The Saccharomycotina subphylum (budding yeasts) spans 400 million years of evolution and includes species that thrive in diverse environments. To study niche-adaptation, we identify changes in gene expression in three divergent yeasts grown in the presence of various stressors. Duplicated and non-conserved genes are significantly more likely to respond to stress than genes that are conserved as single-copy orthologs. Next, we develop a sorting method that considers evolutionary origin and duplication timing to assign an evolutionary age to each gene. Subsequent analysis reveals that genes that emerged in recent evolutionary time are enriched amongst stress-responsive genes for each species. This gene expression pattern suggests that budding...
Natural environments are dynamic, and organisms must sense and respond to changing conditions. One c...
Organisms can protect themselves against future environmental change. An example is cross-protection...
Background: Coordinately regulated genes often physically cluster in eukaryotic genomes, for reasons...
The Saccharomycotina subphylum (budding yeasts) spans 400 million years of evolution and includes sp...
The Saccharomycotina subphylum (budding yeasts) spans 400 million years of evolution and includes sp...
The Saccharomycotina subphylum (budding yeasts) spans 400 million years of evolution and includes sp...
The Saccharomycotina subphylum (budding yeasts) spans 400 million years of evolution and includes sp...
Great strides have been made in understanding the evolution of gene regulation by focusing on the bu...
Great strides have been made in understanding the evolution of gene regulation by focusing on the bu...
Organisms can protect themselves against future environmental change. An example is cross-protection...
Organisms can protect themselves against future environmental change. An example is cross-protection...
Organisms can protect themselves against future environmental change. An example is cross-protection...
Organisms can protect themselves against future environmental change. An example is cross-protection...
Defining how organisms respond to environmental change has always been an important step toward unde...
The yeast Saccharomyces cerevisiae has been the subject of many studies aimed at understanding mecha...
Natural environments are dynamic, and organisms must sense and respond to changing conditions. One c...
Organisms can protect themselves against future environmental change. An example is cross-protection...
Background: Coordinately regulated genes often physically cluster in eukaryotic genomes, for reasons...
The Saccharomycotina subphylum (budding yeasts) spans 400 million years of evolution and includes sp...
The Saccharomycotina subphylum (budding yeasts) spans 400 million years of evolution and includes sp...
The Saccharomycotina subphylum (budding yeasts) spans 400 million years of evolution and includes sp...
The Saccharomycotina subphylum (budding yeasts) spans 400 million years of evolution and includes sp...
Great strides have been made in understanding the evolution of gene regulation by focusing on the bu...
Great strides have been made in understanding the evolution of gene regulation by focusing on the bu...
Organisms can protect themselves against future environmental change. An example is cross-protection...
Organisms can protect themselves against future environmental change. An example is cross-protection...
Organisms can protect themselves against future environmental change. An example is cross-protection...
Organisms can protect themselves against future environmental change. An example is cross-protection...
Defining how organisms respond to environmental change has always been an important step toward unde...
The yeast Saccharomyces cerevisiae has been the subject of many studies aimed at understanding mecha...
Natural environments are dynamic, and organisms must sense and respond to changing conditions. One c...
Organisms can protect themselves against future environmental change. An example is cross-protection...
Background: Coordinately regulated genes often physically cluster in eukaryotic genomes, for reasons...