PMID-sentid	Pub_year	Sent_text	comp_official_name	comp_offset	protein_name	organism	prot_offset
1989691-1	1991	The activity of the pH 7.5 NADH-linked nitrate reductase isoform from soybeans is termed inducible.	NAD	27-31	inducible nitrate reductase [NADH] 1	Glycine max	39-56
8534848-6	1995	They were designated as iNR1 and iNR2, respectively, since both were inducible by nitrate.	Nitrates	82-89	inducible nitrate reductase [NADH] 1	Glycine max	24-28
8534848-16	1995	In northern blots, the steady-state level of iNR1 mRNA was similar for the nr1 mutant and the wild-type parent after 20 to 48 h induction by nitrate.	Nitrates	141-148	inducible nitrate reductase [NADH] 1	Glycine max	45-49
1989691-4	1991	Nitrate reductase specific mRNA can be observed within 2 h after nitrate treatment.	Nitrates	65-72	inducible nitrate reductase [NADH] 1	Glycine max	0-17
1989691-5	1991	Levels peaked 48 h after nitrate treatment, while the addition of glutamine to nitrate diminished amounts of nitrate reductase specific mRNA.	Glutamine	66-75	inducible nitrate reductase [NADH] 1	Glycine max	109-126
1989691-5	1991	Levels peaked 48 h after nitrate treatment, while the addition of glutamine to nitrate diminished amounts of nitrate reductase specific mRNA.	Nitrates	79-86	inducible nitrate reductase [NADH] 1	Glycine max	109-126
16664642-6	1986	Stem NO(3) (-) concentration and in vivo leaf NR activity were significantly correlated (R(2) = 0.69 with nitrate in the assay medium and 0.74 without nitrate in the medium at P = 0.001) across six combinations of reproductive and soil N-treatment.	Nitrates	106-113	inducible nitrate reductase [NADH] 1	Glycine max	46-48
24221417-9	1988	Nitrate reductase was induced in bacteroids of strain CB1809 when they were incubated in-vitro with nitrate or nitrite.	Nitrates	100-107	inducible nitrate reductase [NADH] 1	Glycine max	0-17
24221417-9	1988	Nitrate reductase was induced in bacteroids of strain CB1809 when they were incubated in-vitro with nitrate or nitrite.	Nitrites	111-118	inducible nitrate reductase [NADH] 1	Glycine max	0-17
16664862-8	1986	Blue Sepharose columns loaded with NR extract of urea-grown mutants and sequentially eluted with NADPH and NADH yielded a NADPH:NR peak only, while the wild-type yielded both NADPH: and NADH:NR peaks.	NADP	122-127	inducible nitrate reductase [NADH] 1	Glycine max	128-130
16664862-8	1986	Blue Sepharose columns loaded with NR extract of urea-grown mutants and sequentially eluted with NADPH and NADH yielded a NADPH:NR peak only, while the wild-type yielded both NADPH: and NADH:NR peaks.	NADP	122-127	inducible nitrate reductase [NADH] 1	Glycine max	35-37
16664862-8	1986	Blue Sepharose columns loaded with NR extract of urea-grown mutants and sequentially eluted with NADPH and NADH yielded a NADPH:NR peak only, while the wild-type yielded both NADPH: and NADH:NR peaks.	NADP	122-127	inducible nitrate reductase [NADH] 1	Glycine max	128-130
16664862-8	1986	Blue Sepharose columns loaded with NR extract of urea-grown mutants and sequentially eluted with NADPH and NADH yielded a NADPH:NR peak only, while the wild-type yielded both NADPH: and NADH:NR peaks.	NADP	122-127	inducible nitrate reductase [NADH] 1	Glycine max	128-130
16664862-10	1986	The results provide additional support to our claim that wild-type soybean contains three NR isozymes, namely, constitutive NADPH:NR (c(1)NR), constitutive NADH:NR (c(2)NR), and nitrate-inducible NR (iNR).	NADP	124-129	inducible nitrate reductase [NADH] 1	Glycine max	90-92
16664862-10	1986	The results provide additional support to our claim that wild-type soybean contains three NR isozymes, namely, constitutive NADPH:NR (c(1)NR), constitutive NADH:NR (c(2)NR), and nitrate-inducible NR (iNR).	Nitrates	178-185	inducible nitrate reductase [NADH] 1	Glycine max	90-92
16665692-1	1987	Recent work identified acetaldehyde oxime as the predominant product purged by inert gases from anaerobic in vivo nitrate reductase (NR) assays of soybean (Glycine max [L.] Merr.)	acetaldehyde oxime	23-41	inducible nitrate reductase [NADH] 1	Glycine max	114-131
16665692-1	1987	Recent work identified acetaldehyde oxime as the predominant product purged by inert gases from anaerobic in vivo nitrate reductase (NR) assays of soybean (Glycine max [L.] Merr.)	acetaldehyde oxime	23-41	inducible nitrate reductase [NADH] 1	Glycine max	133-135
16664862-5	1986	In vitro FMNH(2)-dependent nitrate reduction and Cyt c reductase activity of nitrate-grown plants, and nitrogenous gas evolution during in vivo NR assays of urea-grown plants, were also decreased in the mutants.	Urea	157-161	inducible nitrate reductase [NADH] 1	Glycine max	144-146
