Reprint

Genetics and Genomics of Forest Trees

Edited by
November 2018
332 pages
  • ISBN978-3-03897-298-3 (Paperback)
  • ISBN978-3-03897-299-0 (PDF)

This book is a reprint of the Special Issue Genetics and Genomics of Forest Trees that was published in

Biology & Life Sciences
Environmental & Earth Sciences
Summary

Forest tree genetics and genomics are advancing at an accelerated rate, thanks to recent developments in high-throughput, next-generation sequencing capabilities, and novel biostatistical tools. Population and landscape genetics and genomics have seen the rise of new approaches implemented in large-scale studies that employ the use of genome-wide sampling. Such studies have started to discern the dynamics of neutral and adaptive variation in nature and the processes that underlie spatially explicit patterns of genetic and genomic variation in nature. The continuous development of genetic maps in forest trees and the expansion of QTL and association mapping approaches contribute to the unravelling of the genotype-phenotype relationship and lead to marker-assisted and genome-wide selection. However, major challenges lie ahead. Recent literature suggests that species demography and genetic diversity have been affected both by climatic oscillations and anthropogenically induced stresses in a way calls into question the possibility of future adaptation. Moreover, the pace of contemporary environmental change presents a great challenge to forest tree populations and their ability to adapt, taking into consideration their life history characteristics. Several questions emerge that include, but are not limited to, the interpretation of forest tree genome surveillance and their structural/functional properties, the adaptive and neutral processes that have shaped forest tree genomes, the analysis of phenotypic traits relevant to adaptation (especially adaptation under contemporary climate change), the link between epigenetics/epigenomics and phenotype/genotype, and the use of genetics/genomics as well as genetic monitoring to advance conservation priorities.

Format
  • Paperback
License and Copyright
© 2019 by the authors; CC BY license
Keywords
chromosome doubling; sweetgum; allotetraploid; RNA-sequencing; transcriptome analysis; gene expression; pine wilt disease; Pinus pinaster; Bursaphelenchus xylophilus; dispersal kernel; forest management; regeneration; seed shadow model; PaWB; phytoplasma; lncRNAs; candidate target genes; Piptoporus betulinus; transcriptome; comparative analysis; lignocellulose degradation; families; Pinus elliottii; resin yield; growth traits; morphologic traits; heritability; genotypic correlation; passion fruit; cold tolerance; RNA sequencing; DEG; ICE1–CBF–COR; genetic structure; human impact; seed transportation; artificial forest; demographic inference; genetic structure; mangrove; seed dispersal; ocean current; Indo-West Pacific region; Xylocarpus; cork oak; transcriptome; bud development; gene expression; Quercus variabilis; SSR; genetic diversity; population structure; mature Betula pendula; clonal forestry; tree breeding; target diameter; drought stress; genetic variation; early testing; adaptive variation; genecology; phenotypic plasticity; Paulownia fortunei; gene expression; transcriptome; microRNA; degradome; drought; Picea abies; nuclear microsatellites; genetic diversity; gene conservation unit; De novo; Pinus bungeana Zucc. ex Endl.; transcriptome; assembly analysis; Tamarix; salt tolerance; salt-responsive microRNA; regulatory network; Pinus massoniana Lamb.; drought stress; transcriptome; transcription factor; defense response; genetic diversity; genetic structure; forest management; silviculture; resilience; Mediterranean; island; isoenzymes; marginal and peripheral forests; forest tree genetics; genetic structure

Related Books