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 …

Plants as sessile organisms have remarkable developmental plasticity ensuring heir
continuous adaptation to the environment. An extreme example is somatic embryogenesis …

Auxin contributes to almost every aspect of plant development and metabolism as well as
the transport and signalling of auxin-shaped plant growth and morphogenesis in response …

Plant somatic embryogenesis refers to a phenomenon where embryos develop from somatic
cells in the absence of fertilization. Previous studies have revealed that the phytohormone …

Plants have the remarkable ability to drive cellular dedifferentiation and regeneration.
Changes in epigenetic landscapes accompany the cell fate transition. Notably, modifications …

Plant cells have a powerful capacity in their propagation to adapt to environmental change,
given that a single plant cell can give rise to a whole plant via somatic embryogenesis …

Plant growth regulators (PGRs) enhance plants regeneration ability to form various organs
and tissues by determining embryonic fate in vivo and boosting regeneration efficiency in …

Background Somatic embryogenesis (SE) is an intricate molecular and biochemical process
principally based on cellular totipotency and a model in studying plant development. In this …

Genome-editing technologies have advanced in recent years but designing future crops
remains limited by current methods of improving somatic embryogenesis (SE) capacity. In …

Key message Extensive modulation of numerous ARF transcripts in the embryogenic culture
of Arabidopsis indicates a substantial role of auxin signaling in the mechanism of somatic …