16664862-8	1986	Blue Sepharose columns loaded with NR extract of urea-grown mutants and sequentially eluted with NADPH and NADH yielded a NADPH:NR peak only, while the wild-type yielded both NADPH: and NADH:NR peaks.	Sepharose	5-14	inducible nitrate reductase [NADH] 1	Glycine max	35-37
16664862-8	1986	Blue Sepharose columns loaded with NR extract of urea-grown mutants and sequentially eluted with NADPH and NADH yielded a NADPH:NR peak only, while the wild-type yielded both NADPH: and NADH:NR peaks.	Sepharose	5-14	inducible nitrate reductase [NADH] 1	Glycine max	128-130
16664862-8	1986	Blue Sepharose columns loaded with NR extract of urea-grown mutants and sequentially eluted with NADPH and NADH yielded a NADPH:NR peak only, while the wild-type yielded both NADPH: and NADH:NR peaks.	Sepharose	5-14	inducible nitrate reductase [NADH] 1	Glycine max	128-130
16664862-8	1986	Blue Sepharose columns loaded with NR extract of urea-grown mutants and sequentially eluted with NADPH and NADH yielded a NADPH:NR peak only, while the wild-type yielded both NADPH: and NADH:NR peaks.	Urea	49-53	inducible nitrate reductase [NADH] 1	Glycine max	35-37
16664862-8	1986	Blue Sepharose columns loaded with NR extract of urea-grown mutants and sequentially eluted with NADPH and NADH yielded a NADPH:NR peak only, while the wild-type yielded both NADPH: and NADH:NR peaks.	Urea	49-53	inducible nitrate reductase [NADH] 1	Glycine max	128-130
16664862-8	1986	Blue Sepharose columns loaded with NR extract of urea-grown mutants and sequentially eluted with NADPH and NADH yielded a NADPH:NR peak only, while the wild-type yielded both NADPH: and NADH:NR peaks.	Urea	49-53	inducible nitrate reductase [NADH] 1	Glycine max	128-130
16664862-8	1986	Blue Sepharose columns loaded with NR extract of urea-grown mutants and sequentially eluted with NADPH and NADH yielded a NADPH:NR peak only, while the wild-type yielded both NADPH: and NADH:NR peaks.	NADP	97-102	inducible nitrate reductase [NADH] 1	Glycine max	128-130
16664862-8	1986	Blue Sepharose columns loaded with NR extract of urea-grown mutants and sequentially eluted with NADPH and NADH yielded a NADPH:NR peak only, while the wild-type yielded both NADPH: and NADH:NR peaks.	NADP	97-102	inducible nitrate reductase [NADH] 1	Glycine max	128-130
16664862-8	1986	Blue Sepharose columns loaded with NR extract of urea-grown mutants and sequentially eluted with NADPH and NADH yielded a NADPH:NR peak only, while the wild-type yielded both NADPH: and NADH:NR peaks.	NAD	107-111	inducible nitrate reductase [NADH] 1	Glycine max	128-130
16664862-8	1986	Blue Sepharose columns loaded with NR extract of urea-grown mutants and sequentially eluted with NADPH and NADH yielded a NADPH:NR peak only, while the wild-type yielded both NADPH: and NADH:NR peaks.	NAD	107-111	inducible nitrate reductase [NADH] 1	Glycine max	128-130
16664862-8	1986	Blue Sepharose columns loaded with NR extract of urea-grown mutants and sequentially eluted with NADPH and NADH yielded a NADPH:NR peak only, while the wild-type yielded both NADPH: and NADH:NR peaks.	NADP	122-127	inducible nitrate reductase [NADH] 1	Glycine max	35-37
16664862-8	1986	Blue Sepharose columns loaded with NR extract of urea-grown mutants and sequentially eluted with NADPH and NADH yielded a NADPH:NR peak only, while the wild-type yielded both NADPH: and NADH:NR peaks.	NADP	122-127	inducible nitrate reductase [NADH] 1	Glycine max	128-130
16664642-6	1986	Stem NO(3) (-) concentration and in vivo leaf NR activity were significantly correlated (R(2) = 0.69 with nitrate in the assay medium and 0.74 without nitrate in the medium at P = 0.001) across six combinations of reproductive and soil N-treatment.	Nitrates	151-158	inducible nitrate reductase [NADH] 1	Glycine max	46-48
16664208-5	1985	An early increase in root nodule fresh weight and AR activity was also observed in response to this treatment and was followed similarly by early decline.The addition of high levels of soil-applied nitrogen increased leaf NR activity and delayed late season decline in NR activity for both control and early reproductive plants.	Nitrogen	198-206	inducible nitrate reductase [NADH] 1	Glycine max	222-224
16664208-5	1985	An early increase in root nodule fresh weight and AR activity was also observed in response to this treatment and was followed similarly by early decline.The addition of high levels of soil-applied nitrogen increased leaf NR activity and delayed late season decline in NR activity for both control and early reproductive plants.	Nitrogen	198-206	inducible nitrate reductase [NADH] 1	Glycine max	269-271
