Plants reprogram somatic cells following injury and regenerate new tissues and organs.
Upon perception of inductive cues, somatic cells often dedifferentiate, proliferate, and …

Compared with animals, plants generally possess a high degree of developmental plasticity
and display various types of tissue or organ regeneration. This regenerative capacity can be …

Wounding triggers organ regeneration in many plant species, and application of plant
hormones, such as auxin and cytokinin, enhances their regenerative capacities in tissue …

Plants have evolved powerful regeneration abilities to recover from damage. Studies on
plant regeneration are of high significance as the underlying mechanisms of plant …

Highlights•Jasmonic acid signalling promotes wound-induced root regeneration.•Stress
signalling directly activates developmental programs in plant regeneration.•Changes in …

Some plant cells are able to rebuild new organs after tissue damage or in response to
definite stress treatments and/or exogenous hormone applications. Whole plants can …

Plant cells have a profound capacity to regenerate their full array of tissues from already
differentiated organs, as best demonstrated in in vitro regeneration systems. Although critical …

Highlights•Loss of cell–cell communication might trigger regeneration.•Developmental fates
and stages of the cells are important for regenerative competency.•Acquisition of …

The ability to regenerate is widely exploited by multitudes of organisms ranging from
unicellular bacteria to multicellular plants for their propagation and repair. But the levels of …

Plants have extraordinary developmental plasticity as they continuously form organs during
post-embryonic development. In addition they may regenerate organs upon in vitro …