4.6 Article

Genetic and genomic monitoring with minimally invasive sampling methods

期刊

EVOLUTIONARY APPLICATIONS
卷 11, 期 7, 页码 1094-1119

出版社

WILEY
DOI: 10.1111/eva.12600

关键词

conservation genetics; DNA fingerprinting; individual identification; noninvasive genetic sampling; population demography; wildlife forensics; wildlife management

资金

  1. EU Horizon 2020 Programme
  2. Royal Society Wolfson
  3. University of Idaho
  4. NSF [1355106, 1357386]
  5. Direct For Biological Sciences
  6. Division Of Integrative Organismal Systems [1355106] Funding Source: National Science Foundation
  7. Directorate For Geosciences
  8. Division Of Ocean Sciences [1357386] Funding Source: National Science Foundation
  9. Division Of Integrative Organismal Systems
  10. Direct For Biological Sciences [GRANTS:13850651] Funding Source: National Science Foundation

向作者/读者索取更多资源

The decreasing cost and increasing scope and power of emerging genomic technologies are reshaping the field of molecular ecology. However, many modern genomic approaches (e.g., RAD-seq) require large amounts of high-quality template DNA. This poses a problem for an active branch of conservation biology: genetic monitoring using minimally invasive sampling (MIS) methods. Without handling or even observing an animal, MIS methods (e.g., collection of hair, skin, faeces) can provide genetic information on individuals or populations. Such samples typically yield low-quality and/or quantities of DNA, restricting the type of molecular methods that can be used. Despite this limitation, genetic monitoring using MIS is an effective tool for estimating population demographic parameters and monitoring genetic diversity in natural populations. Genetic monitoring is likely to become more important in the future as many natural populations are undergoing anthropogenically driven declines, which are unlikely to abate without intensive adaptive management efforts that often include MIS approaches. Here, we profile the expanding suite of genomic methods and platforms compatible with producing genotypes from MIS, considering factors such as development costs and error rates. We evaluate how powerful new approaches will enhance our ability to investigate questions typically answered using genetic monitoring, such as estimating abundance, genetic structure and relatedness. As the field is in a period of unusually rapid transition, we also highlight the importance of legacy data sets and recommend how to address the challenges of moving between traditional and next-generation genetic monitoring platforms. Finally, we consider how genetic monitoring could move beyond genotypes in the future. For example, assessing microbiomes or epigenetic markers could provide a greater understanding of the relationship between individuals and their environment.

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