The gene Mothers against dpp is referred to in FlyBase by the symbol Dmel\Mad (CG12399, FBgn0011648). It is a protein_coding_gene from Drosophila melanogaster. There is experimental evidence that it has the molecular function: protein binding; RNA polymerase II distal enhancer sequence-specific DNA binding; sequence-specific DNA binding; RNA polymerase II distal enhancer sequence-specific DNA binding transcription factor activity; RNA polymerase II activating transcription factor binding; RNA polymerase II transcription coactivator activity. There is experimental evidence for 18 unique biological process terms, many of which group under: biological regulation; single-organism developmental process; post-embryonic organ morphogenesis; regulation of developmental process; multicellular organism reproduction; sensory organ development; stem cell differentiation; appendage development; ovarian follicle cell development; cellular response to endogenous stimulus; positive regulation of cellular component biogenesis; regulation of S phase of mitotic cell cycle; localization; positive regulation of cellular biosynthetic process; trunk segmentation; negative regulation of metabolic process. 91 alleles are reported. The phenotypes of these alleles are annotated with: organ system; adult segment; organ system subdivision; thoracic segment; portion of tissue; imaginal precursor; synapse; tracheal system; embryonic/larval hemocoel; embryonic/larval fat body; epithelial furrow; external compound sense organ. It has 2 annotated transcripts and 2 annotated polypeptides. Protein features are: Dwarfin; MAD homology 1, Dwarfin-type; MAD homology, MH1; SMAD domain, Dwarfin-type; SMAD domain-like; SMAD/FHA domain. Summary of modENCODE Temporal Expression Profile: Temporal profile ranges from a peak of high expression to a trough of moderate expression. Peak expression observed at stages throughout embryogenesis. Summary of FlyAtlas Anatomical Expression Data: Nearly all larval and adult tissues/organs expressed at moderate levels. Expression at high levels in the following post-embryonic organs or tissues: adult ovary. Expression at moderate levels in the following post-embryonic organs or tissues: adult head, larval/adult central nervous system, adult crop, larval/adult midgut, larval/adult hindgut, larval/adult Malpighian tubules, adult heart, larval/adult fat body, larval/adult salivary gland, larval trachea, adult spermathecae, adult male accessory gland, larval/adult carcass. Comments on Affy2 ProbeSet: ProbeSet 1634683_at completely aligns to an exonic region of the only FlyBase-annotated transcript isoform of Mad. Gene sequence location is 2L:3146056..3159643.
User Contributed Data
External Summaries
Phenotypic Description from the Red Book (Lindsley
& Zimm 1992)
Gene/Allele symbols may differ
from current usage
apg: apang
Homozygotes when raised at 19 show occasional
absence of one or both claws; veins L4 and L5 interrupted;
fertile at 19 but become sterile when shifted to 28; produce
embryos with range of germ band abnormalities. Homozygous
pupal lethal when raised at 28; pharate adults show defective
tarsal development of all six legs; condensed, poorly
developed and curved metatarsus and tarsi; duplications in
tibial and tarsal segments; claws absent. Temperature sensitive period first instar to early pupa.
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Mad 2.6kb transcripts are detected in all developmental stages but are most abundant in early embryos, pupae, and adult females. A minor slightly smaller transcript is also detected in 0-4hr embryos.
The phosphorylated form of Mad protein is detected in two stripes in the eye disc: one corresponding to the morphogenetic furrow and the other anterior to it. No expression of phosphorylated Mad is detected in glial cells in the eye disc.
Summary of FlyAtlas Anatomical Expression Data: Nearly all larval and adult tissues/organs expressed at moderate levels. Expression at high levels in the following post-embryonic organs or tissues: adult ovary. Expression at moderate levels in the following post-embryonic organs or tissues: adult head, larval/adult central nervous system, adult crop, larval/adult midgut, larval/adult hindgut, larval/adult Malpighian tubules, adult heart, larval/adult fat body, larval/adult salivary gland, larval trachea, adult spermathecae, adult male accessory gland, larval/adult carcass.
