Results 11 to 20 of about 147,070 (132)

Accumulation of B-chromosomes in Drosophila kikkawai Burla. [PDF]

Cytobios, 1994
Uploaded by Plazi for TaxoDros. We do not have abstracts.
A K, Sundaran, J P, Gupta
  +57 more sources

Drosophila kikkawai

, 2006
Drosophila kikkawai complex Tsacas & David Drosophila kikkawai complex—Tsacas & David, 1978 [1977], Annls. Soc. Ent. Fr. 13 (4), p. 689 Drosophila kikkawai is one of a cluster of very similar species, including anomelani, barbarae, brevis ...
Schiffer, Michele, Mcevey, Shane F.
core   +2 more sources

Drosophila kikkawai - Sox102F. [PDF]

MicroPubl Biol
The Drosophila kikkawai feature with NCBI Gene ID 108084518 was determined to be an ortholog of Drosophila melanogaster Sox102F, a member of the FlyBase High Mobility Group Box Transcription Factors gene group (FBgg0000748). Five isoforms were constructed using the GEP F element annotation protocol, the longest being novel isoform Sox102F-PNE ...
Mo M, LoBello L, Hassan Farah I, Agtang E, Ramos EL, Abdoli R, Santander Diaz L, Helena Schumann Ferreira L, Kokan N, Sadikot T, Sawa A, Arrigo C.   +11 more
europepmc   +3 more sources

Ancestral polymorphisms in Drosophila pseudoobscura and Drosophila miranda [PDF]

, 2011
Ancestral polymorphisms are defined as variants that arose by mutation prior to the speciation event that generated the species in which they segregate. Their presence may complicate the interpretation of molecular data and lead to incorrect phylogenetic
Haddrill, Penelope R, REUBEN W. NOWELL, PENELOPE R. HADDRILL, Charlesworth, Brian, Nowell, Reuben W., BRIAN CHARLESWORTH, Nowell, Reuben W, Haddrill, Penelope R.   +7 more
core   +4 more sources

Drosophila kikkawai ortholog of the D. melanogaster Muller D element ash1. [PDF]

MicroPubl Biol
The Drosophila kikkawai feature with Gene ID 108083276 was determined to be an ortholog of Drosophila melanogaster absent, small, or homeotic discs 1 ( ash1 ). Two isoforms, ash1-PB and ash1-PC, were constructed on the D. kikkawai Muller D element using the GEP annotation protocol. The second coding exon of D.
Mo M, Sabb D, LoBello L, Chambers K, Kershaw K, Welles C, Kurucz J, Rhyne C, Nichols A, Stanga J, Bedard JEJ, Arrigo C.   +11 more
europepmc   +3 more sources

Molecular evolution and functional characterization of Drosophila insulin-like peptides [PDF]

, 2010
Multicellular animals match costly activities, such as growth and reproduction, to the environment through nutrient-sensing pathways. The insulin/IGF signaling (IIS) pathway plays key roles in growth, metabolism, stress resistance, reproduction, and ...
Gronke, S, Clarke, DF, Linda Partridge, Partridge, Linda, Andrews, T., Partridge, L., Broughton, S, Broughton, Susan, David-Francis Clarke, T Daniel Andrews, Grönke, S., Andrews, T Daniel, Grönke, Sebastian, Broughton, S., Partridge, L, Sebastian Grönke, Andrews, TD, Susan Broughton, Andrews, T. Daniel, Clarke , D., Clarke, David-Francis   +20 more
core   +5 more sources

Evolution of assortative mating following selective introgression of pigmentation genes between two Drosophila species

Ecology and Evolution, Volume 12, Issue 4, April 2022., 2022
Adaptive introgression is widespread in nature, but its role in driving species remains contested. We showed that experimental introgression of 2–3 pigmentation loci between two Drosophila species with contrasting colors produced hybrid strains that were morphologically and behaviorally distinct from the parental species.
Jean R. David, Erina A. Ferreira, Laure Jabaud, David Ogereau, Héloïse Bastide, Amir Yassin   +5 more
wiley   +1 more source

Eco‐genetics of desiccation resistance in Drosophila

Biological Reviews, Volume 96, Issue 4, Page 1421-1440, August 2021., 2021
ABSTRACT Climate change globally perturbs water circulation thereby influencing ecosystems including cultivated land. Both harmful and beneficial species of insects are likely to be vulnerable to such changes in climate. As small animals with a disadvantageous surface area to body mass ratio, they face a risk of desiccation.
Yiwen Wang, Jean‐François Ferveur, Bernard Moussian   +2 more
wiley   +1 more source

Drosophila kikkawai genome assembly Dkik02082011

, 2021
This research on Drosophila kikkawai genomics is part of the Drosophila modENCODE project. The Baylor College of Medicine is studying the comparative genomics of eight species of Drosophila, including biarmipes, bipectinata, elegans, eugracillis ...
Huaiyang Jiang (39782), Sai Gubbala (665996), Rebecca L. Thornton (17477295), Matthew N. Batterton (17477286), Fiona Ongeri (17477067), Mingmei Li (14265095), Donna M. Muzny (15123171), Stephen Richards (17476059), Yuan-Qing Wu (3264063), Steven E. Scherer (15100815), Ling-Ling Pu (666019), Yi Han (17476056), Nehad Saada (666024), Richard A. Gibbs (94141), Kim C. Worley (17476041), Lora Perales (17477292), Crystal B. Warner (17477298), Sandra L. Lee (17476044), Christie L. Kovar (17477289), Kerstin P. Blankenburg (17477043), Jiaxin Qu (17476050), Xiaoyan Zou (666034), Tittu Mathew (666011), Joy C. Jayaseelan (17477058), Divya Kalra (666004), Mala Munidasa (8347902)   +25 more
core   +1 more source

Drosophila kikkawai genome annotations v0.5.3 for genome assembly Dkik02082011

, 2021
This research on Drosophila kikkawai genomics is part of the Drosophila modENCODE project.The Baylor College of Medicine is studying the comparative genomics of eight species of Drosophila, including biarmipes, bipectinata, elegans, eugracillis ...
Stephen Richards (17476059), Daniel S.T. Hughes (5011685)   +1 more
core   +1 more source