In the wild, organismal life cycles occur within seasonal cycles, so shifts in the timing of developmental transitions can alter the seasonal environment experienced subsequently. Effects of genes that control the timing of prior developmental events can therefore be magnified in the wild because they determine seasonal conditions experienced by subsequent life stages, which can influence subsequent phenotypic expression. We examined such environmentally-induced pleiotropy of developmental-timing genes in a field experiment with Arabidopsis thaliana. When studied in the field under natural seasonal variation, an A. thaliana seed-dormancy gene, Delay Of Germination 1 (DOG1), was found to influence not only germination, but also flowering tim...
1. The timing of life history events, such as germination and reproduction, influences ecological an...
Genetic variation for seed dormancy in nature is a typical quantitative trait controlled by multiple...
The timing of seed germination determines the environment experienced by a plant’s most vulnerable l...
In the wild, organismal life cycles occur within seasonal cycles, so shifts in the timing of develop...
Seasonal germination timing of Arabidopsis thaliana strongly influences overall life history express...
• Major alleles for seed dormancy and flowering time are well-studied, and can interact to influence...
The seasonal timing of seed germination determines a plant's realized environmental niche, and is im...
Local adaptation provides an opportunity to study the genetic basis of adaptation and investigate th...
Seasonal germination timing of Arabidopsis thaliana strongly influences overall life history express...
The temporal control or timing of the life cycle of annual plants is presumed to provide adaptive st...
The seasonal timing of seed germination determines a plant's realized environmental niche, and is im...
The genetic basis of seed dormancy, a key life-history trait important for adaptive evolution in pla...
Early life history transitions are crucial determining lifetime survival and fecundity. Adaptive evo...
Timing of germination is presumably under strong natural selection as it determines the environmenta...
1. The timing of life history events, such as germination and reproduction, influences ecological an...
Genetic variation for seed dormancy in nature is a typical quantitative trait controlled by multiple...
The timing of seed germination determines the environment experienced by a plant’s most vulnerable l...
In the wild, organismal life cycles occur within seasonal cycles, so shifts in the timing of develop...
Seasonal germination timing of Arabidopsis thaliana strongly influences overall life history express...
• Major alleles for seed dormancy and flowering time are well-studied, and can interact to influence...
The seasonal timing of seed germination determines a plant's realized environmental niche, and is im...
Local adaptation provides an opportunity to study the genetic basis of adaptation and investigate th...
Seasonal germination timing of Arabidopsis thaliana strongly influences overall life history express...
The temporal control or timing of the life cycle of annual plants is presumed to provide adaptive st...
The seasonal timing of seed germination determines a plant's realized environmental niche, and is im...
The genetic basis of seed dormancy, a key life-history trait important for adaptive evolution in pla...
Early life history transitions are crucial determining lifetime survival and fecundity. Adaptive evo...
Timing of germination is presumably under strong natural selection as it determines the environmenta...
1. The timing of life history events, such as germination and reproduction, influences ecological an...
Genetic variation for seed dormancy in nature is a typical quantitative trait controlled by multiple...
The timing of seed germination determines the environment experienced by a plant’s most vulnerable l...