16664208-6	1985	Nitrate supply was therefore implicated as limiting to leaf NR activity during the decline associated with flowering and early seed development.	Nitrates	0-7	inducible nitrate reductase [NADH] 1	Glycine max	60-62
16664208-7	1985	A limited additional increase in leaf NR activity was observed in response to light enhancement plus soil-applied nitrogen.	Nitrogen	114-122	inducible nitrate reductase [NADH] 1	Glycine max	38-40
16664208-8	1985	As no significant increase in leaf NR activity was observed in response to light enhancement alone, leaf nitrate supply was further implicated as more limiting to leaf NR activity than was photosynthate supply during flowering and early seed development.	Nitrates	105-112	inducible nitrate reductase [NADH] 1	Glycine max	168-170
16663185-6	1983	Induction of nitrate reductase activity in norflurazon-treated cotyledons had an absolute requirement for NO(3) (-) and was completely inhibited by tungstate.	norflurazone	43-54	inducible nitrate reductase [NADH] 1	Glycine max	13-30
16663330-1	1983	The effects of water stress on nitrate reductase and nitrite reductase activities in symbiotic nodules were examined in field-grown soybean plants (Glycine max L Merr.	Water	15-20	inducible nitrate reductase [NADH] 1	Glycine max	31-48
16664016-3	1985	leaves contain two forms of nitrate reductase (NR)-NAD(P)H:NR and NADH:NR.	nad(p)h	51-58	inducible nitrate reductase [NADH] 1	Glycine max	28-45
16663185-6	1983	Induction of nitrate reductase activity in norflurazon-treated cotyledons had an absolute requirement for NO(3) (-) and was completely inhibited by tungstate.	tungstate	148-157	inducible nitrate reductase [NADH] 1	Glycine max	13-30
16663185-8	1983	The optimum pH for cotyledon nitrate reductase activity from norflurazon-treated seedlings was at pH 7.5, and near that for root nitrate reductase activity, whereas the optimum pH for nitrate reductase activity from greening cotyledons was pH 6.5.	norflurazone	61-72	inducible nitrate reductase [NADH] 1	Glycine max	29-46
16663186-5	1983	Nitrate assimilation (nitrate reductase activity and total accumulation of reduced-N) was also enhanced in response to vegetative apex removal.	Nitrates	0-7	inducible nitrate reductase [NADH] 1	Glycine max	22-39
16663033-9	1983	This suggests that (a) the reduction of ClO(3) (-) to ClO(2) (-) by NR is the major cause of ClO(3) (-) toxicity in soybeans and (b) the constitutive NR is active in situ.Segregation of the F(2) of reciprocal crosses between the wild type and the mutants indicated that absence of constitutive NR activity was controlled by a single recessive nuclear gene.	clo(3)	93-99	inducible nitrate reductase [NADH] 1	Glycine max	68-70
16663033-2	1983	Nitrogen assimilation in three nitrate reductase (NR) mutants of soybean (Glycine max L. Merr.	Nitrogen	0-8	inducible nitrate reductase [NADH] 1	Glycine max	31-48
16663033-2	1983	Nitrogen assimilation in three nitrate reductase (NR) mutants of soybean (Glycine max L. Merr.	Nitrogen	0-8	inducible nitrate reductase [NADH] 1	Glycine max	50-52
16659756-10	1976	The addition of glucose, fructose 1,6-diphosphate, pyruvate, citrate, succinate, or malate to the in vivo assay medium significantly increased measurable NR activity of leaf tissue from plants pretreated to extended dark periods at elevated temperature.	malic acid	84-90	inducible nitrate reductase [NADH] 1	Glycine max	154-156
16663033-7	1983	Acetylene reduction activities were also similar at 61 days.Urea-grown LNR-2 seedlings lack both inducible and constitutive NR activity, and were resistant to four days of treatment with 0.5 mm ClO(3) (-).	Urea	60-64	inducible nitrate reductase [NADH] 1	Glycine max	72-74
16663033-8	1983	Urea-grown wild-type seedlings, having only constitutive NR activity, developed ClO(3) (-) toxicity symptoms and suffered decreases in unifoliolate leaf NR activity and chlorophyll concentration.	Urea	0-4	inducible nitrate reductase [NADH] 1	Glycine max	57-59
16663033-8	1983	Urea-grown wild-type seedlings, having only constitutive NR activity, developed ClO(3) (-) toxicity symptoms and suffered decreases in unifoliolate leaf NR activity and chlorophyll concentration.	Urea	0-4	inducible nitrate reductase [NADH] 1	Glycine max	153-155
16663033-9	1983	This suggests that (a) the reduction of ClO(3) (-) to ClO(2) (-) by NR is the major cause of ClO(3) (-) toxicity in soybeans and (b) the constitutive NR is active in situ.Segregation of the F(2) of reciprocal crosses between the wild type and the mutants indicated that absence of constitutive NR activity was controlled by a single recessive nuclear gene.	clo(3)	40-46	inducible nitrate reductase [NADH] 1	Glycine max	68-70
