@ARTICLE{TreeBASE2Ref21965,
author = {Karen Hughes and Ronald Petersen and D. Jean Lodge and Sarah E. Bergemann and kendra baumgartner and Rodham E. Tulloss and Edgar Lickey and Joaquin Cifuentes},
title = {Evolutionary consequences of putative intra- and interspecific hybridization in agaric fungi.},
year = {2013},
keywords = {biodiversity, Dobzhansky-Muller incompatibility, hybridization, speciation },
doi = {},
url = {http://},
pmid = {},
journal = {Mycologia},
volume = {},
number = {},
pages = {},
abstract = {Abstract: Agaric fungi of the southern Appalachians including the Great Smoky Mountains National Park are often heterozygous for the rDNA internal transcribed spacer region (ITS) with >42% of collections showing some level of heterozygosity for indels and/or base-pair substitutions. For these collections, intra-individual haplotype divergence is typically less than 2%, but for 3% of these collections, intra-individual haplotype divergence exceeds that figure. We hypothesize that high intra-individual haplotype divergence is due to hybridization between agaric fungi with divergent haplotypes, possibly migrants from geographically isolated glacial refugia. Four species with relatively high haplotype divergence were examined: Armillaria mellea, Amanita citrina f. lavendula, Gymnopus dichrous and the Hygrocybe flavescens/chlorophana complex. The ITS region was sequenced, haplotypes of heterozygotes were resolved through cloning, and phylogenetic analyses were used to determine the outcome of hybridization events. Within Armillaria mellea and Amanita citrina f. lavendula, we found evidence of interbreeding and recombination. Within G. dichrous and H. flavescens/ chlorophana, hybrids were identified but there was no evidence for F2 or higher progeny in natural populations suggesting that the hybrid fruitbodies may be an evolutionary dead end and that the genetically divergent Mendelian populations from which they were derived are, in fact, different species. The association between levels of ITS haplotype divergence of less than 5% (Armillaria mellea = 2.6% excluding gaps; Amanita citrina f. lavendula = 3.3%) with the presence of putative recombinants and greater than 5% (Gymnopus dichrous=5.7%; Hygrocybe flavescens/chlorophana=14.1%) with apparent failure of F1 hybrids to produce F2 or higher progeny in populations may suggest a correlation between genetic distance and reproductive isolation. }
}
Taxa for matrix 17017 of Study 14193

Citation title:
"Evolutionary consequences of putative intra- and interspecific hybridization in agaric fungi.".

Study name:
"Evolutionary consequences of putative intra- and interspecific hybridization in agaric fungi.".

This study is part of submission 14193
(Status: Published).
Taxa
Return to matrix row view
ID |
Taxon Label |
NCBI taxid |
uBIO namebankID |
1093306 |
Armillaria mellea France AF163584 |
|
3094706
|
1093320 |
Armillaria mellea France AF163585 |
|
3094706
|
1093289 |
Armillaria mellea France AF163586 |
|
3094706
|
1093287 |
Armillaria mellea Germany EU162047 |
|
3094706
|
1093299 |
Armillaria mellea Hungary AF163581 |
|
3094706
|
1093312 |
Armillaria mellea Iran AF163583 |
|
3094706
|
1093307 |
Armillaria mellea Massachusetts AF163589 |
|
3094706
|
1093327 |
Armillaria mellea Massachusetts AF163590 |
|
3094706
|
1093318 |
Armillaria mellea Massachusetts AY789081 |
|
3094706
|
1093335 |
Armillaria mellea New Hampshire AF163587 |
|
3094706
|
1093286 |
Armillaria mellea New Hampshire AF163588 |
|
3094706
|
1093334 |
Armillaria mellea New Hampshire AY213587 |
|
3094706
|
1093317 |
Armillaria mellea Poland AY848938 |
|
3094706
|
1093293 |
Armillaria mellea Scotland TENN50663 |
|
3094706
|
1093302 |
Armillaria mellea Slovenia AME250051 |
|
3094706
|
1093311 |
Armillaria mellea Switzerland AM269762 |
|
3094706
|
1093325 |
Armillaria mellea USA GSM CIF2005-340 |
|
3094706
|
1093304 |
Armillaria mellea USA GSM TENN60319C1 |
|
3094706
|
1093326 |
Armillaria mellea USA GSM TENN60319C10 |
|
3094706
|
1093333 |
Armillaria mellea USA GSM TENN60319C2 |
|
3094706
|
1093331 |
Armillaria mellea USA GSM TENN60319C3 |
|
3094706
|
1093328 |
Armillaria mellea USA GSM TENN60319C4 |
|
3094706
|
1093301 |
Armillaria mellea USA GSM TENN60319C5 |
|
3094706
|
1093316 |
Armillaria mellea USA GSM TENN60319C6 |
|
3094706
|
1093308 |
Armillaria mellea USA GSM TENN60319C7 |
|
3094706
|
1093315 |
Armillaria mellea USA GSM TENN60319C8 |
|
3094706
|
1093336 |
Armillaria mellea USA GSM TENN60319C9 |
|
3094706
|
1093300 |
Armillaria mellea USA GSM TENN61396 |
|
3094706
|
1093303 |
Armillaria mellea USA GSM TENN61407 |
|
3094706
|
1093314 |
Armillaria mellea USA GSM TENN61702C1 |
|
3094706
|
1093305 |
Armillaria mellea USA GSM TENN61702C3 |
|
3094706
|
1093330 |
Armillaria mellea USA GSM TENN61702C4 |
|
3094706
|
1093329 |
Armillaria mellea USA GSM TENN63053C1 |
|
3094706
|
1093295 |
Armillaria mellea USA GSM TENN63053C10 |
|
3094706
|
1093323 |
Armillaria mellea USA GSM TENN63053C11 |
|
3094706
|
1093309 |
Armillaria mellea USA GSM TENN63053C12 |
|
3094706
|
1093292 |
Armillaria mellea USA GSM TENN63053C2 |
|
3094706
|
1093297 |
Armillaria mellea USA GSM TENN63053C3 |
|
3094706
|
1093332 |
Armillaria mellea USA GSM TENN63053C4 |
|
3094706
|
1093322 |
Armillaria mellea USA GSM TENN63053C5 |
|
3094706
|
1093310 |
Armillaria mellea USA GSM TENN63053C6 |
|
3094706
|
1093296 |
Armillaria mellea USA GSM TENN63053C7 |
|
3094706
|
1093288 |
Armillaria mellea USA GSM TENN63053C8 |
|
3094706
|
1093324 |
Armillaria mellea USA GSM TENN63053C9 |
|
3094706
|
1093294 |
Armillaria mellea USA GSM TENN64038 |
|
3094706
|
1093290 |
Armillaria mellea United Kingdom AF163579 |
|
3094706
|
1093298 |
Armillaria mellea United Kingdom AF163580 |
|
3094706
|
1093321 |
Armillaria mellea United Kingdom AF163582 |
|
3094706
|
1093313 |
Armillaria mellea Virginia AY213584 |
|
3094706
|
1093291 |
Armillaria mellea Virginia AY213585 |
|
3094706
|
1093319 |
Armillaria mellea Wisconsin AY213586 |
|
3094706
|