Transcription factor (TF) genes were modified endogenously to include epitope tags for identification of TF protein binding sites by Chromatin Immunoprecipitation (ChIP), followed by high throughput sequencing. We used RNA-sequencing in carbon sources of sucrose, butyrate, and oleate in far-1, far-2, and a double far-1; far-2 mutant to find transcripts...
Transcription factor (TF) genes were modified endogenously to include epitope tags for identification of TF protein binding sites by Chromatin Immunoprecipitation (ChIP), followed by high throughput sequencing. We used RNA-sequencing in carbon sources of sucrose, butyrate, and oleate in far-1, far-2, and a double far-1; far-2 mutant to find transcripts...
Transcription factor (TF) genes were modified endogenously to include epitope tags for identification of TF protein binding sites by Chromatin Immunoprecipitation (ChIP), followed by high throughput sequencing. We used RNA-sequencing in carbon sources of sucrose, butyrate, and oleate in far-1, far-2, and a double far-1; far-2 mutant to find transcripts...
Transcription factor (TF) genes were modified endogenously to include epitope tags for identification of TF protein binding sites by Chromatin Immunoprecipitation (ChIP), followed by high throughput sequencing. We used RNA-sequencing in carbon sources of sucrose, butyrate, and oleate in far-1, far-2, and a double far-1; far-2 mutant to find transcripts...
Background: Triticum monococcum (2n) is a close ancestor of T. urartu, the A-genome progenitor of cultivated hexaploid wheat, and is therefore a useful model for the study of components regulating photomorphogenesis in diploid wheat. In order to develop genetic and genomic resources for such a study, we constructed genome-wide transcriptomes...
Background: Triticum monococcum (2n) is a close ancestor of T. urartu, the A-genome progenitor of cultivated hexaploid wheat, and is therefore a useful model for the study of components regulating photomorphogenesis in diploid wheat. In order to develop genetic and genomic resources for such a study, we constructed genome-wide transcriptomes...
Background: Triticum monococcum (2n) is a close ancestor of T. urartu, the A-genome progenitor of cultivated hexaploid wheat, and is therefore a useful model for the study of components regulating photomorphogenesis in diploid wheat. In order to develop genetic and genomic resources for such a study, we constructed genome-wide transcriptomes...
Background: Triticum monococcum (2n) is a close ancestor of T. urartu, the A-genome progenitor of cultivated hexaploid wheat, and is therefore a useful model for the study of components regulating photomorphogenesis in diploid wheat. In order to develop genetic and genomic resources for such a study, we constructed genome-wide transcriptomes...
Background: Triticum monococcum (2n) is a close ancestor of T. urartu, the A-genome progenitor of cultivated hexaploid wheat, and is therefore a useful model for the study of components regulating photomorphogenesis in diploid wheat. In order to develop genetic and genomic resources for such a study, we constructed genome-wide transcriptomes...
Background: Triticum monococcum (2n) is a close ancestor of T. urartu, the A-genome progenitor of cultivated hexaploid wheat, and is therefore a useful model for the study of components regulating photomorphogenesis in diploid wheat. In order to develop genetic and genomic resources for such a study, we constructed genome-wide transcriptomes...