16663033-9	1983	This suggests that (a) the reduction of ClO(3) (-) to ClO(2) (-) by NR is the major cause of ClO(3) (-) toxicity in soybeans and (b) the constitutive NR is active in situ.Segregation of the F(2) of reciprocal crosses between the wild type and the mutants indicated that absence of constitutive NR activity was controlled by a single recessive nuclear gene.	clo(2)	54-60	inducible nitrate reductase [NADH] 1	Glycine max	68-70
16661245-2	1980	The cotyledons develop nitrate reductase (NR) activity in parallel with an increase in chlorophyll and a decrease in protein.	Chlorophyll	87-98	inducible nitrate reductase [NADH] 1	Glycine max	42-44
16661245-4	1980	In extracts of older cotyledons, NR activity is greatest with NADPH.	NADP	62-67	inducible nitrate reductase [NADH] 1	Glycine max	33-35
16661245-5	1980	Blue-Sepharose was used to purify and separate the NR activities into two fractions.	Blue-Sepharose	0-14	inducible nitrate reductase [NADH] 1	Glycine max	51-53
16661245-7	1980	Assays of the NADPH-eluted NR with different concentrations of nitrate revealed that the highest activity was obtained in 80 millimolar KNO(3).	NADP	14-19	inducible nitrate reductase [NADH] 1	Glycine max	27-29
16661245-7	1980	Assays of the NADPH-eluted NR with different concentrations of nitrate revealed that the highest activity was obtained in 80 millimolar KNO(3).	Nitrates	63-70	inducible nitrate reductase [NADH] 1	Glycine max	27-29
16661245-8	1980	Thus, this fraction has properties similar to the low nitrate affinity NAD(P)H:NR of soybean leaves.	Nitrates	54-61	inducible nitrate reductase [NADH] 1	Glycine max	79-81
16661245-9	1980	When 5- to 8-day-old cotyledons were extracted and purified, further elution of the blue-Sepharose with KNO(3), subsequent to the NADPH elution, yielded an NR fraction most active with NADH.	Sepharose	89-98	inducible nitrate reductase [NADH] 1	Glycine max	156-158
16661245-9	1980	When 5- to 8-day-old cotyledons were extracted and purified, further elution of the blue-Sepharose with KNO(3), subsequent to the NADPH elution, yielded an NR fraction most active with NADH.	NADP	130-135	inducible nitrate reductase [NADH] 1	Glycine max	156-158
16661245-9	1980	When 5- to 8-day-old cotyledons were extracted and purified, further elution of the blue-Sepharose with KNO(3), subsequent to the NADPH elution, yielded an NR fraction most active with NADH.	NAD	185-189	inducible nitrate reductase [NADH] 1	Glycine max	156-158
16661245-10	1980	Assays of this fraction with different nitrate concentrations revealed that this NR had a higher nitrate affinity and was similar to the NADH:NR of soybean leaves.	Nitrates	39-46	inducible nitrate reductase [NADH] 1	Glycine max	81-83
16661245-10	1980	Assays of this fraction with different nitrate concentrations revealed that this NR had a higher nitrate affinity and was similar to the NADH:NR of soybean leaves.	Nitrates	97-104	inducible nitrate reductase [NADH] 1	Glycine max	81-83
16661245-10	1980	Assays of this fraction with different nitrate concentrations revealed that this NR had a higher nitrate affinity and was similar to the NADH:NR of soybean leaves.	NAD	137-141	inducible nitrate reductase [NADH] 1	Glycine max	81-83
16661245-11	1980	The KNO(3)-eluted NR fraction which was purified from the extracts of 9- to 14-day-old cotyledons, was most active with NADPH.	NADP	120-125	inducible nitrate reductase [NADH] 1	Glycine max	18-20
16661245-12	1980	The analysis of these fractions prepared from the extracts of older cotyledons indicated that residual NAD(P)H:NR contaminated the NADH:NR.	nad(p)h	103-110	inducible nitrate reductase [NADH] 1	Glycine max	111-113
16661245-12	1980	The analysis of these fractions prepared from the extracts of older cotyledons indicated that residual NAD(P)H:NR contaminated the NADH:NR.	nad(p)h	103-110	inducible nitrate reductase [NADH] 1	Glycine max	136-138
16661245-12	1980	The analysis of these fractions prepared from the extracts of older cotyledons indicated that residual NAD(P)H:NR contaminated the NADH:NR.	NAD	131-135	inducible nitrate reductase [NADH] 1	Glycine max	111-113
16661245-12	1980	The analysis of these fractions prepared from the extracts of older cotyledons indicated that residual NAD(P)H:NR contaminated the NADH:NR.	NAD	131-135	inducible nitrate reductase [NADH] 1	Glycine max	136-138
16661245-14	1980	It was concluded that NADH:NR was most active in young cotyledons and that as the cotyledons aged the NAD(P)H:NR became more active.	NAD	22-26	inducible nitrate reductase [NADH] 1	Glycine max	27-29
16661245-14	1980	It was concluded that NADH:NR was most active in young cotyledons and that as the cotyledons aged the NAD(P)H:NR became more active.	NAD	22-26	inducible nitrate reductase [NADH] 1	Glycine max	110-112
