disrupted actin cytoskeleton.
wg acts through dsh and arm to affect the expression of en and cuticle differentiation.
Comparisons of early development to that in other insects have revealed conservation of some aspects of development, as well as differences that may explain variations in early patterning events.
Endogenous arm is a phosphoprotein that demonstrates coupled phosphorylation of Ser/Tyr and Tyr in vivo. Phosphorylation is developmentally regulated and may play a role in wg signal transduction.
Cells alter their intracellular distribution of arm protein in response to wg signal, accumulating increased levels of cytoplasmic arm relative to those of membrane-associated protein. Levels of cytoplasmic arm are also regulated by sgg. Double mutant analysis demonstrates that arm's role in wg signalling is direct and that arm functions downstream of wg and sgg.
dsh and por act upstream of sgg, and arm acts downstream of sgg in the wg signalling pathway.
Cell culture assay of wg and arm gene expression demonstrates that the wg protein does not affect the rate of arm protein synthesis but presence of the wg protein causes increased stability of an otherwise rapidly decaying arm protein. wg protein from the co-culturing donor cells, in the extracellular matrix and soluble medium from donor cells also increases the levels of arm protein demonstrating that wg can act as a soluble extra cellular signalling molecule.
The arm gene product is part of a membrane-associated complex. This complex includes α-Cat and the arm-associated glycoprotein, aagp. The arm product co-localizes with junctions that resemble vertebrate adherens junctions in morphology and position.
Germline arm mutations appear to disrupt processes requiring cell adhesion and integrity of the actin cytoskeleton, consistent with a role for the arm product in cell adhesive junctions.
wg and en expression patterns are studied in all known segment polarity mutants to investigate the requirement of other segment polarity genes in mediating the maintenance of wg and en.
Ectopic uniform wg expression causes no change in the distribution of arm RNA, but protein distribution is quite different from that in wild type, being evenly distributed at high levels. nkd2 embryos have same pattern of arm RNA expression as those with uniform wg expression, but different protein distribution, with a high level all over, plus 2 stripes/segment where wg is expressed.
arm may play a role in cell-cell adhesive junctions.
A homolog of the arm plakoglobin in Drosophila may link E-cadherin to the underlying actin cytoskeleton at cell-cell junctions. This complex may also participate in the transmission of developmental information.
The role of arm gene expression in pattern formation in imaginal discs has been examined. Mutations in arm and wg have indistinguishable embryonic consequences: the timing and pattern of wg loss in arm mutants is very similar. Clonal tissue with reduced levels of arm activity will only survive in regions furthest from regions of high levels of wg RNA.
wg regulates accumulation of arm by post-transcriptional control, por and dsh are also required for this effect.
Role of arm in neurogenesis has been studied.
arm region has been molecularly cloned and characterised, the protein contains a series of novel repeats. arm RNA is abundant and uniformly distributed and expressed in a wide range of cell types in the embryo, unlike the transcript accumulation of other segment polarity genes.
A screen for X-linked genes that affect embryo morphology revealed arm.
Genetic mosaics were used to determine that arm is autonomous at the level of the single cell. arm gene activity is required for embryonic development at least until extended germ band stages.
arm mutants display mirror image duplication of denticle belts.
Embryonic lethal; embryonic segmentation defective by time of germ-band shortening; naked cuticle ordinarily comprising the posterior two thirds of each segment replaced by mirror-image duplication of the anteriorly situated denticle belt; strong alleles delete first denticle row in abdominal segments. May have dorsal hole in cuticle. Embryonic CNS development quasi normal (Patel et al., 1989). Autonomous at the level of single cells as shown by denticulate clones of homozygous cells in the naked cuticle of abdominal segments in arm/+ embryos (Wieschaus and Riggleman, 1987). Clones of homozygous female germ cells arrested at stage 10 of oogenesis (Wieschaus and Noell, 1986). An exception is arm8 for which progeny from homozygous germ-line clones have been recovered (Klingsmith et al., 1989). Cell lethal in imaginal discs; although clones of homozygous cells not observed in adults, their formation seems to engender mirror-image duplications, which are not seen in response to homozygosing other cuticular cell lethals (Wieschaus). Transcript found with minor fluctuations in amount, in all cell types at all stages in development (Riggleman, Wieschaus and Schedl, 1989).
 
hide External Crossreferences & Linkouts
Sequence Crossreferences
RefSeq (Transcripts)
RefSeq (Proteins)
Entrez Gene - A searchable database of RefSeq genes.
Other Crossreferences
InterPro domains - A database of protein families, domains, and functional sites
Armadillo (IPR000225)
Beta-catenin (IPR013284)
Armadillo-type fold (IPR016024)
Linkouts
BioGRID - A database of protein and genetic interactions
DPiM - DPiM, Drosophila Protein interaction Map
DroID - A comprehensive database of gene and protein interactions.