[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 (>999.999)
Linear, scaled to maximum expression level
Tissue
Expression Level
Larval Central Nervous System
231.625
Larval Midgut
336.5
Larval Hindgut
163.7
Larval Malpighian Tubules
203.5
Larval Fat Body
235.5
Larval Salivary Gland
183.4
Larval Trachea
125.625
Larval Carcass
215.9
Adult Head
131.8
Adult Eye
83.7
Adult Brain
153
Adult Thoracic-Abdominal Ganglion
145.5
Adult Crop
146.3
Adult Midgut
279.2
Adult Hindgut
119.9
Adult Malpighian Tubules
127.4
Adult Fat Body
314.5
Adult Salivary Gland
194.6
Adult Heart
170.35
Adult VirginFemale Spermatheca
243.9
Adult InseminatedFemale Spermatheca
248.5
Adult Ovary
524.1
Adult Testis
77.5
Adult Male Accessory Gland
168.2
Adult Carcass
150.5
Expression Level Scale
None
Low
Moderate
High
Linear, scaled to Moderate expression
Tissue
Expression Level
Larval Central Nervous System
231.625
Larval Midgut
336.5
Larval Hindgut
163.7
Larval Malpighian Tubules
203.5
Larval Fat Body
235.5
Larval Salivary Gland
183.4
Larval Trachea
125.625
Larval Carcass
215.9
Adult Head
131.8
Adult Eye
83.7
Adult Brain
153
Adult Thoracic-Abdominal Ganglion
145.5
Adult Crop
146.3
Adult Midgut
279.2
Adult Hindgut
119.9
Adult Malpighian Tubules
127.4
Adult Fat Body
314.5
Adult Salivary Gland
194.6
Adult Heart
170.35
Adult VirginFemale Spermatheca
243.9
Adult InseminatedFemale Spermatheca
248.5
Adult Ovary
524.1
Adult Testis
77.5
Adult Male Accessory Gland
168.2
Adult Carcass
150.5
Expression Level Scale
None
Low
Moderate
High
Linear, scaled to High level expression
Tissue
Expression Level
Larval Central Nervous System
231.625
Larval Midgut
336.5
Larval Hindgut
163.7
Larval Malpighian Tubules
203.5
Larval Fat Body
235.5
Larval Salivary Gland
183.4
Larval Trachea
125.625
Larval Carcass
215.9
Adult Head
131.8
Adult Eye
83.7
Adult Brain
153
Adult Thoracic-Abdominal Ganglion
145.5
Adult Crop
146.3
Adult Midgut
279.2
Adult Hindgut
119.9
Adult Malpighian Tubules
127.4
Adult Fat Body
314.5
Adult Salivary Gland
194.6
Adult Heart
170.35
Adult VirginFemale Spermatheca
243.9
Adult InseminatedFemale Spermatheca
248.5
Adult Ovary
524.1
Adult Testis
77.5
Adult Male Accessory Gland
168.2
Adult Carcass
150.5
Expression Level Scale
None
Low
Moderate
High
Very high
Linear, scaled to Very high expression
Tissue
Expression Level
Larval Central Nervous System
231.625
Larval Midgut
336.5
Larval Hindgut
163.7
Larval Malpighian Tubules
203.5
Larval Fat Body
235.5
Larval Salivary Gland
183.4
Larval Trachea
125.625
Larval Carcass
215.9
Adult Head
131.8
Adult Eye
83.7
Adult Brain
153
Adult Thoracic-Abdominal Ganglion
145.5
Adult Crop
146.3
Adult Midgut
279.2
Adult Hindgut
119.9
Adult Malpighian Tubules
127.4
Adult Fat Body
314.5
Adult Salivary Gland
194.6
Adult Heart
170.35
Adult VirginFemale Spermatheca
243.9
Adult InseminatedFemale Spermatheca
248.5
Adult Ovary
524.1
Adult Testis
77.5
Adult Male Accessory Gland
168.2
Adult Carcass
150.5
Expression Level Scale
Very high
log, scaled to maximum expression level
Tissue
Expression Level
Larval Central Nervous System
231.625
Larval Midgut
336.5
Larval Hindgut
163.7
Larval Malpighian Tubules
203.5
Larval Fat Body
235.5
Larval Salivary Gland
183.4
Larval Trachea
125.625
Larval Carcass
215.9
Adult Head
131.8
Adult Eye
83.7
Adult Brain