16661245-14	1980	It was concluded that NADH:NR was most active in young cotyledons and that as the cotyledons aged the NAD(P)H:NR became more active.	nad(p)h	102-109	inducible nitrate reductase [NADH] 1	Glycine max	27-29
16661245-14	1980	It was concluded that NADH:NR was most active in young cotyledons and that as the cotyledons aged the NAD(P)H:NR became more active.	nad(p)h	102-109	inducible nitrate reductase [NADH] 1	Glycine max	110-112
16659756-4	1976	were designed to determine the relative limitations of NO(3) (-), NADH, and nitrate reductase (NR) per se on nitrate metabolism as affected by light and temperature.	Nitrates	76-83	inducible nitrate reductase [NADH] 1	Glycine max	95-97
16659756-9	1976	Under the latter condition, in vitro NR activity was appreciable (19 mumol NO(2) (-) [g fresh weight, hr](-1)) suggesting that enzyme level per se was not the limiting factor and that reductant energy might be limiting.The addition of NADH to the in vivo NR assay medium did not stimulate NR activity, although it was not established that NADH entered the tissue.	Nitrogen Dioxide	75-80	inducible nitrate reductase [NADH] 1	Glycine max	37-39
16659756-9	1976	Under the latter condition, in vitro NR activity was appreciable (19 mumol NO(2) (-) [g fresh weight, hr](-1)) suggesting that enzyme level per se was not the limiting factor and that reductant energy might be limiting.The addition of NADH to the in vivo NR assay medium did not stimulate NR activity, although it was not established that NADH entered the tissue.	NAD	235-239	inducible nitrate reductase [NADH] 1	Glycine max	37-39
16659756-9	1976	Under the latter condition, in vitro NR activity was appreciable (19 mumol NO(2) (-) [g fresh weight, hr](-1)) suggesting that enzyme level per se was not the limiting factor and that reductant energy might be limiting.The addition of NADH to the in vivo NR assay medium did not stimulate NR activity, although it was not established that NADH entered the tissue.	NAD	339-343	inducible nitrate reductase [NADH] 1	Glycine max	37-39
16659756-10	1976	The addition of glucose, fructose 1,6-diphosphate, pyruvate, citrate, succinate, or malate to the in vivo assay medium significantly increased measurable NR activity of leaf tissue from plants pretreated to extended dark periods at elevated temperature.	Glucose	16-23	inducible nitrate reductase [NADH] 1	Glycine max	154-156
16659756-10	1976	The addition of glucose, fructose 1,6-diphosphate, pyruvate, citrate, succinate, or malate to the in vivo assay medium significantly increased measurable NR activity of leaf tissue from plants pretreated to extended dark periods at elevated temperature.	fructose-1,6-diphosphate	25-49	inducible nitrate reductase [NADH] 1	Glycine max	154-156
16659756-10	1976	The addition of glucose, fructose 1,6-diphosphate, pyruvate, citrate, succinate, or malate to the in vivo assay medium significantly increased measurable NR activity of leaf tissue from plants pretreated to extended dark periods at elevated temperature.	Pyruvic Acid	51-59	inducible nitrate reductase [NADH] 1	Glycine max	154-156
16659756-10	1976	The addition of glucose, fructose 1,6-diphosphate, pyruvate, citrate, succinate, or malate to the in vivo assay medium significantly increased measurable NR activity of leaf tissue from plants pretreated to extended dark periods at elevated temperature.	Citric Acid	61-68	inducible nitrate reductase [NADH] 1	Glycine max	154-156
16659756-10	1976	The addition of glucose, fructose 1,6-diphosphate, pyruvate, citrate, succinate, or malate to the in vivo assay medium significantly increased measurable NR activity of leaf tissue from plants pretreated to extended dark periods at elevated temperature.	Succinic Acid	70-79	inducible nitrate reductase [NADH] 1	Glycine max	154-156
16659756-12	1976	Increased NR activities from the various additives were attributed to production of NADH.	NAD	84-88	inducible nitrate reductase [NADH] 1	Glycine max	10-12
16662897-7	1983	The nitrogenase activity of detached nodules initiated with the nitrate reductase-negative mutant strains was less affected by the KNO(3) treatment as compared to the wild-type strain; however, the results were less conclusive than those obtained with the isolated bacteroids.The addition of either KNO(3) or KNO(2) to detached nodules (wild type) suspended in a semisolid agar nutrient medium caused an inhibition of nitrogenase activity of 50% and 65% as compared to the minus N controls, and provided direct evidence for a localized effect of nitrate and nitrite at the nodule level.	Agar	373-377	inducible nitrate reductase [NADH] 1	Glycine max	64-81