DRSC - Results from RNAi screens.
FLIGHT - Cell culture data for RNAi and other high-throughput technologies
FlyAtlas - Adult expression by tissue, using Affymetrix Dros2 array
FlyMine - Integrated genomics database for Drosophila, Anopheles, and C.elegans
FlyReactome - A curated knowledgebase of Drosophila melanogaster pathways
GenomeRNAi - GenomeRNAi – A database for cell-based and in vivo RNAi phenotypes and reagents
InParanoid A subset of ortholog calls from InParanoid.
Interactive Fly - A cyberspace guide to Drosophila development and metazoan evolution
InterologFinder Protein-protein interactions (PPI) from both known and predicted PPI data sets.
modMine - Data generated by the modENCODE project.
OrthoDB (Arthropod subset) The hierarchical catalog of eukaryotic orthologs.
hide Synonyms & Secondary IDs ( 31 )
Reported As
Symbol Synonym
Arm
(Wei et al., 2004, Solon et al., 2009, Natzle et al., 2008, Wildonger et al., 2005, Nam and Choi, 2003, Noureddine et al., 2002, Glenn and Searles, 2001, Theisen et al., 2000, Zhang et al., 2005, Waldrop et al., 2006, Deng and Meller, 2006, Pepple et al., 2007, Zhou et al., 2007, Kennell and Cadigan, 2007, McCartney et al., 2006, O'Reilly et al., 2006, Laplante and Nilson, 2006, Janody and Treisman, 2006, Kim et al., 2006, Colombani et al., 2006, Wei et al., 2005, Parker et al., 2007, Stadeli, 2006, Franch-Marro et al., 2006, Takacs et al., 2008, Lu and Bilder, 2005, Blair et al., 2006, Genevet et al., 2010, Schneider et al., 2006, Simoes et al., 2006, Tountas and Fortini, 2007, Tolwinski, 2007, Kolsch et al., 2007, Somers and Chia, 2005, Bras-Pereira et al., 2006, Tripura et al., 2011, Zhang and Ward, 2009, Brown et al., 2006, Meyer et al., 2006, D'Alterio et al., 2005, Park et al., 2003, Mirkovic et al., 2011, Bakal et al., 2007, Baena-Lopez et al., 2009, Singh et al., 2010, Fox and Peifer, 2007, Wu et al., 2007, Alexandre et al., 2008, Colosimo and Tolwinski, 2008, Hoffmans and Basler, 2007, Li et al., 2007, Cong et al., 2004, Matsubayashi et al., 2004, Jafar-Nejad et al., 2005, Fernández et al., 2011, Yamashita et al., 2005, Marques, 2005, Fernández et al., 2007, Langdon et al., 2006, Nam and Choi, 2006, Philippakis et al., 2006, Boettner and Van Aelst, 2007, Mendes et al., 2006, Neumuller et al., 2008, Chan et al., 2007, Chan et al., 2008, Weaver and Krasnow, 2008, Wang and Jiang, 2004, Luo et al., 2007, Blauwkamp et al., 2008, Wang et al., 2006, Laprise et al., 2006, Kitadate et al., 2007, Escudero et al., 2007, Estella et al., 2008, Denef et al., 2008, Desprat et al., 2008, Bastock and Strutt, 2007, Buttrick et al., 2008, Li et al., 2008, Medioni et al., 2008, Homem and Peifer, 2008, Yasugi et al., 2008, Nusinow et al., 2008, Lin et al., 2007, Nam et al., 2007, Lechner et al., 2007, Polesello and Tapon, 2007, Carrera et al., 2008, Mulinari et al., 2008, Zeng et al., 2008, Georgiou et al., 2008, Spasić et al., 2008, Schweizer and Varmus, 2003, Firth and Baker, 2009, Hayden et al., 2007, Harris and Tepass, 2008, Mirouse et al., 2009, Strutt and Strutt, 2008, Chang et al., 2008, Cavey et al., 2008, Rafel and Milán, 2008, Peterson-Nedry et al., 2008, Lin and Gubb, 2009, Lee et al., 2009, Kessler and Müller, 2009, Wright and Tjian, 2009, Escudero and Freeman, 2007, Kim et al., 2007, Singh et al., 2006, Genevet et al., 2009, Glavic et al., 2009, Laprise et al., 2009, Bosveld et al., 2008, Urbano et al., 2009, Pek et al., 2009, Baena-Lopez et al., 2008, Jang et al., 2009, Yano et al., 2009, Zhang et al., 2009, Massarwa et al., 2009, Campbell et al., 2009, Li et al., 2007, McGill et al., 2009, Bao and Cagan, 2005, Zhang et al., 2005, Eid et al., 2008, Bertet et al., 2009, Fetting et al., 2009, Sato et al., 2008, Zhang et al., 2009, Langton et al., 2009, Eivers et al., 2009, Fan et al., 2003, Buceta et al., 2007, Bolivar et al., 2006, Sanders