The ‘Local Adaptation in Drosophila’ Group includes 2 senior researchers (integrated members): a leader holding an academic position and a member holding a post-doctoral grant. The group also includes 2 Ph. D. students.
The research projects pursued by the ‘Local Adaptation in Drosophila’ Group focus on complementary research areas in Evolutionary Biology, with the ultimate goal of better understanding: i) the genetic basis of adaptation, ii) the evolutionary potential of populations, including the role of history and chance; iii) the evolution of chromosomal inversions; iv) the ecological-evolutionary importance of mate- choice copying; v) the importance of evolution for understanding human societies The Group’s experimental research activity uses mainly (but not only) Experimental Evolution as tool and Drosophila subobscura as model organism.
Present main topics addressed are:
1) To understand the genomic and transcriptomic changes during adaptation to new environments;
2) To clarify the role of History, Chance and Selection during Adaptive Evolution;
3) To analyse how predictable is evolution in both space (across populations) and time (different times of sampling, short versus long-term adaptation)
4) To analyse the evolutionary potential of populations to respond to global warming
5) To understand the evolution of latitudinal clines, including inversion polymorphisms;
6) To characterize the interaction between genetic drift and selection as a function of population size;
7) To study the conditions under which social learning in general, and mate-choice copying in particular, is adaptive and how it may affect hybridization and speciation.
8) To understand how historical human-environment interactions and glacial-interglacial cycles shaped present-day island biodiversity patterns;
In addition a previous post-doc, presently collaborator, is implementing an ‘Evolutionary Studies Program’ (EvoS) at the University of Lisbon and developing a research project that uses multilevel selection theory to explain rationality (or the lack there of) in human economic behaviour (presently on hold).
Matos, M., Simões, P., Fragata, I., Quina, A.S., Kristensen, T.N. & Santos, M. (2021) Editorial: coping with climate change: a genomic perspective on thermal adaptation.Frontiers in Genetics, Online early, . DOI:10.3389/fgene.2020.619441 (IF2020 4,599; Q2 Genetics and Heredity)
Sapage, M., Varela, S.A.M. & Kokko, H. (2021) Social learning by mate‐choice copying increases dispersal and reduces local adaptation.Functional Ecology, 35(3), 705-716. DOI:10.1111/1365-2435.13735 (IF2020 5,608; Q1 Ecology)
Santos, M.A., Carromeu-Santos, A., Quina, A.S., Santos, M., Matos, M. & Simões, P. (2021) High developmental temperature leads to low reproduction despite adult temperature.Journal of Thermal Biology, 95, 102794. DOI:10.1016/j.jtherbio.2020.102794 (IF2020 2,902; Q2 Biology)