Welcome to the Milinkovitch-Tzika lab website (the Laboratory of Artificial & Natural Evolution — LANE). In a nutshell, our highly multidisciplinary team of biologists, bioinformaticians, physicists, computer scientists and mathematicians investigates the developmental and evolutionary mechanisms generating Life’s complexity and diversity (or maybe should I say ‘Life’s Beauty’). We study multiple non-classical model species, mainly reptiles and ‘exotic’ mammals, that can inform us on yet unknown exciting biological and physical processes generating this complex and diverse living world.
Central to our reasoning is that a proper understanding of the complexity and diversity of organismal forms cannot be achieved without integrating the physical constrains acting on the developmental and Darwinian processes. Our research requires integrating data and methods from comparative genomics, molecular developmental genetics, as well as physical experiments, mathematical modelling and numerical simulations. More specifically, we investigate the interactions between physical (mechanics, reaction-diffusion) and biological (cell signalling, proliferation) mechanisms that generate and constrain the variety and complexity of skin appendages (scales, hairs, spines), skin colours (pigmentary and structural), and skin colour patterns in tetrapods (four-limbed vertebrates).
Use the navigation bar at the top of the page, to explore our research topics (what we do), our scientific approach and animal models (how we do it), our scientific motivation (why we do it), and our team (who does it).
Our quantitative analysis of the biomechanical and functional morphology of the elephant trunk is published today in Current Biology.
Our 3D numerical simulations of the ocellated lizard skin colour patterning process are published today in Nature Communications.
Grigorii wins the Olympus Image of the Year with a stunning image of African house snake embryonic skin scales.
Michel publishes a ‘Preview’ comment on an article by Chyen et al. on the patterning of multiciliated cells