et al., 2009, Martinez et al., 2009, Mao et al., 2008, Mathur et al., 2010, Robinson et al., 2010, Zimmerman et al., 2010, Morais-de-Sá et al., 2010, Gallet et al., 2008, Firth and Baker, 2007, Varelas et al., 2010, Taniue et al., 2010, Li et al., 2008, Walther and Pichaud, 2010, Chen et al., 2009, Levine et al., 2010, Quijano et al., 2010, Mukai et al., 2010, Pinal et al., 2006, Neubueser and Hipfner, 2010, Simone and DiNardo, 2010, Tikhmyanova et al., 2010, Reddy et al., 2010, Nilton et al., 2010, Kaido et al., 2009, Harumoto et al., 2010, Kleinschmit et al., 2010, Djiane et al., 2011, Laplante and Nilson, 2011, Kwon et al., 2004, Laplante et al., 2010, König et al., 2011, Mirkovic et al., 2011, Letizia et al., 2011, Zhang et al., 2011, Richard et al., 2009, Bahri et al., 2010, Badouel et al., 2009)
arm
(Hutterer et al., 2004, Thompson, 2004, Peifer et al., 1994, Singh et al., 2006, DasGupta et al., 2005, Pastor-Pareja et al., 2004, Fung et al., 2007, Smelkinson and Kalderon, 2006, Rodrigues et al., 2005, Fox et al., 2005, Murray et al., 2006, Lim and Tomlinson, 2006, McEwen and Peifer, 2005, Stultz et al., 2006, Joshi et al., 2006, Tolwinski and Wieschaus, 2004, Harris and Peifer, 2004, Ryoo et al., 2004, Molnar and de Celis, 2006, Furlong, 2005, Kent et al., 2006, Chao et al., 2007, Estrada et al., 2006, Bartscherer et al., 2006, Fang et al., 2006, Mirkovic and Mlodzik, 2006, Charroux et al., 2006, Blanco et al., 2010, Lim and Choi, 2004, Takada et al., 2005, Takaesu et al., 2005, Zhang et al., 2006, Mehta et al., 2005, Mehta, 2005, Ayyub et al., 2005, Colosimo and Tolwinski, 2006, Pacquelet and Rorth, 2005, Kremer et al., 2010, Langevin et al., 2005, Zhang et al., 2006, Harris and Peifer, 2005, Benchabane et al., 2011, Benchabane et al., 2011, Gonsalves et al., 2011, Seto and Bellen, 2006, Wood et al., 2006, Takacs et al., 2008, Ma et al., 2006, Staedeli and Basler, 2005, Bakal et al., 2007, Grieder et al., 2007, Papadopoulou et al., 2004, Ahmed et al., 1998, Reig et al., 2007, McCaffrey et al., 2006, Kaltenbach et al., 2007, Szafranski and Goode, 2007, Worringer and Panning, 2007, Parker et al., 2008, Zecca and Struhl, 2007, Koizumi et al., 2007, Kankel et al., 2007, Jankovics and Brunner, 2006, Harris and Peifer, 2007, Goodfellow et al., 2007, Takashima et al., 2008, Grammont, 2007, Jang et al., 2008, Rusan et al., 2008, De Renzis et al., 2007, Somorjai and Martinez-Arias, 2008, Estella and Mann, 2008, Benchabane et al., 2008, Shindo et al., 2008, Pope and Harris, 2008, O'Keefe et al., 2007, Baig-Lewis et al., 2007, Bhat, 2007, Fiehler and Wolff, 2007, Wang and Riechmann, 2007, Fiehler and Wolff, 2008, Seppa et al., 2008, Melani et al., 2008, Tran et al., 2008, Price et al., 2006, Leibfried et al., 2008, Miech et al., 2008, Cliffe et al., 2004, Sokac and Wieschaus, 2008, Liu et al., 2008, Romani et al., 2009, Wodarz et al., 2006, Simcox et al., 2008, Gorfinkiel and Arias, 2007, Blankenship et al., 2007, Mitchell et al., 2008, McKay et al., 2009, Mao and Freeman, 2009, Lin et al., 2008, Dichtel-Danjoy et al., 2009, Benítez et al., 2009, Chiang et al., 2009, Xie et al., 2005, Maeda et al., 2008, Worringer et al., 2009, Sinenko et al., 2009, Dworkin et al., 2009, Lee et al., 2009, Svendsen et al., 2009, Kennell et al., 2008, Sawyer et al., 2009, Woolworth et al., 2009, Igaki et al., 2006, Chang et al., 2008, Widmann and Dahmann, 2009, Berger et al., 2005, Pereira et al., 2006, Brás-Pereira and Casares, 2008, Parrish et al., 2009, Fung et al., 2009, Kalamegham et al., 2007, Viquez et al., 2009, Popodi et al., 2010-, Hatton-Ellis et al., 2007, DasGupta et al., 2007, Weake and Scott, 2007, Franz and Riechmann, 2010, Zhao et al., 2008, Baig et al., 2010, Duchi et al., 2010, Lin et al., 2010, Sekine et al., 2008, Jin et al., 2008, Gurunathan et al., 2004, Jones et al., 2010, Buechling et al., 2010, Aldaz et al., 2010, Djiane and Mlodzik, 2010, Martin et al., 2010, Godin et al., 2010, Corrigall et al., 2007, Chen et al., 2010, Sato et al., 2006, Fichelson et al., 2010, Tikhmyanova et al., 2010, Lawrence et al., 2000, Fernandez-Minan et al., 2008, Fiedler et al., 2011, Silver et al., 2007, Kaplan et al., 2011, Kaplan et al., 2009, Simões et al., 2010, Schiemann et al., 2010, Bhambhani et al., 2011, Tolwinski, 2009, Yasugi et al., 2010, Schiemann et al., 2010, Brodland et al., 2010)