153
Adult Thoracic-Abdominal Ganglion
145.5
Adult Crop
146.3
Adult Midgut
279.2
Adult Hindgut
119.9
Adult Malpighian Tubules
127.4
Adult Fat Body
314.5
Adult Salivary Gland
194.6
Adult Heart
170.35
Adult VirginFemale Spermatheca
243.9
Adult InseminatedFemale Spermatheca
248.5
Adult Ovary
524.1
Adult Testis
77.5
Adult Male Accessory Gland
168.2
Adult Carcass
150.5
Expression Level Scale
None
Low
Moderate
High
log, scaled to Moderate expression
Tissue
Expression Level
Larval Central Nervous System
231.625
Larval Midgut
336.5
Larval Hindgut
163.7
Larval Malpighian Tubules
203.5
Larval Fat Body
235.5
Larval Salivary Gland
183.4
Larval Trachea
125.625
Larval Carcass
215.9
Adult Head
131.8
Adult Eye
83.7
Adult Brain
153
Adult Thoracic-Abdominal Ganglion
145.5
Adult Crop
146.3
Adult Midgut
279.2
Adult Hindgut
119.9
Adult Malpighian Tubules
127.4
Adult Fat Body
314.5
Adult Salivary Gland
194.6
Adult Heart
170.35
Adult VirginFemale Spermatheca
243.9
Adult InseminatedFemale Spermatheca
248.5
Adult Ovary
524.1
Adult Testis
77.5
Adult Male Accessory Gland
168.2
Adult Carcass
150.5
Expression Level Scale
None
Low
Moderate
High
log, scaled to High level expression
Tissue
Expression Level
Larval Central Nervous System
231.625
Larval Midgut
336.5
Larval Hindgut
163.7
Larval Malpighian Tubules
203.5
Larval Fat Body
235.5
Larval Salivary Gland
183.4
Larval Trachea
125.625
Larval Carcass
215.9
Adult Head
131.8
Adult Eye
83.7
Adult Brain
153
Adult Thoracic-Abdominal Ganglion
145.5
Adult Crop
146.3
Adult Midgut
279.2
Adult Hindgut
119.9
Adult Malpighian Tubules
127.4
Adult Fat Body
314.5
Adult Salivary Gland
194.6
Adult Heart
170.35
Adult VirginFemale Spermatheca
243.9
Adult InseminatedFemale Spermatheca
248.5
Adult Ovary
524.1
Adult Testis
77.5
Adult Male Accessory Gland
168.2
Adult Carcass
150.5
Expression Level Scale
None
Low
Moderate
High
Very high
log, scaled to Very high expression
Tissue
Expression Level
Larval Central Nervous System
231.625
Larval Midgut
336.5
Larval Hindgut
163.7
Larval Malpighian Tubules
203.5
Larval Fat Body
235.5
Larval Salivary Gland
183.4
Larval Trachea
125.625
Larval Carcass
215.9
Adult Head
131.8
Adult Eye
83.7
Adult Brain
153
Adult Thoracic-Abdominal Ganglion
145.5
Adult Crop
146.3
Adult Midgut
279.2
Adult Hindgut
119.9
Adult Malpighian Tubules
127.4
Adult Fat Body
314.5
Adult Salivary Gland
194.6
Adult Heart
170.35
Adult VirginFemale Spermatheca
243.9
Adult InseminatedFemale Spermatheca
248.5
Adult Ovary
524.1
Adult Testis
77.5
Adult Male Accessory Gland
168.2
Adult Carcass
150.5
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
Summary of modENCODE Temporal Expression Profile: Temporal profile ranges from a peak of high expression to a trough of moderate expression. Peak expression observed at stages throughout embryogenesis.
[download data (TSV)]
Please Note FlyBase no
longer curates genomic clone accessions so this list
may not be complete
cDNA Clones ( 132 )
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.
One of five genes identified as encoding downstream components of the dpp signalling cascade which is necessary for blocking salivary gland gene activation by Scr in the dorsal region of parasegment 2. Mad function is required to block salivary gland formation in dorsal regions of PS2.
