Plants exhibit a unique developmental flexibility to ever-changing environmental conditions.
To achieve their profound adaptability, plants are able to maintain permanent stem cell …

With the emergence of high‐throughput methods in plant biology, the importance of long‐
term projects characterized by incremental advances involving multiple laboratories can …

To sustain plants' postembryonic growth and development in a structure of cells fixed in cell
walls, a tightly controlled short distance cell–cell communication is required. The focus on …

Animal and plant development starts with a constituting phase called embryogenesis, which
evolved independently in both lineages. Comparative anatomy of vertebrate development …

Primary and lateral roots comprise root systems, which are vital to the growth and survival of
plants. Several molecular mechanisms associated with primary and lateral root growth have …

Somatic embryogenesis (SE) is a process of differentiation of cells into a plant bypassing the
fusion of gametes. As such, it represents a very powerful tool in biotechnology for …

In vitro embryogenesis is an asexual reproduction process by which embryos are produced
from either gametophytic (androecium/gynoecium) or sporophytic (somatic) tissues …

Plants form new organs with patterned tissue organization throughout their lifespan. It is
unknown whether this robust post-embryonic organ formation results from stereotypic …

Plant cells have the capacity to generate a new plant without egg fertilization by a process
known as somatic embryogenesis (SE), in which differentiated somatic cells can form …

The root system architecture describes the shape and spatial arrangement of roots within the
soil. Its spatial distribution depends on growth and branching rates as well as directional …