l(1)2Bv
 
l(1)G0410
Name Synonym
Armadillo
(Wei et al., 2004, Solon et al., 2009, Natzle et al., 2008, Wang et al., 2000, Townsley et al., 2004, Djiane et al., 2006, Tepass and Harris, 2007, Zhang et al., 2005, Zimmerman et al., 2007, Galletti et al., 2007, Bhambhani et al., 2007, Fox et al., 2005, Keller, 2006, Koppen et al., 2006, Janody and Treisman, 2006, Mosimann et al., 2006, Kim et al., 2006, Nystul and Spradling, 2006, Jones and Bejsovec, 2007, Parker et al., 2007, He and Axelrod, 2006, Bienz, 2006, Schwabe et al., 2005, Blair et al., 2006, Cordero and Cagan, 2010, Romani et al., 2007, Tountas and Fortini, 2007, Silva et al., 2006, Niki et al., 2006, Niki, 2006, Kolsch et al., 2007, Tripura et al., 2011, Tiwari and Roy, 2009, Maqbool et al., 2006, Theisen et al., 2007, Colosimo and Tolwinski, 2006, Ash et al., 2007, Zhang and Ward, 2009, Brown et al., 2006, Zhai et al., 2006, D'Alterio et al., 2005, Sasaki et al., 2007, Wang et al., 2006, Park et al., 2003, Sekyrova et al., 2010, Baena-Lopez et al., 2009, Silva, 2006, Wu et al., 2007, He et al., 2005, Bhambhani et al., 2008, Desai et al., 2008, Sarpal et al., 2008, Alexandre et al., 2008, Song et al., 2008, Zimmerman et al., 2008, Wehrli et al., 2008, Hoffmans and Basler, 2007, Li et al., 2007, Cong et al., 2004, Matsubayashi et al., 2004, Papadopoulou et al., 2004, Gonzalez-Reyes, 2003, Lecuit, 2004, Yamashita et al., 2005, Marques, 2005, Larson et al., 2008, Fernández et al., 2007, van IJzendoorn, 2006, Langdon et al., 2006, Nam and Choi, 2006, Ren et al., 2007, Hackney et al., 2007, Boettner and Van Aelst, 2007, Parker et al., 2008, Mendes et al., 2006, Emoto et al., 2006, Weaver and Krasnow, 2008, Luo et al., 2007, Wang et al., 2006, Blankenship et al., 2006, Jaekel and Klein, 2006, Kitadate et al., 2007, Corrigall et al., 2007, Estella et al., 2008, Desprat et al., 2008, Bogard et al., 2007, Grammont, 2007, Li et al., 2008, Medioni et al., 2008, Rusan et al., 2008, de la Roche and Bienz, 2007, Somorjai and Martinez-Arias, 2008, Shindo et al., 2008, Lin et al., 2007, Polesello and Tapon, 2007, Seppa et al., 2008, Zeng et al., 2008, Llense and Martín-Blanco, 2008, Melani et al., 2008, Port et al., 2008, Tran et al., 2008, Georgiou et al., 2008, Leibfried et al., 2008, Schweizer and Varmus, 2003, Cliffe et al., 2004, Yan et al., 2008, Wodarz et al., 2006, Dansereau and Lasko, 2008, Harris and Tepass, 2008, Mirouse et al., 2009, Gorfinkiel and Arias, 2007, Strutt and Strutt, 2008, Chang et al., 2008, Cavey et al., 2008, Peterson-Nedry et al., 2008, Lin et al., 2008, Grusche et al., 2009, Kessler and Müller, 2009, Wright and Tjian, 2009, Mok et al., 2005, Escudero and Freeman, 2007, Kim et al., 2007, Menzel et al., 2008, Mirth et al., 2009, Genevet et al., 2009, Bosveld et al., 2008, Urbano et al., 2009, Pek et al., 2009, Mieszczanek et al., 2008, Jang et al., 2009, Sheng et al., 2009, Zhang et al., 2009, Campbell et al., 2009, Webb et al., 2009, Li et al., 2007, Warner and Longmore, 2009, Eid et al., 2008, Fetting et al., 2009, Sato et al., 2008, Brás-Pereira and Casares, 2008, Parrish et al., 2009, Glavic et al., 2009, Fung et al., 2009, Choi et al., 2008, Eivers et al., 2009, Buceta et al., 2007, Pines et al., 2010, Sanders et al., 2009, Martinez et al., 2009, Mao et al., 2008, Mathur et al., 2010, Robinson et al., 2010, Franz