Transcriptional activation of Ubx is subject to competition between dpp-activated Mad and another Smad whose function as a transcriptional repressor depends on high wg signalling.
The amino-terminal domain of the Mad protein contains a sequence-specific DNA-binding activity that becomes apparent when carboxy-terminal residues are removed. Mad protein binds to and is required for the activation of an enhancer within the vg gene in cells across the entire developing wing blade.
Signalling by constitutively active tkv mutation is suppressed by heterozygosity for Mad mutations. These results indicate that Mad functions downstream of the tkv receptor.
Mad is required for any response of the visceral mesoderm or endoderm to dpp signals from the visceral mesoderm and is required specifically in cells responding to dpp. Mad can function in the signalling pathway of BMP-4 in Xenopus embryos, and is thus a highly conserved and essential element of the dpp signalling pathway.
Mad is required for dpp signalling during eye development. Clonal analysis demonstrated that this requirement is cell autonomous. Mad is an essential component of the signal transduction pathway downstream of the dpp receptors in responding cells. Mad-mediated dpp signaling is absolutely required for the initiation of the morphogenetic furrow in the eye, but has only a minor role in its subsequent propagation across the eye disc.
Mad has been identified independently in two screens, one for dominant enhancers of the dpp mutant phenotype and dosage sensitive interactions with dpp. Mad mutant phenotypes show patterning defects that resemble many dpp mutant phenotypes. Studies of ectopic expression, tissue-specific expression and in situ hybridizations are consistent with a role for Mad downstream of dpp in the signalling pathway.
Genetic characterisation indicates Mad encodes a product essential for dpp function. Molecular analysis demonstrates the Mad protein is a member of a novel protein family that is highly conserved throughout metazoans.
Loss of function mutations of Mad are dominant maternal effect enhancers of dpp during early embryogenesis and dominant zygotic enhancers of dpp in imaginal discs.
Ables and Drummond-Barbosa, 2013, Development 140(3): 530--540
Cyclin E controls Drosophila female germline stem cell maintenance independently of its role in proliferation by modulating responsiveness to niche signals. [FBrf0220400]
Baker, 2013, PLoS ONE 8(3): e58266
Developmental Regulation of Nucleolus Size during Drosophila Eye Differentiation. [FBrf0220989]
Gorostiza and Ceriani, 2013, J. Neurosci. 33(2): 687--696
Retrograde bone morphogenetic protein signaling shapes a key circadian pacemaker circuit. [FBrf0220479]
Peterson and O'Connor, 2013, Development 140(3): 649--659
Activin receptor inhibition by Smad2 regulates Drosophila wing disc patterning through BMP-response elements. [FBrf0220378]
Rockel et al., 2013, Nucleic Acids Res. 41(4): e52
iSLIM: a comprehensive approach to mapping and characterizing gene regulatory networks. [FBrf0220859]
Aboukhalil and Bulyk, 2012, Bioinformatics 28(11): 1446--1454
LOESS correction for length variation in gene set-based genomic sequence analysis. [FBrf0218376]
Agelopoulos et al., 2012, Cell Rep. 1(4): 350--359
Developmental regulation of chromatin conformation by Hox proteins in Drosophila. [FBrf0218139]
Akiyama et al., 2012, Sci. Signal. 5(218): ra28
A Large Bioactive BMP Ligand with Distinct Signaling Properties Is Produced by Alternative Proconvertase Processing. [FBrf0217914]
Beck et al., 2012, J. Neurosci. 32(20): 7058--7073
Regulation of Fasciclin II and Synaptic Terminal Development by the Splicing Factor Beag. [FBrf0218385]
Cash and Andrews, 2012, BMC Dev. Biol. 12: 4