16662897-7	1983	The nitrogenase activity of detached nodules initiated with the nitrate reductase-negative mutant strains was less affected by the KNO(3) treatment as compared to the wild-type strain; however, the results were less conclusive than those obtained with the isolated bacteroids.The addition of either KNO(3) or KNO(2) to detached nodules (wild type) suspended in a semisolid agar nutrient medium caused an inhibition of nitrogenase activity of 50% and 65% as compared to the minus N controls, and provided direct evidence for a localized effect of nitrate and nitrite at the nodule level.	Nitrites	558-565	inducible nitrate reductase [NADH] 1	Glycine max	64-81
16662475-0	1982	Differential effect of tungsten on the development of endogenous and nitrate-induced nitrate reductase activities in soybean leaves.	Tungsten	23-31	inducible nitrate reductase [NADH] 1	Glycine max	85-102
16662475-0	1982	Differential effect of tungsten on the development of endogenous and nitrate-induced nitrate reductase activities in soybean leaves.	Nitrates	69-76	inducible nitrate reductase [NADH] 1	Glycine max	85-102
16657912-6	1972	Nitrate reductase activity in leaves of nitrate-supplied soybean and sunflower follows closely the distribution of nitrate reductase.	Nitrates	40-47	inducible nitrate reductase [NADH] 1	Glycine max	0-17
16660578-4	1978	Nitrate reductase activity and, to a lesser extent, NO(3) (-) content of leaf tissue decreased with the addition of tungstate to the nutrient growth medium.	tungstate	116-125	inducible nitrate reductase [NADH] 1	Glycine max	0-17
24477699-7	1972	When 2,4-dichlorophenoxyacetic acid was omitted from the medium the growth was slow and the NR activity did not increase.	2,4-Dichlorophenoxyacetic Acid	5-35	inducible nitrate reductase [NADH] 1	Glycine max	92-94
16659611-9	1976	In vivo studies indicated a lower inactivation temperature for NADPH-glutamate dehydrogenase; however, it was still more heat-tolerant than nitrate reductase.We envisaged that reduced nitrogen supplied by NO(3) (-) assimilation is a factor in leaf expansion.	Nitrogen	184-192	inducible nitrate reductase [NADH] 1	Glycine max	140-157
24430370-4	1975	These parameters decreased by 80-95% at mid-pod fill, a stage where ovule (seed) development was in the logarithmic growth phase, placing a heavy demand on the plant for both energy and fixed nitrogen.The activity of nitrogen fixation of soybean root nodules bore a reciprocal relationship to that of nitrate reductase.	Nitrogen	217-225	inducible nitrate reductase [NADH] 1	Glycine max	301-318
24430370-5	1975	The maximum levels of nitrogen fixation were reached at early pod fill when nitrate reductase activity had dropped to 25% of maximum activity.	Nitrogen	22-30	inducible nitrate reductase [NADH] 1	Glycine max	76-93
16657914-9	1972	Maximum total activity shifted to leaf positions lower in the plant canopy with later growth stages.Nitrate reductase activity of soybeans grown in hydroponic systems was significantly higher than activity of adjacent soil grown plants at later growth stages, which suggested that under normal field conditions the potential for nitrate utilization may not be realized.	Nitrates	329-336	inducible nitrate reductase [NADH] 1	Glycine max	100-117
16657914-13	1972	Thus, based on previous estimates of approximately 32% of the final N distribution being in the vegetative plant parts, the estimated input of reduced nitrogen via the enzyme assay was in agreement with the actual N accumulation.The amount of calculated N(2)-fixation by nodules per season with plants grown in hydroponics was less than 2% of the computed nitrate reduced via leaf nitrate reductase.	Nitrogen	151-159	inducible nitrate reductase [NADH] 1	Glycine max	381-398
13499433-0	1957	On the relation between nitrogen fixation and nodule nitrate reductase of soybean root nodules.	Nitrogen	24-32	inducible nitrate reductase [NADH] 1	Glycine max	53-70
16654743-0	1955	Role of Molybdenum as a Constituent of Nitrate Reductase from Soybean Leaves.	Molybdenum	8-18	inducible nitrate reductase [NADH] 1	Glycine max	39-56
34025146-2	2021	The data procured from current investigation indicated that water stress significantly declined the plant growth, leaf area in addition to photosynthetic efficiency, nitrate reductase activity and crop yield at various stages of growth such as vegetative (VS), flowering (FS) and pod filling stage (PFS).	Water	60-65	inducible nitrate reductase [NADH] 1	Glycine max	166-183
29701804-8	2018	The NO signal was slightly decreased by inhibitors of nitrate reductase but not by those of nitric oxide synthase, which could indicate a minor contribution of plant nitrate reductase and supports the existence of nitrate- and arginine-independent pathways for NO production.	Arginine	227-235	inducible nitrate reductase [NADH] 1	Glycine max	54-71