and Riechmann, 2010, Takashima et al., 2008, Gallet et al., 2008, Lighthouse et al., 2008, Lin et al., 2010, Li et al., 2008, Quijano et al., 2010, Martin et al., 2010, Mukai et al., 2010, Godin et al., 2010, Neubueser and Hipfner, 2010, Simone and DiNardo, 2010, Reddy et al., 2010, Nilton et al., 2010, Kaido et al., 2009, Laplante and Nilson, 2011, Kaplan and Tolwinski, 2010, Bhandari and Shashidhara, 2001, Kwon et al., 2004, Zeng et al., 2010, Buchon et al., 2010, He et al., 2010, Kaplan et al., 2009, Laplante et al., 2010, König et al., 2011, Zappia et al., 2011, Bhambhani et al., 2011, Mirkovic et al., 2011, Letizia et al., 2011, Albornoz et al., 2008, Zhang et al., 2011, Bahri et al., 2010, Badouel et al., 2009)
Armadillo/bgr;-catenin
Armadillo(Arm)/beta-catenin
Β-catenin/Arm
β-catenin
(Harris et al., 2005, Drewes, 2004, Lin, 2003, Maves and Schubiger, 2003, Wallenfang and Matunis, 2003, Emerson and Van Vactor, 2002, Lopez-Schier, 2003, Lecuit and Pilot, 2003, Perez-Moreno et al., 2003, Chihara et al., 2003, Barth and Nelson, 2002, Renfranz and Beckerle, 2002, Fortini, 2001, Knox and Brown, 2002, Magie et al., 2002, Kowalczyk and Moses, 2002, Huppert and Kopan, 2001, Kopan and Goate, 2002, Novak and Dedhar, 1999, Noll et al., 2000, Schock and Perrimon, 2000, Zhang and Derynck, 1999, Maroteaux et al., 1999, Townsley et al., 2004, Hayashi and Carthew, 2004, Geisbrecht and Montell, 2004, Pacquelet et al., 2003, Pirraglia et al., 2006, Leptin, 2005, Heeg-Truesdell, 2006, Murray et al., 2006, Wei et al., 2005, Quaiser, 2006, Nystul and Spradling, 2006, Bienz, 2006, Nurminsky, 2007, Colosimo and Tolwinski, 2006, Holland et al., 2005, Pacquelet and Rorth, 2005, Baena-Lopez et al., 2009, Woolworth and Hsu, 2008, Kapelnikov et al., 2008, Lecuit, 2004, Marques, 2005, van IJzendoorn, 2006, Lin, 2008, Pirraglia et al., 2006, Buttrick et al., 2008, de la Roche and Bienz, 2007, Wang and Riechmann, 2007, Leibfried et al., 2008, Sese et al., 2006, Dansereau and Lasko, 2008, Harris and Tepass, 2008, Gorfinkiel and Arias, 2007, Blankenship et al., 2007, Cavey et al., 2008, Niemitz, 2005, Sato et al., 2008, Takashima et al., 2008, Goldbach et al., 2010, Jones et al., 2010, Mukai et al., 2010, Godin et al., 2010, Pinal et al., 2006, Fichelson et al., 2010, Ji et al., 2008, Buchon et al., 2010, Silver et al., 2007, Kaplan et al., 2009, Martin et al., 2010, Simões et al., 2010, Bhambhani et al., 2011)
Secondary FlyBase IDs
  • FBgn0029069
  • FBgn0040191
  • FBgn0045040
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hide Recent research papers ( 75 )
Benchabane et al., 2011, EMBO J. 30(8): 1444--1458
Jerky/Earthbound facilitates cell-specific Wnt/Wingless signalling by modulating β-catenin-TCF activity. [FBrf0213544]
Bhambhani et al., 2011, EMBO J. 30(10): 2031--2043
The oligomeric state of CtBP determines its role as a transcriptional co-activator and co-repressor of Wingless targets. [FBrf0213805]
Djiane et al., 2011, J. Cell Biol. 192(1): 189--200
Su(dx) E3 ubiquitin ligase-dependent and -independent functions of Polychaetoid, the Drosophila ZO-1 homologue. [FBrf0212737]
Fernández et al., 2011, Development 138(11): 2337--2346
Actin-Capping Protein and the Hippo pathway regulate F-actin and tissue growth in Drosophila. [FBrf0213674]
Fiedler et al., 2011, Proc. Natl. Acad. Sci. U.S.A. 108(5): 1937--1942
Dishevelled interacts with the DIX domain polymerization interface of Axin to interfere with its function in down-regulating {beta}-catenin. [FBrf0212953]
Gonsalves et al., 2011, Proc. Natl. Acad. Sci. U.S.A. 108(15): 5954--5963
An RNAi-based chemical genetic screen identifies three small-molecule inhibitors of the Wnt/wingless signaling pathway. [FBrf0214389]
Jezowska et al., 2011, Dev. Biol. 360(1): 143--159
A dual function of Drosophila capping protein on DE-cadherin maintains epithelial integrity and prevents JNK-mediated apoptosis. [FBrf0216680]
