SummaryThe synergism between red and blue light in the control of plant growth and development [1, 2] requires the coaction of the red light photoreceptor phytochrome B (phyB) and the blue light and UV-A receptor cryptochromes (cry) [3]. Here, we describe the mechanism of the coaction of these photoreceptors in controlling both development and physiology. In seedlings grown under red light, a transient supplement with blue light induced persistent changes in the transcriptome and growth patterns. Blue light enhanced the expression of the transcription factors LONG HYPOCOTYL 5 (HY5) and HOMOLOG OF HY5 (HYH) [4] and of SUPPRESSOR OF PHYA 1 (SPA1) and SPA4 [5]. HY5 and HYH enhanced phyB signaling output beyond the duration of the blue light si...
Plants in dense vegetation perceive their neighbors primarily through changes in light quality. Init...
Red light, acting through the phytochromes, controls numerous aspects of plant development. Many of ...
Phytochrome A overexpression can increase harvest index, as was shown 25 years ago in a breakthrough...
SummaryThe synergism between red and blue light in the control of plant growth and development [1, 2...
The synergism between red and blue light in the control of plant growth and development requires the...
Several plant responses are mediated by blue-light as also UV-A radiation. Until a few years ago, th...
Hypocotyl phototropism of etiolated Arabidopsis seedlings is primarily mediated by the blue-light re...
Plants depend on the surrounding light environment to direct their growth. Blue light (390-500 nm) i...
AbstractAs sessile organisms, plants have evolved a multitude of developmental responses to cope wit...
In nature, plants integrate a wide range of light signals from solar radiation to adapt to the surro...
It has been reported that Arabidopsis phytochrome (phy) A and phyB are crucial photoreceptors that d...
In darkness, shoot apex growth is repressed, but it becomes rapidly activated by light. We show that...
4776-4781Plants use light as a source of energy for photosynthesis and as a source of environmental ...
Plants respond to a reduction in the red/far-red ratio (R:FR) of light, caused by the proximity of o...
Plants regulate the expression of some genes in response to ultraviolet (UV) and blue light. To inve...
Plants in dense vegetation perceive their neighbors primarily through changes in light quality. Init...
Red light, acting through the phytochromes, controls numerous aspects of plant development. Many of ...
Phytochrome A overexpression can increase harvest index, as was shown 25 years ago in a breakthrough...
SummaryThe synergism between red and blue light in the control of plant growth and development [1, 2...
The synergism between red and blue light in the control of plant growth and development requires the...
Several plant responses are mediated by blue-light as also UV-A radiation. Until a few years ago, th...
Hypocotyl phototropism of etiolated Arabidopsis seedlings is primarily mediated by the blue-light re...
Plants depend on the surrounding light environment to direct their growth. Blue light (390-500 nm) i...
AbstractAs sessile organisms, plants have evolved a multitude of developmental responses to cope wit...
In nature, plants integrate a wide range of light signals from solar radiation to adapt to the surro...
It has been reported that Arabidopsis phytochrome (phy) A and phyB are crucial photoreceptors that d...
In darkness, shoot apex growth is repressed, but it becomes rapidly activated by light. We show that...
4776-4781Plants use light as a source of energy for photosynthesis and as a source of environmental ...
Plants respond to a reduction in the red/far-red ratio (R:FR) of light, caused by the proximity of o...
Plants regulate the expression of some genes in response to ultraviolet (UV) and blue light. To inve...
Plants in dense vegetation perceive their neighbors primarily through changes in light quality. Init...
Red light, acting through the phytochromes, controls numerous aspects of plant development. Many of ...
Phytochrome A overexpression can increase harvest index, as was shown 25 years ago in a breakthrough...