Fine scale analysis of gene expression in Drosophila melanogaster gonads reveals Programmed cell death 4 promotes the differentiation of female germline stem cells. [FBrf0217547]
Chen et al., 2012, Development 139(12): 2170--2176
Crossveinless d is a vitellogenin-like lipoprotein that binds BMPs and HSPGs, and is required for normal BMP signaling in the Drosophila wing. [FBrf0218386]
Dahal et al., 2012, Development 139(19): 3653--3664
An inwardly rectifying K+ channel is required for patterning. [FBrf0219361]
Eade et al., 2012, PLoS Genet. 8(2): e1002501
Developmental transcriptional networks are required to maintain neuronal subtype identity in the mature nervous system. [FBrf0217668]
Fischer et al., 2012, PLoS ONE 7(8): e42349
fussel (fuss) - A Negative Regulator of BMP Signaling in Drosophila melanogaster. [FBrf0219160]
Gomez et al., 2012, J. Cell Biol. 199(7): 1131--1143
Tao controls epithelial morphogenesis by promoting Fasciclin 2 endocytosis. [FBrf0220436]
Junion et al., 2012, Cell 148(3): 473--486
A transcription factor collective defines cardiac cell fate and reflects lineage history. [FBrf0217404]
Kagey et al., 2012, Mech. Dev. 129(9-12): 339--349
Regulation of Yorkie activity in Drosophila imaginal discs by the Hedgehog receptor gene patched. [FBrf0219794]
Karim et al., 2012, J. R. Soc. Interface 9(70): 1073--1083
Secreted, receptor-associated bone morphogenetic protein regulators reduce stochastic noise intrinsic to many extracellular morphogen distributions. [FBrf0217860]
Kim and Marqués, 2012, Dev. Neurobiol. 72(12): 1541--1558
The Ly6 neurotoxin-like molecule target of wit regulates spontaneous neurotransmitter release at the developing neuromuscular junction in Drosophila. [FBrf0219871]
Le and Wharton, 2012, Dev. Dyn. 241(1): 200--214
Hyperactive BMP signaling induced by ALK2(R206H) requires type II receptor function in a Drosophila model for classic fibrodysplasia ossificans progressiva. [FBrf0217004]
Lu et al., 2012, PLoS Biol. 10(7): e1001357
Niche-associated activation of rac promotes the asymmetric division of Drosophila female germline stem cells. [FBrf0218889]
Mulligan et al., 2012, Proc. Natl. Acad. Sci. U.S.A. 109(2): 370--377
Drosophila nucleoporin Nup154 controls cell viability, proliferation and nuclear accumulation of Mad transcription factor. [FBrf0214248]
Dejima et al., 2011, J. Biol. Chem. 286(19): 17103--17111
Novel Contact-dependent Bone Morphogenetic Protein (BMP) Signaling Mediated by Heparan Sulfate Proteoglycans. [FBrf0213647]
Dworkin et al., 2011, Genetics 187(4): 1171--1184
The effects of weak genetic perturbations on the transcriptome of the wing imaginal disc and its association with wing shape in Drosophila melanogaster. [FBrf0214376]
Eivers et al., 2011, Sci. Signal. 4(194): ra68
Phosphorylation of Mad Controls Competition Between Wingless and BMP Signaling. [FBrf0216411]
Gancz et al., 2011, PLoS Biol. 9(11): e1001202
Coordinated regulation of niche and stem cell precursors by hormonal signaling. [FBrf0217934]
Giorgianni and Mann, 2011, Dev. Cell 20(4): 455--468
Establishment of Medial Fates along the Proximodistal Axis of the Drosophila Leg through Direct Activation of dachshund by Distalless. [FBrf0213490]
Goldstein et al., 2011, Hum. Mol. Genet. 20(5): 894--904
SMAD signaling drives heart and muscle dysfunction in a Drosophila model of muscular dystrophy. [FBrf0212934]
Hamaratoglu et al., 2011, PLoS Biol. 9(10): e1001182
Dpp signaling activity requires pentagone to scale with tissue size in the growing Drosophila wing imaginal disc. [FBrf0216502]
Harris et al., 2011, Dev. Cell 20(1): 72--83
Brat Promotes Stem Cell Differentiation via Control of a Bistable Switch that Restricts BMP Signaling. [FBrf0212787]
Huang et al., 2011, Development 138(11): 2283--2291
