Plant biology is experiencing a renewed interest in the mechanistic underpinnings and
evolution of phenotypic plasticity that calls for a re‐evaluation of how we analyse phenotypic …

Phenotypic plasticity is defined as the property of organisms to produce distinct phenotypes
in response to environmental variation. While for more than a century, biologists have …

With the advent of rapid genotyping and next‐generation sequencing technologies, genome‐
wide association study (GWAS) has become a routine strategy for decoding genotype …

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 …

Identifying the genetic basis of local adaptation and fitness trade-offs across environments is
a central goal of evolutionary biology. Cold acclimation is an adaptive plastic response for …

Phenotypic plasticity enables rapid responses to environmental change, and could facilitate
range shifts in response to climate change. What drives the evolution of plasticity at range …

High-throughput phenotyping technologies have become an increasingly important topic of
crop science in recent years. Various sensors and data acquisition approaches have been …

Phenotypic plasticity is observed widely in plants and often studied with reaction norms for
adult plant or end‐of‐season traits. Uncovering genetic, environmental and developmental …

The phenotypic variation of living organisms is shaped by genetics, environment, and their
interaction. Understanding phenotypic plasticity under natural conditions is hindered by the …

Convergent phenotypic evolution provides some of the strongest evidence for adaptation.
However, the extent to which recurrent phenotypic adaptation has arisen via parallelism at …