Kaplan et al., 2011, PLoS ONE 6(4): e18616
Complex Interactions between GSK3 and aPKC in Drosophila Embryonic Epithelial Morphogenesis. [FBrf0213424]
König et al., 2011, EMBO J. 30(8): 1549--1562
Ecdysteroids affect Drosophila ovarian stem cell niche formation and early germline differentiation. [FBrf0213531]
Laplante and Nilson, 2011, J. Cell Biol. 192(2): 335--348
Asymmetric distribution of Echinoid defines the epidermal leading edge during Drosophila dorsal closure. [FBrf0212838]
Letizia et al., 2011, J. Cell Sci. 124(2): 240--251
Regulated Crb accumulation controls apical constriction and invagination in Drosophila tracheal cells. [FBrf0212559]
Mirkovic et al., 2011, Nat. Struct. Mol. Biol. 18(6): 665--672
Nemo kinase phosphorylates β-catenin to promote ommatidial rotation and connects core PCP factors to E-cadherin-β-catenin. [FBrf0213849]
Pollarolo et al., 2011, Nat. Neurosci. 14(12): 1525--1533
Cytokinesis remnants define first neuronal asymmetry in vivo. [FBrf0216761]
Sansores-Garcia et al., 2011, EMBO J. 30(12): 2325--2335
Modulating F-actin organization induces organ growth by affecting the Hippo pathway. [FBrf0213953]
Swarup and Verheyen, 2011, Proc. Natl. Acad. Sci. U.S.A. 108(24): 9887--9892
Drosophila homeodomain-interacting protein kinase inhibits the Skp1-Cul1-F-box E3 ligase complex to dually promote Wingless and Hedgehog signaling. [FBrf0214241]
Tripura et al., 2011, Int. J. Dev. Biol. 55(6): 583--590
Regulation and activity of JNK signaling in the wing disc peripodial membrane during adult morphogenesis in Drosophila. [FBrf0216296]
Xu et al., 2011, Dev. Biol. 354(1): 31--43
EGFR, Wingless and JAK/STAT signaling cooperatively maintain Drosophila intestinal stem cells. [FBrf0213634]
Zappia et al., 2011, PLoS ONE 6(5): e19715
M6 membrane protein plays an essential role in Drosophila oogenesis. [FBrf0213770]
Zhang et al., 2011, Development 138(3): 455--464
Regulation of cofilin phosphorylation and asymmetry in collective cell migration during morphogenesis. [FBrf0212692]
Aldaz et al., 2010, Proc. Natl. Acad. Sci. U.S.A. 107(32): 14217--14222
Live imaging of Drosophila imaginal disc development. [FBrf0211511]
Bahri et al., 2010, Development 137(12): 2023--2032
The leading edge during dorsal closure as a model for epithelial plasticity: Pak is required for recruitment of the Scribble complex and septate junction formation. [FBrf0210918]
Baig et al., 2010, Genetics 184(3): 731--744
The chromatin-remodeling protein Osa interacts with CyclinE in Drosophila eye imaginal discs. [FBrf0210399]
Blanco et al., 2010, BMC Dev. Biol. 10: 94
Gene expression following induction of regeneration in Drosophila wing imaginal discs. Expression profile of regenerating wing discs. [FBrf0211812]
Brodland et al., 2010, Proc. Natl. Acad. Sci. U.S.A. 107(51): 22111--22116
Video force microscopy reveals the mechanics of ventral furrow invagination in Drosophila. [FBrf0212586]
Buchon et al., 2010, BMC Biol. 8: 152
Drosophila EGFR pathway coordinates stem cell proliferation and gut remodeling following infection. [FBrf0212840]
Buechling et al., 2010, Curr. Biol. 20(14): 1263--1268
Wnt/Frizzled Signaling Requires dPRR, the Drosophila Homolog of the Prorenin Receptor. [FBrf0211368]
Chen et al., 2010, Proc. Natl. Acad. Sci. U.S.A. 107(36): 15810--15815
The apical-basal cell polarity determinant Crumbs regulates Hippo signaling in Drosophila. [FBrf0211766]
Cordero and Cagan, 2010, Dev. Dyn. 239(3): 875--884
Canonical wingless signaling regulates cone cell specification in the Drosophila retina. [FBrf0210104]
Djiane and Mlodzik, 2010, PLoS ONE 5(6): e11228
The Drosophila GIPC homologue can modulate myosin based processes and planar cell polarity but is not essential for development. [FBrf0211141]
Duchi et al., 2010, Development 137(9): 1493--1503
