Temperature is a key environmental cue that influences the distribution and behavior of
plants globally. Understanding how plants sense temperature and integrate this information …

It has been nearly 300 years since the first scientific demonstration of a self-sustaining
circadian clock in plants. It has become clear that plants are richly rhythmic, and many …

To draw the complete picture of plant thermal signaling, it is important to find the missing
links between the temperature cue, the actual sensing, and the subsequent response. In this …

High temperature (HT) has an adverse effect on rice grain filling by inhibiting the
accumulation of storage materials. However, the regulatory mechanism of this inhibition …

Alternative splicing occurs in all eukaryotic organisms. Since the first description of
multiexon genes and the splicing machinery, the field has expanded rapidly, especially in …

Climate change scenarios predict an increase in mean air temperatures and in the
frequency, intensity, and length of extreme temperature events in many wine‐growing …

High temperature activates the transcription factor PHYTOCHROME-INTERACTING
FACTOR4 (PIF4) to stimulate auxin signaling, which causes hypocotyl elongation and leaf …

To survive and thrive in a dynamic environment, plants must continuously monitor their
surroundings and adjust their development and physiology accordingly. Changes in gene …

A major challenge for plants in a rapidly changing climate is to adapt to rising temperatures.
Some plants adapt to temperature conditions by generating an epigenetic memory that can …

Circadian clocks coordinate physiology and development as an adaption to the oscillating
day/night cycle caused by the rotation of Earth on its axis and the changing length of day …