Genetic Diversity and Phylogenetic Relationships of Annual and Perennial Glycine Species

We have estimated the average genetic diversity of two Glycine annual and six perennial species based upon 76 orthologous gene sets and performed phylogenetic analysis, divergence analysis and tests for departure from neutrality of the eight species using 52 orthologous gene sets. In addition, 367 o...

Full description

Bibliographic Details
Main Authors: Eun-Young Hwang, He Wei, Steven G. Schroeder, Edward W. Fickus, Charles V. Quigley, Patrick Elia, Susan Araya, Faming Dong, Larissa Costa, Marcio Elias Ferreira, Perry B. Cregan, Qijian Song
Format: Article
Language:English
Published: Oxford University Press 2019-07-01
Series:G3: Genes, Genomes, Genetics
Subjects:
Online Access:http://g3journal.org/lookup/doi/10.1534/g3.119.400220
id doaj-be96c573c837483987cf7b6f595c5b85
record_format Article
spelling doaj-be96c573c837483987cf7b6f595c5b852021-07-02T06:02:04ZengOxford University PressG3: Genes, Genomes, Genetics2160-18362019-07-01972325233610.1534/g3.119.40022025Genetic Diversity and Phylogenetic Relationships of Annual and Perennial Glycine SpeciesEun-Young HwangHe WeiSteven G. SchroederEdward W. FickusCharles V. QuigleyPatrick EliaSusan ArayaFaming DongLarissa CostaMarcio Elias FerreiraPerry B. CreganQijian SongWe have estimated the average genetic diversity of two Glycine annual and six perennial species based upon 76 orthologous gene sets and performed phylogenetic analysis, divergence analysis and tests for departure from neutrality of the eight species using 52 orthologous gene sets. In addition, 367 orthologous gene sets were used to estimate the relationships of 11 G. canescens accessions. Among the perennials, G. canescens showed the highest nucleotide diversity. The other perennials, except for G. tomentella, had higher nucleotide diversity than the two annuals. Phylogenetic analysis of the Glycine showed a similar genome grouping with the previous report except for G. cyrtoloba and G. stenophita which formed a sister clade in the study. Divergence analysis supported the phylogenetic relationships that G. falcata was the most divergent from G. max, followed by G. cyrtoloba, G. syndetika, G. tomentella D3, G. stenophita and G. canescens. Most genic sequences were homogeneous in the levels of polymorphism and divergence between G. max and other Glycine species based on the HKA test, thus, Glycine perennials may have experienced a very similar evolution as inferred by trans-specific mutation analysis. The greater genetic diversity of most perennial Glycine species and their origins from the warmer and drier climates of Australia suggests the perennials maybe a potential source of heat and drought resistance that will be of value in the face of climate change.http://g3journal.org/lookup/doi/10.1534/g3.119.400220soybeanperennial crop relativesnucleotide diversityphylogenetic analysisdivergencetrans-specific polymorphism
collection DOAJ
language English
format Article
sources DOAJ
author Eun-Young Hwang
He Wei
Steven G. Schroeder
Edward W. Fickus
Charles V. Quigley
Patrick Elia
Susan Araya
Faming Dong
Larissa Costa
Marcio Elias Ferreira
Perry B. Cregan
Qijian Song
spellingShingle Eun-Young Hwang
He Wei
Steven G. Schroeder
Edward W. Fickus
Charles V. Quigley
Patrick Elia
Susan Araya
Faming Dong
Larissa Costa
Marcio Elias Ferreira
Perry B. Cregan
Qijian Song
Genetic Diversity and Phylogenetic Relationships of Annual and Perennial Glycine Species
G3: Genes, Genomes, Genetics
soybean
perennial crop relatives
nucleotide diversity
phylogenetic analysis
divergence
trans-specific polymorphism
author_facet Eun-Young Hwang
He Wei
Steven G. Schroeder
Edward W. Fickus
Charles V. Quigley
Patrick Elia
Susan Araya
Faming Dong
Larissa Costa
Marcio Elias Ferreira
Perry B. Cregan
Qijian Song
author_sort Eun-Young Hwang
title Genetic Diversity and Phylogenetic Relationships of Annual and Perennial Glycine Species
title_short Genetic Diversity and Phylogenetic Relationships of Annual and Perennial Glycine Species
title_full Genetic Diversity and Phylogenetic Relationships of Annual and Perennial Glycine Species
title_fullStr Genetic Diversity and Phylogenetic Relationships of Annual and Perennial Glycine Species
title_full_unstemmed Genetic Diversity and Phylogenetic Relationships of Annual and Perennial Glycine Species
title_sort genetic diversity and phylogenetic relationships of annual and perennial glycine species
publisher Oxford University Press
series G3: Genes, Genomes, Genetics
issn 2160-1836
publishDate 2019-07-01
description We have estimated the average genetic diversity of two Glycine annual and six perennial species based upon 76 orthologous gene sets and performed phylogenetic analysis, divergence analysis and tests for departure from neutrality of the eight species using 52 orthologous gene sets. In addition, 367 orthologous gene sets were used to estimate the relationships of 11 G. canescens accessions. Among the perennials, G. canescens showed the highest nucleotide diversity. The other perennials, except for G. tomentella, had higher nucleotide diversity than the two annuals. Phylogenetic analysis of the Glycine showed a similar genome grouping with the previous report except for G. cyrtoloba and G. stenophita which formed a sister clade in the study. Divergence analysis supported the phylogenetic relationships that G. falcata was the most divergent from G. max, followed by G. cyrtoloba, G. syndetika, G. tomentella D3, G. stenophita and G. canescens. Most genic sequences were homogeneous in the levels of polymorphism and divergence between G. max and other Glycine species based on the HKA test, thus, Glycine perennials may have experienced a very similar evolution as inferred by trans-specific mutation analysis. The greater genetic diversity of most perennial Glycine species and their origins from the warmer and drier climates of Australia suggests the perennials maybe a potential source of heat and drought resistance that will be of value in the face of climate change.
topic soybean
perennial crop relatives
nucleotide diversity
phylogenetic analysis
divergence
trans-specific polymorphism
url http://g3journal.org/lookup/doi/10.1534/g3.119.400220
work_keys_str_mv AT eunyounghwang geneticdiversityandphylogeneticrelationshipsofannualandperennialglycinespecies
AT hewei geneticdiversityandphylogeneticrelationshipsofannualandperennialglycinespecies
AT stevengschroeder geneticdiversityandphylogeneticrelationshipsofannualandperennialglycinespecies
AT edwardwfickus geneticdiversityandphylogeneticrelationshipsofannualandperennialglycinespecies
AT charlesvquigley geneticdiversityandphylogeneticrelationshipsofannualandperennialglycinespecies
AT patrickelia geneticdiversityandphylogeneticrelationshipsofannualandperennialglycinespecies
AT susanaraya geneticdiversityandphylogeneticrelationshipsofannualandperennialglycinespecies
AT famingdong geneticdiversityandphylogeneticrelationshipsofannualandperennialglycinespecies
AT larissacosta geneticdiversityandphylogeneticrelationshipsofannualandperennialglycinespecies
AT marcioeliasferreira geneticdiversityandphylogeneticrelationshipsofannualandperennialglycinespecies
AT perrybcregan geneticdiversityandphylogeneticrelationshipsofannualandperennialglycinespecies
AT qijiansong geneticdiversityandphylogeneticrelationshipsofannualandperennialglycinespecies
_version_ 1721337857083179008