Drosophila VHL tumor-suppressor gene regulates epithelial morphogenesis by promoting microtubule and aPKC stability. [FBrf0210606]
Fichelson et al., 2010, Development 137(5): 815--824
lethal giant larvae is required with the par genes for the early polarization of the Drosophila oocyte. [FBrf0209930]
Franz and Riechmann, 2010, Dev. Biol. 338(2): 136--147
Stepwise polarisation of the Drosophila follicular epithelium. [FBrf0209855]
Genevet et al., 2010, Dev. Cell 18(2): 300--308
Kibra is a regulator of the Salvador/Warts/Hippo signaling network. [FBrf0211094]
Gettings et al., 2010, PLoS Biol. 8(6): e1000390
JNK Signalling Controls Remodelling of the Segment Boundary through Cell Reprogramming during Drosophila Morphogenesis. [FBrf0211014]
Godin et al., 2010, EMBO J. 29(14): 2433--2445
Mutant huntingtin-impaired degradation of beta-catenin causes neurotoxicity in Huntington's disease. [FBrf0211344]
Goldbach et al., 2010, Mol. Biol. Cell 21(9): 1482--1493
Stabilization of the actomyosin ring enables spermatocyte cytokinesis in Drosophila. [FBrf0210683]
Harumoto et al., 2010, Dev. Cell 19(3): 389--401
Atypical cadherins dachsous and fat control dynamics of noncentrosomal microtubules in planar cell polarity. [FBrf0211754]
He et al., 2010, Nat. Cell Biol. 12(12): 1133--1142
Tissue elongation requires oscillating contractions of a basal actomyosin network. [FBrf0212453]
Jones et al., 2010, J. Cell Sci. 123(13): 2179--2189
Cytokinesis proteins Tum and Pav have a nuclear role in Wnt regulation. [FBrf0211056]
Kaplan and Tolwinski, 2010, J. Cell Sci. 123(18): 3157--3165
Spatially defined Dsh-Lgl interaction contributes to directional tissue morphogenesis. [FBrf0211705]
Kim et al., 2010, Mol. Cells 29(1): 93--98
Blood-brain barrier defects associated with Rbp9 mutation. [FBrf0210543]
Kleinschmit et al., 2010, Dev. Biol. 345(2): 204--214
Drosophila heparan sulfate 6-O endosulfatase regulates Wingless morphogen gradient formation. [FBrf0211640]
Konikoff et al., 2010, J. Mol. Evol. 70(4): 303--312
Distinct molecular evolutionary mechanisms underlie the functional diversification of the Wnt and TGFbeta signaling pathways. [FBrf0210842]
Kremer et al., 2010, Dev. Biol. 337(1): 110--123
In vivo analysis in Drosophila reveals differential requirements of contact residues in Axin for interactions with GSK3beta or beta-catenin. [FBrf0209417]
Laplante et al., 2010, Dev. Dyn. 239(9): 2509--2519
Echinoid regulates tracheal morphology and fusion cell fate in Drosophila. [FBrf0211771]
Levine et al., 2010, Dev. Biol. 344(1): 196--209
Opposing interactions between Drosophila Cut and the C/EBP encoded by Slow Border Cells direct apical constriction and epithelial invagination. [FBrf0211314]
Lin et al., 2010, J. Mol. Cell. Biol. 2(1): 37--49
Paracrine Unpaired Signaling through the JAK/STAT Pathway Controls Self-renewal and Lineage Differentiation of Drosophila Intestinal Stem Cells. [FBrf0209721]
Martin et al., 2010, J. Cell Biol. 188(5): 735--749
Integration of contractile forces during tissue invagination. [FBrf0210158]
Mathur et al., 2010, Science 327(5962): 210--213
A transient niche regulates the specification of Drosophila intestinal stem cells. [FBrf0209706]
Morais-de-Sá et al., 2010, Cell 141(3): 509--523
aPKC phosphorylation of Bazooka defines the apical/lateral border in Drosophila epithelial cells. [FBrf0210663]
Mukai et al., 2010, EMBO J. 29(13): 2114--2125
Balanced ubiquitylation and deubiquitylation of Frizzled regulate cellular responsiveness to Wg/Wnt. [FBrf0211204]
Neely et al., 2010, Cell 141(1): 142--153
A global in vivo Drosophila RNAi screen identifies NOT3 as a conserved regulator of heart function. [FBrf0210524]
Neubueser and Hipfner, 2010, Mol. Biol. Cell 21(16): 2869--2879
Overlapping roles of Drosophila drak and rok kinases in epithelial tissue morphogenesis. [FBrf0211530]
