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1 uts; 75.17-green pea, 83.18-lentil and 89.87-mung bean.
2 e pathway in response to low temperatures in mung bean.
3 ffected seed nutritional and yield traits in mung bean.
4 h is a major challenge to cultivating summer mung bean.
5 +) in real food samples, drinking water, and mung beans.
6 True ileal IAA digestibility was lowest in mung bean (65.2% +/- 7.1%), followed by finger millet (6
7 lignan content in a mixture of flaxseed and mung beans (799.9 +/- 67.4 mg/100 g DW) compared to the
8 uding red clover, white clover, hairy vetch, mung bean, alfalfa, lentil, snow pea, and lupine, as wel
10 IAA digestibility of 4 (rice, finger millet, mung bean, and hen egg) commonly consumed complementary
11 pinnings of domesticated agronomic traits in mung bean, and simultaneously highlighting the parallel
13 d attributes, nutrient content, and yield of mung bean at the Regional Agricultural Research Station,
15 of Kappaphycus alvarezii seaweed extract on mung bean (cv. Virat), applied via seed priming and foli
17 W), whereas the fermentation of soybeans and mung beans did not significantly affect the SECO content
20 n of the plasmid with single strand-specific mung bean endonuclease, followed by restriction digestio
22 logical and yield-related trait responses of mung bean genotypes and harness germplasm with enhanced
23 utritional profiling of ten selected diverse mung bean genotypes for seed compounds (all expressed in
24 l and yield-related responses of ten diverse mung bean genotypes grown under three temperature regime
25 t-plot design with three replications, where mung bean genotypes were allotted in the main plots, and
26 The amount of alternative oxidase protein in mung bean grown at 19 degrees C increased over 2-fold in
27 rinsically labeled chickpea, yellow pea, and mung bean (hulled and dehulled) protein, using the dual-
30 of the unit genome that increased following mung bean nuclease digestion, with a corresponding decre
32 random inserts from a Plasmodium falciparum mung bean nuclease genomic library were used to construc
33 ic exonuclease III and on the ssDNA specific mung bean nuclease to establish whether our modification
35 mRNA population, followed by incubation with mung bean nuclease which digests single-stranded DNA spe
36 ease resistance to either exonuclease III or mung bean nuclease, but unexpectedly, they alter the cle
37 CAG)n repeats is preferentially sensitive to mung bean nuclease, suggesting the presence of single-st
38 ral genome and sensitivity to digestion with mung bean nuclease, the viral genome is circular and neg
39 ns in the presence and absence of drug using mung bean nuclease, which specifically interacts with th
44 ctional, nitrogen-fixing nodules on soybean, mung bean, or cowpea, suggesting a role for a Fur-regula
48 , economically viable strategy for enhancing mung bean productivity and nutritional quality in coasta
49 c/alkaline) and ultrasound treatments modify mung bean protein (MBP) for use in gellan gum (GG)-based
51 n at 49.3% feed moisture produced texturized mung bean protein (TMBP) with favourable partial denatur
54 dairy proteins with legume proteins such as mung bean protein can create hybrid cheese alternatives
56 ne-acid extraction were performed to produce mung bean protein isolate (MBPI - Th(1)/T(1) and Th(2)/T
58 s of partially replacing (30%) cow milk with mung bean protein isolate (MBPI) on the rheology, textur
59 lecular characterization of HPCAs containing mung bean protein isolate (MPI) or hemp protein isolate
62 digestibility of intrinsically (2)H-labeled mung bean protein was measured against U-[(13)C]-spiruli
64 fants have a high mean IAA digestibility for mung bean protein, although the generalizability of this
66 o determine the DPPH-RSA of cinnamon, clove, mung bean, red bean, red rice, brown rice, black rice an
67 , transcriptomic and metabolomic analyses of mung bean samples from 6-hour, 3-day and 6-day after imb
71 ified nucleases derived from celery (CEL I), mung bean sprouts and Aspergillus (S1) were able to spec
75 on in promoter regions (35%) between the two mung bean subpopulations, suggesting substantial changes
76 n the different applied KL and seed yield of mung bean, the water use efficiency (WUE) varied from 4.
80 y temperature depression could help identify mung bean varieties with enhanced pod and seed yields un
81 mic divergence between wild and domesticated mung bean varieties, leveraging germplasm obtained from
84 made of the developmental gradients along a mung bean (Vigna radiata L.) hypocotyl of the growth rat
86 ar vesicles were isolated from hypocotyls of mung bean (Vigna radiata L.), and pyrophosphate (PPi)- o
87 between the main and alternative pathways in mung bean (Vigna radiata) and soybean (Glycine max) foll
88 hrotron wide-angle x-ray scattering study of mung bean (Vigna radiata) primary cell walls was combine
90 MS) at recommended doses on leguminous plant mung bean (Vigna radiata) under laboratory condition.
91 h within Arabidopsis and from another plant, mung bean (Vigna radiata), to ascertain if this mechanis
94 s (mean +/- SD) of chickpea, yellow pea, and mung bean were 74.6 +/- 0.8%, 71.6 +/- 1.3%, and 63.2 +/
96 The true mean ileal IAA digestibility of mung bean when referenced to [U-13C] spirulina protein o
97 strated that the symbiosis of Vigna radiata (mung bean) with Bradyrhizobium diazoefficiens USDA110 is