This shows you the differences between two versions of the page.
|Next revision||Previous revision|
conservation_genetics [2019/10/14 19:21]
conservation_genetics [2019/12/12 12:53]
|Line 1:||Line 1:|
|-||===Grueber 2015===||+||* [[Grueber 2015]]|
|-||Grueber, C. E. (2015). Comparative genomics for biodiversity conservation. //Computational and Structural Biotechnology Journal//, 13, 370--375.||+||* https://www.vox.com/energy-and-environment/2019/12/9/20993619/biodiversity-crisis-extinction|
|-||Genomic approaches are gathering momentum in biology and emerging opportunities lie in the creative use of comparative molecular methods for revealing the processes that influence diversity of wildlife. However, few comparative genomic studies are performed with explicit and specific objectives to aid conservation of wild populations. Here I provide a brief overview of comparative genomic approaches that offer specific benefits to biodiversity conservation. Because conservation examples are few, I draw on research from other areas to demonstrate how comparing genomic data across taxa may be used to inform the characterisation of conservation units and studies of hybridisation, as well as studies that provide conservation outcomes from a better understanding of the drivers of divergence. A comparative approach can also provide valuable insight into the threatening processes that impact rare species, such as emerging diseases and their management in conservation. In addition to these opportunities, I note areas where additional research is warranted. Overall, comparing and contrasting the genomic composition of threatened and other species provide several useful tools for helping to preserve the molecular biodiversity of the global ecosystem.||+|