Nilton et al., 2010, Development 137(14): 2427--2437
Crooked, coiled and crimpled are three Ly6-like proteins required for proper localization of septate junction components. [FBrf0211147]
Pines et al., 2010, Development 137(6): 913--922
The cytolinker Pigs is a direct target and a negative regulator of Notch signalling. [FBrf0210124]
Prestel et al., 2010, Mol. Cell 38(6): 815--826
The Activation Potential of MOF Is Constrained for Dosage Compensation. [FBrf0211211]
Quijano et al., 2010, PLoS ONE 5(7): e11619
The Sno Oncogene Antagonizes Wingless Signaling during Wing Development in Drosophila. [FBrf0211340]
Quinones et al., 2010, J. Cell Biol. 189(2): 353--367
I-BAR protein antagonism of endocytosis mediates directional sensing during guided cell migration. [FBrf0210570]
Reddy et al., 2010, Development 137(14): 2397--2408
Influence of fat-hippo and notch signaling on the proliferation and differentiation of Drosophila optic neuroepithelia. [FBrf0211109]
Robinson et al., 2010, Curr. Biol. 20(7): 582--590
Crumbs regulates Salvador/Warts/Hippo signaling in Drosophila via the FERM-domain protein expanded. [FBrf0210560]
Schiemann et al., 2010, BMC Mol. Biol. 11: 80
Sex-biased transcription enhancement by a 5' tethered Gal4-MOF histone acetyltransferase fusion protein in Drosophila. [FBrf0212392]
Schiemann et al., 2010, Biochem. Biophys. Res. Commun. 402(4): 699--704
The importance of location and orientation of male specific lethal complex binding sites of differing affinities on reporter gene dosage compensation in Drosophila. [FBrf0212385]
Sekyrova et al., 2010, Development 137(1): 141--150
Interaction between Drosophila bZIP proteins Atf3 and Jun prevents replacement of epithelial cells during metamorphosis. [FBrf0209550]
Simone and DiNardo, 2010, Development 137(8): 1385--1394
Actomyosin contractility and Discs large contribute to junctional conversion in guiding cell alignment within the Drosophila embryonic epithelium. [FBrf0210407]
Simões et al., 2010, Dev. Cell 19(3): 377--388
Rho-Kinase Directs Bazooka/Par-3 Planar Polarity during Drosophila Axis Elongation. [FBrf0211783]
Singh et al., 2010, J. Cell. Physiol. 223(2): 500--510
Competitiveness for the niche and mutual dependence of the germline and somatic stem cells in the Drosophila testis are regulated by the JAK/STAT signaling. [FBrf0210092]
Suzanne et al., 2010, Curr. Biol. 20(19): 1773--1778
Coupling of apoptosis and L/R patterning controls stepwise organ looping. [FBrf0212013]
Taniue et al., 2010, Development 137(10): 1755--1764
Sunspot, a link between Wingless signaling and endoreplication in Drosophila. [FBrf0210642]
Tikhmyanova et al., 2010, PLoS ONE 5(8): e12369
Dcas supports cell polarization and cell-cell adhesion complexes in development. [FBrf0211678]
Varelas et al., 2010, Dev. Cell 18(4): 579--591
The Hippo pathway regulates Wnt/beta-catenin signaling. [FBrf0210631]
Walther and Pichaud, 2010, Curr. Biol. 20(12): 1065--1074
Crumbs/DaPKC-Dependent Apical Exclusion of Bazooka Promotes Photoreceptor Polarity Remodeling. [FBrf0211169]
Yasugi et al., 2010, Development 137(19): 3193--3203
Coordinated sequential action of EGFR and Notch signaling pathways regulates proneural wave progression in the Drosophila optic lobe. [FBrf0211765]
Zeng et al., 2010, J. Cell. Physiol. 224(3): 766--774
Tumor suppressors Sav/scrib and oncogene ras regulate stem-cell transformation in adult Drosophila malpighian tubules. [FBrf0211181]
Zhang et al., 2010, Cell Death Differ. 17(10): 1551--1565
Cytoplasmic polyadenylation element binding protein is a conserved target of tumor suppressor HRPT2/CDC73. [FBrf0211791]
Zimmerman et al., 2010, Dev. Biol. 340(1): 54--66
Apical constriction and invagination downstream of the canonical Wnt signaling pathway require Rho1 and Myosin II. [FBrf0210185]
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