Phytochrome

04/01/2015 - "Further, interactive effects of various proteins like bHLH145, B-4c transcription factors (heat stress transcription factor), maturase K, MADS box, zinc finger proteins, and scarecrow-like protein 21 (flowering related), a key enzyme of ethylene biosynthesis SAMS (S-adenosylmethionine synthase) and aminocyclopropane-1-carboxylate synthase, improved calcium signaling related proteins (CML36), and change in phytohormone related proteins such as phosphatase proteins (2c3 and 2c55), which are the positive regulators of gibberellic acid and phytochrome regulation related proteins (DASH, LWD1) might be the possible major regulators of floral transition in this bamboo. "

06/01/2005 - "The gene is named WOUND-RESPONSIVE AND PHYTOCHROME-REGULATED KINASE1 (WPK1) based on the findings of this study. "
01/01/2022 - "Shade suppresses wound-induced leaf repositioning through a mechanism involving PHYTOCHROME KINASE SUBSTRATE (PKS) genes."
06/01/2005 - "These results strongly suggested that WPK1 is a component of the jasmonate-mediated signaling that participates in both wound-induced defensive and phytochrome-mediated photomorphogenetic responses. "
08/01/1984 - "The red light effect on wound ethylene production was reversible by far red light, so it can be explained as a phytochrome effect. "
06/01/2005 - "A novel receptor kinase involved in jasmonate-mediated wound and phytochrome signaling in maize coleoptiles."

01/01/2017 - "This review summarizes recent results on phytochrome evolution, phytochrome regulation of conjugation and plant infection and biochemical studies including the crystal structure of Agp1-PCM, the photosensory core module of Agp1."
07/01/2021 - "Phytochrome Mediated Responses in Agrobacterium fabrum: Growth, Motility and Plant Infection."
11/04/2022 - "The co-expression analyses combined with single nucleotide polymorphism (SNP) uncovered a key element, a transcription factor phytochrome-interacting factor (PIF7) that is a potential regulator of moderate resistance to RLN infection. "

10/01/2004 - "The transgenic Arabidopsis thaliana (phyA-201 background) plants with this mutant phyA showed hypersensitivity to light, suggesting that phytochrome phosphorylation at Serine-598 (Ser598) in the hinge region is involved in an inhibitory mechanism. "
03/01/2004 - "The hypersensitivity to cFR and cB light conferred by lsh1-D was abolished in a phyA null background (phyA-201), and the hypersensitivity to cR and cFR light conferred by lsh1-D was much reduced in the phytochrome-chromophore synthetic mutant, hy1-1 (long hypocotyl 1). "
01/01/1991 - " It appears that the Merit cultivar expresses a condition of hypersensitivity to phytochrome-mediated light regulation in root tissues. "
07/01/2012 - "Overexpression of a phytochrome-regulated tandem zinc finger protein gene, OsTZF1, confers hypersensitivity to ABA and hyposensitivity to red light and far-red light in rice seedlings."
07/16/2008 - "We found that loss-of-function alleles of the protein phosphatase 7 (AtPP7) are responsible for the light hypersensitivity in psi2 demonstrating that AtPP7 controls the levels of phytochrome signaling. "

01/01/2020 - "Thermal reversion is a critical parameter for the light sensitivity of phytochrome-mediated responses and has been studied for decades, often resulting in contradictory findings. "
08/01/1987 - "Rapid phytochrome regulation of wheat seedling extension: light pretreatment extends coupling time, increases response lag, and decreases light sensitivity."
10/01/1985 - "The physiology of the auxin-induced 10,000-fold increase in light sensitivity of a phytochrome-mediated growth response (Shinkle and Briggs, 1984 Proc Natl Acad Sci USA 81: 3742-3746) has been characterized in subapical coleoptile sections from dark-grown oat (Avena sativa L. "
10/01/1985 - "Physiological mechanism of the auxin-induced increase in light sensitivity of phytochrome-mediated growth responses in Avena coleoptile sections."
06/17/2014 - "Here, we have engineered a light-activated phosphodiesterase (LAPD) with complementary light sensitivity and catalytic activity by recombining the photosensor module of Deinococcus radiodurans bacterial phytochrome with the effector module of Homo sapiens phosphodiesterase 2A. "