@ARTICLE{TreeBASE2Ref27286,
author = {Shannon D Fehlberg and Kevin M Fehlberg},
title = {Spatial genetic structure in brittlebush (Encelia farinosa, Asteraceae) in the southwestern deserts of North America: a comparison of nuclear and chloroplast DNA sequences.},
year = {2017},
keywords = {Chloroplast DNA; Genetic structure; Internal transcribed spacer; Low copy nuclear DNA; Mojave Desert; Sonoran Desert},
doi = {},
url = {http://},
pmid = {},
journal = {Plant Systematics and Evolution},
volume = {},
number = {},
pages = {},
abstract = {A previous study of spatial genetic structure in brittlebush in the southwestern deserts based on chloroplast DNA variation revealed strongly differentiated populations and statistically significant associations between geography and genetic diversity, presumably associated with Pleistocene climatic oscillations. To expand this work and understand the spatial genetic structure of brittlebush populations more completely, we sought to compare the genetic diversity and structure of chloroplast DNA with that of nuclear ribosomal DNA (internal transcribed spacer) and a low-copy nuclear region developed for the Asteraceae (D22). Here we obtained 192 ITS and 206 D22 sequences from individuals sampled throughout the range and analyzed them with network, population genetic, demographic, hierarchical, spatial and Bayesian analyses. Although there are differences in the signal present in each genetic region, several large-scale spatial patterns are congruent, including a split between the Sonoran and Mojave Deserts and differentiation of a taxonomic variety from the Cape Region of Baja California. In general, the distribution of genetic variation observed in D22 confirms and even refines patterns previously observed in the chloroplast region. In contrast, there is little to no geographic structure in the genetic variation of ITS, possibly due to the effects of multiple gene copies, reticulation, homoplasy, and concerted evolution. Hierarchical genetic structure differs sharply between nuclear regions and the chloroplast region, and this is likely due to differences not only in the evolution and inheritance of these regions, but also in the dispersal of pollen and seeds among brittlebush populations.}
}
Matrix 41473 of Study 21120

Citation title:
"Spatial genetic structure in brittlebush (Encelia farinosa, Asteraceae) in the southwestern deserts of North America: a comparison of nuclear and chloroplast DNA sequences.".

Study name:
"Spatial genetic structure in brittlebush (Encelia farinosa, Asteraceae) in the southwestern deserts of North America: a comparison of nuclear and chloroplast DNA sequences.".

This study is part of submission 21120
(Status: Published).
Matrices
Title: Encelia farinosa D22 haplotype alignment
Description: D22 haplotype sequences from Encelia farinosa
Rows
Taxon Label |
Row Segments |
Characters 1?–30 |
Encelia farinosa D22hap1 |
(none)
|
TTGATCTTTTGTGGTTGATCCTTGATAAAG |
Encelia farinosa D22hap2 |
(none)
|
TTGATCTTTTGTGGTTGATCCTTGATAAAG |
Encelia farinosa D22hap3 |
(none)
|
TTGATCTTTTGTGGTTGATCCTTGATAAAG |
Encelia farinosa D22hap4 |
(none)
|
TTGATCTTTTGTGGTTGATCCTTGATAAAG |
Encelia farinosa D22hap5 |
(none)
|
TTGATCTTTTGTGGTTGATCCTTGATAAAG |
Encelia farinosa D22hap6 |
(none)
|
TTGATCTTTTGTGGTTGATCCTTGATAAAG |
Encelia farinosa D22hap7 |
(none)
|
TTGATCTTTTGTGGTTGATCCTTGATAAAG |
Encelia farinosa D22hap8 |
(none)
|
TTGATCTTTTGTGGTTGATCCTTGATAAAG |
Encelia farinosa D22hap9 |
(none)
|
TTGATCTTTTGTGGTTGATCCTTGATAAAG |
Encelia farinosa D22hap10 |
(none)
|
TTGATCTTTTGTGGTTGATCCTTGATAAAG |
Encelia farinosa D22hap11 |
(none)
|
TTGATCTTTTGTGGTTGATCCTTGATAAAG |
Encelia farinosa D22hap12 |
(none)
|
TTGATCTTTTGTGGTTGATCCTTGATAAAG |
Encelia farinosa D22hap13 |
(none)
|
TTGATCTTTTGTGGTTGATCCTTGATAAAG |
Encelia farinosa D22hap14 |
(none)
|
TTGATCTTTTGTGGTTGATCCTTGATAAAG |
Encelia farinosa D22hap15 |
(none)
|
TTGATCTTTTGTGGTTGATCCTTGATAAAG |
Encelia farinosa D22hap16 |
(none)
|
TTGATCTTTTGTGGTTGATCCTTGATAAAG |
Encelia farinosa D22hap17 |
(none)
|
TTGATCTTTTGTGGTTGATCCTTGATAAAG |
Encelia farinosa D22hap18 |
(none)
|
TTGATCTTTTGTGGTTGATCCTTGATAAAG |
Encelia farinosa D22hap19 |
(none)
|
TTGATCTTTTGTGGTTGATCCTTGATAAAG |
Encelia farinosa D22hap20 |
(none)
|
TTGATCTTTTGTGGTTGATCCTTGATAAAG |
Encelia farinosa D22hap21 |
(none)
|
TTGATCTTTTGTGGTTGATCCTTGATAAAG |
Encelia farinosa D22hap22 |
(none)
|
TTGATCTTTTGTGGTTGATCCTTGATAAAG |
Encelia farinosa D22hap23 |
(none)
|
TTGATCTTTTGTGGTTGATCCTTGATAAAG |
Encelia farinosa D22hap24 |
(none)
|
TTGATCTTTTGTGGTTGATCCTTGATAAAG |
Encelia farinosa D22hap25 |
(none)
|
TTGATCTTTTGTGGTTGATCCTTGATAAAG |
Encelia farinosa D22hap26 |
(none)
|
TTGATCTTTTGTGGTTGATCCTTGATAAAG |
Encelia farinosa D22hap27 |
(none)
|
TTGATCTTTTGTGGTTGATCCTTGACAAAG |
Columns
None of the columns has a description.