33333896-6	2020	Actinomycetes also increased nitrogen availability in soil and legume tissue and seeds, which induced the activity of key nitrogen metabolizing enzymes, e.g., glutamine synthetase, glutamate synthase, and nitrate reductase.	Nitrogen	29-37	inducible nitrate reductase [NADH] 1	Glycine max	181-222
33333896-6	2020	Actinomycetes also increased nitrogen availability in soil and legume tissue and seeds, which induced the activity of key nitrogen metabolizing enzymes, e.g., glutamine synthetase, glutamate synthase, and nitrate reductase.	Nitrogen	122-130	inducible nitrate reductase [NADH] 1	Glycine max	181-222
31600405-0	2020	Involvement of nitrate reductase-dependent nitric oxide production in magnetopriming-induced salt tolerance in soybean.	Nitric Oxide	43-55	inducible nitrate reductase [NADH] 1	Glycine max	15-32
29701804-8	2018	The NO signal was slightly decreased by inhibitors of nitrate reductase but not by those of nitric oxide synthase, which could indicate a minor contribution of plant nitrate reductase and supports the existence of nitrate- and arginine-independent pathways for NO production.	Arginine	227-235	inducible nitrate reductase [NADH] 1	Glycine max	166-183
29701969-8	2018	Particularly at intermediate W additions (W 500 mg kg-1), symbiotic nitrogen fixation was able to compensate for reduced leaf nitrate reductase activity.	Nitrogen	68-76	inducible nitrate reductase [NADH] 1	Glycine max	126-143
28056417-0	2017	Analysis of the combined effects of lanthanum and acid rain, and their mechanisms, on nitrate reductase transcription in plants.	Lanthanum	36-45	inducible nitrate reductase [NADH] 1	Glycine max	86-103
28056417-3	2017	Nitrogen is important for plant growth, and nitrate reductase (NR) is a key plant enzyme that catalyzes nitrogen assimilation.	Nitrogen	0-8	inducible nitrate reductase [NADH] 1	Glycine max	63-65
28056417-3	2017	Nitrogen is important for plant growth, and nitrate reductase (NR) is a key plant enzyme that catalyzes nitrogen assimilation.	Nitrogen	104-112	inducible nitrate reductase [NADH] 1	Glycine max	44-61
28056417-3	2017	Nitrogen is important for plant growth, and nitrate reductase (NR) is a key plant enzyme that catalyzes nitrogen assimilation.	Nitrogen	104-112	inducible nitrate reductase [NADH] 1	Glycine max	63-65
23109293-4	2013	It was found that when soybean seedlings were treated with 1.5 mg/L BPA, the growth of roots was improved, the content of nitrate in roots was increased, the content of ammonium in roots was decreased, and the activities of nitrate reductase and nitrite reductase in roots were not changed.	bisphenol A	68-71	inducible nitrate reductase [NADH] 1	Glycine max	224-241
23090712-5	2013	UV-B radiation led to the inhibition in the activities of the key enzymes (nitrate reductase, glutamine synthetase, glutamate synthase) in the nitrogen assimilation, the decrease in the contents of nitrate and soluble proteins, as well as the increase in the content of amino acid in soybean seedlings.	Nitrogen	143-151	inducible nitrate reductase [NADH] 1	Glycine max	75-92
15228008-8	2004	Nitrate and light intensity positively regulate the gene transcription of NR, but ammonium ions and Glu, Gln do the negative way.	Nitrates	0-7	inducible nitrate reductase [NADH] 1	Glycine max	74-76
18363356-4	2008	However, there were significant effects of glyphosate application on nitrogen assimilation, as measured by in vivo nitrate reductase activity (NRA) in leaves, roots, and nodules, especially at high rate.	glyphosate	43-53	inducible nitrate reductase [NADH] 1	Glycine max	115-132
18232232-4	2007	It restricted uptake and transport of NO3(-), inhibited activity of some key nitrogen-metabolism-related enzymes, such as: nitrate reductase (NR) to the nitrate reduction, glutamine systhetase (GS) and glutamine synthase (GOGAT) to the ammonia assimilation, while it increased the content of free amino acids and decreased that of soluble protein as well.	punky blue	38-41	inducible nitrate reductase [NADH] 1	Glycine max	123-140
18232232-4	2007	It restricted uptake and transport of NO3(-), inhibited activity of some key nitrogen-metabolism-related enzymes, such as: nitrate reductase (NR) to the nitrate reduction, glutamine systhetase (GS) and glutamine synthase (GOGAT) to the ammonia assimilation, while it increased the content of free amino acids and decreased that of soluble protein as well.	punky blue	38-41	inducible nitrate reductase [NADH] 1	Glycine max	142-144
