Plants often live in adverse environmental conditions and are exposed to various stresses,
such as heat, cold, heavy metals, salt, radiation, poor lighting, nutrient deficiency, drought, or …

Twenty-five years ago, a seminal paper demonstrated that warm temperatures increase
auxin levels to promote hypocotyl growth in Arabidopsis thaliana. Here we highlight recent …

Climate change is threating global ecosystems, and so understanding how plants adapt and
respond to it is of immediate research interest. Transcription factors play essential roles in …

Plants are capable of coordination of their growth and development with ambient
temperatures. EARLY FLOWERING3 (ELF3), an essential component of the plant circadian …

Plant thermosensors help optimize plant development and architecture for ambient
temperatures, and morphogenic adaptation to warm temperatures has been extensively …

The classical acid growth theory suggests that auxin stimulates cell expansion by triggering
apoplast acidification via plasma membrane (PM)-localized H+-ATPase. Here, we …

With a gradual increase in the ambient temperature plants need to perceive these changes
accurately and adjust accordingly in order to adapt and survive. Heat stress affects various …

Leaf senescence is an active developmental process that is tightly regulated through
extensive transcriptional and metabolic reprogramming events, which underlie controlled …

Differential growth is central to eukaryotic morphogenesis. We showed using cellular
imaging, simulations, and perturbations that light-induced differential growth in a curved …

Growing concern around global warming has led to an increase in research focused on
plant responses to increased temperature. In this review, we highlight recent advances in …