Better understanding of the mechanistic basis of plant plasticity will enhance efforts to breed
crops resilient to predicted climate change. However, complexity in plasticity's …

The widespread colonization of diverse habitats by plants is attributed to their ability to adapt
to changing environments through environmental phenotypic plasticity. This flexibility …

Plants can rapidly mitigate the effects of suboptimal growth environments by phenotypic
plasticity of fitness‐traits. While genetic variation for phenotypic plasticity offers the means for …

Organisms can rapidly mitigate the effects of environmental changes by changing their
phenotypes, known as phenotypic plasticity. Yet, little is known about the temperature …

Most studies investigating quantitative traits focus on mean levels per genotype rather than
the variation between different individuals of one genotype or the variation elicited by …

Nitrogen (N) is fundamental to plant growth, development and yield. Genes underlying N
utilization and assimilation are well‐characterized, but mechanisms underpinning plasticity …

Comprehending the anaerobic nitrogen transformations, including denitrification, anaerobic
ammonium oxidation (anammox), and anaerobic ammonium oxidation linked with iron …

As sessile organisms, plants develop the ability to respond and survive in changing
environments. Such adaptive responses maximize phenotypic and metabolic fitness …

Mitochondria and chloroplasts are important actors in the plant nutritional efficiency. So, it
could be expected that a disruption of the coadaptation between nuclear and organellar …

A phytobiome is influenced by its many members, which includes plants, soils, microbes,
animals (insects), and the constantly fluctuating environment. Plant-microbe interactions …