Mold-breaking progress in whole-genome sequencing and rapid accumulation of multi-
omics data have revolutionized the research strategies of functional genomics in wheat …

Background For functional genomics studies, it is important to understand the dynamic
expression profiles of transcribed genes in different tissues, stages of development and in …

Bread wheat (Triticum aestivum L.) is an allopolyploid species containing three ancestral
genomes. Therefore, three homoeologous copies exist for the majority of genes in the wheat …

Background The large and complex hexaploid genome has greatly hindered genomics
studies of common wheat (Triticum aestivum, AABBDD). Here, we investigated transcripts in …

The discovery of functional genes underlying agronomic traits is of great importance for
wheat improvement. Here we designed a new wheat exome capture probe panel based on …

As one of the most important crops to supply the majority of plant oil and protein for the
whole world, soybean is facing an increasing global demand. The reference genome of …

Gene regulation is central to all aspects of organism growth, and understanding it using
large-scale functional datasets can provide a whole view of biological processes controlling …

INTRODUCTION Wheat (Triticum aestivum L.) is the most widely cultivated crop on Earth,
contributing about a fifth of the total calories consumed by humans. Consequently, wheat …

Hexaploid wheat (Triticum aestivum), a major staple crop, has a remarkably large genome
of~ 14.4 Gb (containing 106 913 high‐confidence [HC] and 159 840 low‐confidence [LC] …

Background Homoeologs are defined as homologous genes resulting from allopolyploidy.
Bread wheat, Triticum aestivum, is an allohexaploid species with many homoeologs …