DPP-mediated TGF{beta} signaling regulates juvenile hormone biosynthesis by activating the expression of juvenile hormone acid methyltransferase. [FBrf0213687]
James and Broihier, 2011, Development 138(15): 3273--3286
Crimpy inhibits the BMP homolog Gbb in motoneurons to enable proper growth control at the Drosophila neuromuscular junction. [FBrf0214390]
Kaneko et al., 2011, Proc. Natl. Acad. Sci. U.S.A. 108(27): 11127--11132
Smad inhibition by the Ste20 kinase Misshapen. [FBrf0214278]
König et al., 2011, EMBO J. 30(8): 1549--1562
Ecdysteroids affect Drosophila ovarian stem cell niche formation and early germline differentiation. [FBrf0213531]
Layalle et al., 2011, Development 138(11): 2315--2323
Engrailed homeoprotein acts as a signaling molecule in the developing fly. [FBrf0213689]
Li et al., 2011, Genome Biol. 12(4): R34
The role of chromatin accessibility in directing the widespread, overlapping patterns of Drosophila transcription factor binding. [FBrf0216471]
Liu et al., 2011, Dev. Growth Differ. 53(6): 822--841
Negative modulation of bone morphogenetic protein signaling by Dullard during wing vein formation in Drosophila. [FBrf0214664]
Mikhaylova and Nurminsky, 2011, BMC Biol. 9: 29
Lack of global meiotic sex chromosome inactivation, and paucity of tissue-specific gene expression on the Drosophila X chromosome. [FBrf0213839]
Miller et al., 2011, J. Neurosci. 31(14): 5335--5347
Drosophila mmp2 regulates the matrix molecule faulty attraction (frac) to promote motor axon targeting in Drosophila. [FBrf0213409]
Niepielko et al., 2011, Dev. Biol. 354(1): 151--159
BMP signaling dynamics in the follicle cells of multiple Drosophila species. [FBrf0213633]
Nègre et al., 2011, Nature 471(7339): 527--531
A cis-regulatory map of the Drosophila genome. [FBrf0213303]
O'Keefe et al., 2011, Mech. Dev. 128(1-2): 59--70
EndoGI modulates Notch signaling and axon guidance in Drosophila. [FBrf0213012]
Ogiso et al., 2011, Dev. Growth Differ. 53(5): 668--678
Robustness of the Dpp morphogen activity gradient depends on negative feedback regulation by the inhibitory Smad, Dad. [FBrf0213936]
Oh and Irvine, 2011, Dev. Cell 20(1): 109--122
Cooperative Regulation of Growth by Yorkie and Mad through bantam. [FBrf0212763]
Peluso et al., 2011, Dev. Cell 21(2): 375--383
Shaping BMP Morphogen Gradients through Enzyme-Substrate Interactions. [FBrf0214661]
Qian et al., 2011, Genomics 97(5): 294--303
The full-length transcripts and promoter analysis of intergenic microRNAs in Drosophila melanogaster. [FBrf0213652]
Quijano et al., 2011, Genetics 189(3): 809--824
Wg Signaling via Zw3 and Mad Restricts Self-Renewal of Sensory Organ Precursor Cells in Drosophila. [FBrf0216675]
Reddy and Irvine, 2011, Development 138(23): 5201--5212
Regulation of Drosophila glial cell proliferation by Merlin-Hippo signaling. [FBrf0216584]
Rodal et al., 2011, J. Cell Biol. 193(1): 201--217
A presynaptic endosomal trafficking pathway controls synaptic growth signaling. [FBrf0213353]
Rodriguez, 2011, PLoS ONE 6(4): e18418
Drosophila TIEG Is a Modulator of Different Signalling Pathways Involved in Wing Patterning and Cell Proliferation. [FBrf0213463]
Szuperák et al., 2011, Development 138(4): 715--724
Feedback regulation of Drosophila BMP signaling by the novel extracellular protein Larval Translucida. [FBrf0212881]
Vlachos and Harden, 2011, Genetics 187(2): 501--512
Genetic Evidence for Antagonism Between Pak Protein Kinase and Rho1 Small GTPase Signaling in Regulation of the Actin Cytoskeleton During Drosophila Oogenesis. [FBrf0212983]
Wang et al., 2011, Cell Res. 21(4): 700--703
Effective gene silencing in Drosophila ovarian germline by artificial microRNAs. [FBrf0213407]
Yuva-Aydemir et al., 2011, J. Neurosci. 31(19): 7005--7015
Spinster Controls Dpp Signaling during Glial Migration in the Drosophila Eye. [FBrf0213705]