Sessile plants possess an assembly of signaling pathways that perceive and transmit
environmental signals, ultimately resulting in transcriptional reprogramming. Histone is a key …

Plants frequently have to weather both biotic and abiotic stressors, and have evolved
sophisticated adaptation and defense mechanisms. In recent years, chromatin modifications …

Exposure of plants to adverse environmental conditions leads to extensive transcriptional
changes. Genome-wide approaches and gene function studies have revealed the …

Sessile plants are exposed throughout their existence to environmental abiotic and biotic
stress factors, such as cold, heat, salinity, drought, dehydration, submergence, waterlogging …

Highlights•Nutrient stress responses in plants involves chromatin remodelling.•Involvement
of histone variants, histone modifications and DNA methylation.•Potential role in priming or …

The investigation of stress responses has been a focus of plant research, breeding and
biotechnology for a long time. Insight into stress perception, signaling and genetic …

Environmental stress from climate change and agricultural activity threatens global plant
biodiversity as well as crop yield and quality. As sessile organisms, plants must maintain the …

The ability of plants to cope with abiotic environmental stresses such as drought, salinity,
heat, cold or flooding relies on flexible mechanisms for re-programming gene expression …

Chromatin regulation is essential to regulate genes and genome activities. In plants, the
alteration of histone modification and DNA methylation are coordinated with changes in the …

Plants' stress response machinery is characterized by an intricate network of signaling
cascades that receive and transmit environmental cues and ultimately trigger transcriptional …