phenotypic plasticity

Phenotypic plasticity can also be observed as changes in behaviour.

The later case would be an example of what's called "phenotypic plasticity," where development ends up different despite similar genes.

Phenotypic plasticity (the ability to alter growth form to suit current conditions)

Norms of reaction and phenotypic plasticity in salmonid life histories.

It is a special case of the evolution of phenotypic plasticity".

He suggested that the mechanism behind this phenomenon was a little understood biological process at the time called phenotypic plasticity.

The study of developmental and phenotypic plasticity continues.

The role of development in shaping evolution, particularly such topics as heterochrony and phenotypic plasticity.

Her work upon social insects has played an important role in the development of her ideas upon phenotypic plasticity.

The phenotypic plasticity shown by notostracan species make identification to the species level difficult.

Nemoria is most commonly known for the phenotypic plasticity of its larvae stages in many species.

A. pullulans is notable for its phenotypic plasticity.

Phenotypic plasticity is the ability of an organism to change its phenotype in response to changes in the environment.

Phenotypic plasticity and the origins of diversity.

This work stood in sharp contrast to most researchers at the time, who believed that the differentiation of plant populations was due to phenotypic plasticity.

When behavioral variation reflects differential phenotypic plasticity, it is due more to ecological pressures than cultural ones.

"Phenotypic plasticity in seedling defense strategies: compensatory growth and chemical induction".

Phenotypic plasticity is important because it allows an individual to adapt to a changing environment and can ultimately alter their evolutionary path.

Food abundance showed a significant effect on the breeding date with individual females, indicating a high amount of phenotypic plasticity in this trait.

Adaptive phenotypic plasticity in brook trout, Salvelinus fontinalis, life histories.

But there is a debate among scientists over whether or not these changes reflect an adaptive genetic evolution or simply phenotypic plasticity.

The apparent absence of two-component histidine-kinases and response regulators suggest limited phenotypic plasticity.

Seagrasses display an extraordinarily high degree of phenotypic plasticity, adapting rapidly to changing environmental conditions.

Hence, phenotypic plasticity can evolve if Darwinian fitness is increased by changing phenotype.

When species are unable to adapt through genetics, phenotypic plasticity is the most viable option to adjust to changing environments.