The plant hormone auxin triggers complex growth and developmental processes. Its
underlying molecular mechanism of action facilitates rapid switching between transcriptional …

Many plants synchronize their life cycles in response to changing seasons and initiate
flowering under favourable environmental conditions to ensure reproductive success. To …

Although SWI/SNF chromatin remodelling complexes are known to regulate diverse
biological functions in plants, the classification, compositions and functional mechanisms of …

Plants are sessile organisms, some of which can live for over a thousand years. Unlike most
animals, plants employ a post-embryonic mode of development driven by the continuous …

The growth‐regulating factors (GRF s) are plant‐specific transcription factors. They form
complexes with GRF‐interacting factors (GIF s), a small family of transcriptional co …

Plant shoots display indeterminate growth, while their evolutionary decedents, the leaves,
are determinate. Determinate leaf growth is conditioned by the CIN-TCP transcription …

Overall shoot architecture in higher plants is highly dependent on the activity of embryonic
and axillary shoot meristems, which are produced from the basal adaxial boundaries of …

The transcriptional coactivator ANGUSTIFOLIA3 (AN3) stimulates cell proliferation during
Arabidopsis thaliana leaf development, but the molecular mechanism is largely unknown …

Transcription factors are key regulators of gene expression and play pivotal roles in all
aspects of living organisms. Therefore, identification and functional characterization of …

Adenosine triphosphate‐dependent chromatin remodeling complexes are important for the
regulation of transcription, DNA replication, and genome stability in eukaryotes. Although …