18232232-4	2007	It restricted uptake and transport of NO3(-), inhibited activity of some key nitrogen-metabolism-related enzymes, such as: nitrate reductase (NR) to the nitrate reduction, glutamine systhetase (GS) and glutamine synthase (GOGAT) to the ammonia assimilation, while it increased the content of free amino acids and decreased that of soluble protein as well.	Nitrogen	77-85	inducible nitrate reductase [NADH] 1	Glycine max	123-140
18232232-4	2007	It restricted uptake and transport of NO3(-), inhibited activity of some key nitrogen-metabolism-related enzymes, such as: nitrate reductase (NR) to the nitrate reduction, glutamine systhetase (GS) and glutamine synthase (GOGAT) to the ammonia assimilation, while it increased the content of free amino acids and decreased that of soluble protein as well.	Nitrogen	77-85	inducible nitrate reductase [NADH] 1	Glycine max	142-144
18232232-4	2007	It restricted uptake and transport of NO3(-), inhibited activity of some key nitrogen-metabolism-related enzymes, such as: nitrate reductase (NR) to the nitrate reduction, glutamine systhetase (GS) and glutamine synthase (GOGAT) to the ammonia assimilation, while it increased the content of free amino acids and decreased that of soluble protein as well.	Nitrates	123-130	inducible nitrate reductase [NADH] 1	Glycine max	142-144
18232232-4	2007	It restricted uptake and transport of NO3(-), inhibited activity of some key nitrogen-metabolism-related enzymes, such as: nitrate reductase (NR) to the nitrate reduction, glutamine systhetase (GS) and glutamine synthase (GOGAT) to the ammonia assimilation, while it increased the content of free amino acids and decreased that of soluble protein as well.	Ammonia	236-243	inducible nitrate reductase [NADH] 1	Glycine max	123-140
18232232-4	2007	It restricted uptake and transport of NO3(-), inhibited activity of some key nitrogen-metabolism-related enzymes, such as: nitrate reductase (NR) to the nitrate reduction, glutamine systhetase (GS) and glutamine synthase (GOGAT) to the ammonia assimilation, while it increased the content of free amino acids and decreased that of soluble protein as well.	Ammonia	236-243	inducible nitrate reductase [NADH] 1	Glycine max	142-144
17090128-4	2006	Imazethapyr inhibited nitrate reductase activity in leaves and roots.	imazethapyr	0-11	inducible nitrate reductase [NADH] 1	Glycine max	22-39
15228008-8	2004	Nitrate and light intensity positively regulate the gene transcription of NR, but ammonium ions and Glu, Gln do the negative way.	Glutamine	105-108	inducible nitrate reductase [NADH] 1	Glycine max	74-76
15228008-11	2004	Water stress decreases NR activity, but increases proteinase activity, and thus, they regulate plant nitrogen metabolism, although there are some different effects among species and cultivars.	Nitrogen	101-109	inducible nitrate reductase [NADH] 1	Glycine max	23-25
15228008-17	2004	This paper reviewed the pathway of plant nitrogen assimilation, characteristics of key enzymes and their regulating mechanisms with picturing the regulating mode of NR, and described the signal sensing and conduct of plant nitrogen metabolism and the formation, transportation, storage and degradation of plant cell protein with picturing the schedule of protein transport of membrane system in plant cell.	Nitrogen	41-49	inducible nitrate reductase [NADH] 1	Glycine max	165-167
15228008-17	2004	This paper reviewed the pathway of plant nitrogen assimilation, characteristics of key enzymes and their regulating mechanisms with picturing the regulating mode of NR, and described the signal sensing and conduct of plant nitrogen metabolism and the formation, transportation, storage and degradation of plant cell protein with picturing the schedule of protein transport of membrane system in plant cell.	Nitrogen	223-231	inducible nitrate reductase [NADH] 1	Glycine max	165-167
14768562-2	2003	At the same time the correlation of plant N2O emission with nitrate reductase activity, nitrate content and nitrite content of the plant leaves was also analyzed.	Nitrous Oxide	42-45	inducible nitrate reductase [NADH] 1	Glycine max	60-77
12756917-0	2003	Nitrogen fixation in transposon mutants from Bradyrhizobium japonicum USDA 110 impaired in nitrate reductase.	Nitrogen	0-8	inducible nitrate reductase [NADH] 1	Glycine max	91-108
12756917-8	2003	Nitrate reductase activity in bacteroids along nodule growth decreased in all groups including the ineffective AN group, whose nodulation was highly inhibited by nitrate at 5 mmol/L N. Host-cultivar interaction seemed to influence the regulation of nitrate reductase activity in bacteroids.	Nitrates	162-169	inducible nitrate reductase [NADH] 1	Glycine max	0-17