Plants respond to the changing seasons to initiate developmental programmes precisely at
particular times of year. Flowering is the best characterized of these seasonal responses …

Our understanding of the detailed molecular mechanisms underpinning adaptation is still
poor. One example for which mechanistic understanding of regulation has converged with …

In eukaryotes, three-dimensional genome organization is critical for transcriptional
regulation of gene expression. Long noncoding RNAs (lncRNAs) can modulate chromatin …

Plants undergo a major physiological change as they transition from vegetative growth to
reproductive development. This transition is a result of responses to various endogenous …

The eukaryotic epigenome is shaped by the genome topology in three-dimensional space.
Dynamic reversible variations in this epigenome structure directly influence the …

Members of the MADS-box transcription factor family play essential roles in almost every
developmental process in plants. Many MADS-box genes have conserved functions across …

The coordination of the timing of flowering with seasonal and development cues is a critical
life‐history trait that has been shaped by evolution to maximize reproductive success …

Post‐translational modification of histones and DNA methylation are important components
of chromatin‐level control of genome activity in eukaryotes. However, principles governing …

Histone methylation plays a fundamental role in regulating diverse developmental
processes and is also involved in silencing repetitive sequences in order to maintain …

Chromosomes form 3D structures that are critical to the regulation of cellular and genetic
processes. Here, we present a study of global chromatin interaction patterns in Arabidopsis …