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1 ur during plant development (e.g., during de-etiolation).
2 stresses (cold, wounding, drought, mannitol, etiolation).
3 the intricacy of miRNA biogenesis during de-etiolation.
4 lant fast growth is required, such as during etiolation.
5 rocess to control hypocotyl growth during de-etiolation.
6 ed role during long-term dark adaptation and etiolation.
7 light-induced nor clock-regulated during de-etiolation.
8 also undergoes regulatory changes during de-etiolation.
9 fully functional during initial seedling de-etiolation.
10 ses of photoreceptors to mediate seedling de-etiolation.
11 n-specific fashion in regulating seedling de-etiolation.
12 chlorophyll accumulation during seedling de-etiolation.
13 , accelerated flowering time, and reduced de-etiolation.
14 tion of the Arabidopsis HEMA1 gene during de-etiolation.
15 to prevent photo-oxidative damage during de-etiolation.
16 microgreens could be enhanced by 5-7 days of etiolation.
17 es, including photomorphogenesis and root de-etiolation.
18 ized thylakoid membrane maturation during de-etiolation.
22 ays a primary role in initiating seedling de-etiolation and is the only plant photoreceptor known to
27 and far-red radiation effects on seedling de-etiolation and yet act in a complementary manner to regu
29 esponses during the life cycle, including de-etiolation, and is also involved in regulating flowering
30 xtreme dwarfism, altered leaf morphology, de-etiolation, and reduced fertility, all strikingly simila
33 etail thylakoid membrane expansion during de-etiolation at the seedling level and the relative contri
34 , and HYPONASTIC LEAVES 1, whereas during de-etiolation both pri-miRNAs and the processing components
35 es not only seed germination and seedling de-etiolation but also circadian rhythms and flowering time
37 ression involved in promotion of seedling de-etiolation, circadian clock function, and photoperiod pe
42 isrupts thylakoid development and reduces de-etiolation efficiency in seedlings, suggesting that FtsH
47 GATED HYPOCOTYL3 (FHY3) promotes seedling de-etiolation in far-red light, which is perceived by phyto
48 enotypic behavior of seedlings undergoing de-etiolation in response to continuous red light (Rc), pre
58 as a negative regulator of phyA-mediated de-etiolation of young seedlings, but its roles in adult pl
61 erin around twisted vascular bundles, the de-etiolation phenotype, and continuation of shoot developm
62 ontrol, we are investigating the seedling de-etiolation phenotypes of mutants carrying T-DNA insertio
63 genic plants also displayed hyposensitive de-etiolation phenotypes, and the expression of these pheno
64 bidopsis thaliana), cryptochromes mediate de-etiolation, photoperiodic control of flowering, entrainm
65 involved in other important facets of the de-etiolation process in the apical region, such as cotyled
68 ome (cry) 1 (hy4-2.23n) were examined for de-etiolation responses in high-fluence red, far-red, blue,
69 ich is non-DNA-binding, was identified in de-etiolation studies and proposed to interact with LONG HY
70 dramatic developmental transition termed de-etiolation that requires immediate termination of ethyle
73 ng the photomorphogenic response known as de-etiolation, the transformation of a dark-grown seedling
74 ght (Rc) during the induction of seedling de-etiolation, we have performed time-course, microarray-ba