ライフサイエンスコーパス: AgNO3

1 AgNO3 and PVP-AgNP exposed fish had common and distinct

2 AgNO3 inhibited ligand binding to adrenergic receptors a

3 kyl analogues using a sequence involving (1) AgNO3-mediated hydroxymethyl radical addition to 1,8-nap

4 the influent wastewater (ENM biosolids), (2) AgNO3, Zn(SO4)2, and micron-sized TiO2 (dissolved/bulk m

5 cophilic, was 8 times less than that in 0.5% AgNO3 and 5 times lower than that in silver sulfadiazine

6 es less effective as an antibiotic than 0.5% AgNO3, with about the same amount of silver.

7 d to kill S. aureus at the same rate as 0.5% AgNO3, with zero colonies on an agar plate, and about 6

8 hus obtained are further functionalized by a AgNO3 /Selectfluor-mediated coupling of the BPin and cya

9 re continuously pumped through a column of a AgNO3-impregnated silica gel.

10 Silica-supported AgNO3 (AgNO3 -SiO2 ) catalyzes the dearomatizing spirocyclizati

11 to UV radiation, silver nitrate (AgNO3), and AgNO3/citrate deposited from aqueous solutions and suspe

12 xposure in experimental microcosms, AgNP and AgNO3 inhibited respiration and photosynthesis of periph

13 PVP-AgNPs and AgNO3 both affected pathways involved in Na(+), K(+), an

14 ompared bactericidal activities of AgNPs and AgNO3 in those bacteria commonly associated with clinica

15 avity after intranasal delivery of AgNPs and AgNO3 to mice, and characterized tissue distribution of

16 e, citrate, dexpanthenol, and carbonate) and AgNO3 on the photosynthesis of the freshwater algae Chla

17 allenes which undergo N-Boc deprotection and AgNO3-promoted cyclization to afford N-alkyl-3-pyrroline

18 d stabilities of the three nanoparticles and AgNO3 (ionic Ag) in soil were examined at three differen

19 tion of ICHO to ICOOH in both nontreated and AgNO3-treated leaves, whereas CYP71B6 is relevant for IC

20 rivatives can protect plants from Ag NPs and AgNO3 (Ag(+) ions).

21 hydroponic exposure to Ag-NPs, Ag2S-NPs, and AgNO3 at 3 mg total Ag/L.

22 nts amended with AgNP-citrate, AgNP-PVP, and AgNO3 was AgCl (50-65%) > Ag2S (32-42%) > Ag metal (Ag0)

23 t2O, isoamyl nitrate/TfOH, Cu(NO3)/TFAA, and AgNO3/Tf2O.

24 nfluent (control); bulk/ionic TiO2, ZnO, and AgNO3 added to influent (bulk/dissolved treatment); or A

25 rs to the noncompetitive ethylene antagonist AgNO3 via the culture medium resulted in a dose-dependen

26 and 49 nm) to ionic silver (Ag(+); added as AgNO3), a historically problematic contaminant with know

27 ic and citrate coated AgNPs as well as Ag as AgNO3 were fed into sequencing batch reactors (SBRs) ino

28 lver nanoparticles and silver ions (dosed as AgNO3) on five functional end points reflecting communit

29 roxidase activity were partially reversed by AgNO3, the ethylene action inhibitor.

30 arge as or larger than the positive control, AgNO3, added at 4-fold the Ag concentration of the silve

31 ons of 3.76ppm after 3h compared to 9ppm for AgNO3).

32 HDL from AgNO3-injected mice lacking Saa1.1 and Saa2.1 exhibited

33 rties but not to the same extent as HDL from AgNO3-injected mice.

34 (Timm's staining) rather than the usual hot AgNO3 development of the Co2+ stain.

35 O-cyclized product in the presence of Au(I)/AgNO3 and N-cyclized product in the presence of Au(I)/Ag

36 rodes of 250 and 500 microns in diameters in AgNO3 solution.

37 was reduced to 12% of the wild-type level in AgNO3-challenged cyp71a12 leaves.

38 stration of AgNPs versus soluble silver ion (AgNO3) control to examine their transport and biological

39 ECL) technology coupled with silver nitrate (AgNO3) enhancement in acetonitrile at a platinum electro

40 ilver nanoparticles (nAg) or silver nitrate (AgNO3) has been shown to improve the microbiological eff

41 ia exposure to UV radiation, silver nitrate (AgNO3), and AgNO3/citrate deposited from aqueous solutio

42 HT3R subunit, both MTSET and silver nitrate (AgNO3), another cysteine-modifying reagent, significantl

43 omposition in nontreated and silver nitrate (AgNO3)-treated leaf tissue was comprehensively analyzed.

44 The addition of small amounts of AgNO3 (0.50-7.0 mM) into the HMTD/Ru(bpy)3(2+) system re

45 With use of catalytic amounts of AgNO3 (10 mol %) the synthesis of substituted 3,3-difluo

46 The effect of AgNO3 on the premature loss of microtuber endodormancy w

47 abbits following multiple s.c. injections of AgNO3 over a period of 35 days.

48 romelas) were exposed to either 4.8 mug/L of AgNO3 or 61.4 mug/L of PVP-AgNPs for 96h.

49 Silver colloids synthesized by reduction of AgNO3 by trisodium citrate were used as SERS-active subs

50 steine or trolox amendment was lower than of AgNO3 alone.

51 n of Agbioav were comparable to the value of AgNO3.

52 painted with 0.03 mg/g casein-coated nAg or AgNO3 were measured as a function of pH (5-9), ionic str

53 both in medium and in nematodes) and rescued AgNO3- and CIT-Ag NP-induced cellular damage, potentiall

54 P-citrate, AgNP-PVP and a conventional salt (AgNO3) treatments.

55 A treatment with ionic silver (AgNO3) was used as a positive control.

56 Silica-supported AgNO3 (AgNO3 -SiO2 ) catalyzes the dearomatizing spirocy

57 rimethylammonium chloride (CTAC) surfactant, AgNO3, ascorbic acid, and NaOH to form the core-shell na

58 ne derivative is selectively retained by the AgNO3-impregnated silica, but the cis-isomer elutes from

59 both types of AgNPs were different than the AgNO3 salt.

60 ow reduced bactericidal activity compared to AgNO3 (i.e., MBC of 15ppm compared to 5ppm), and signifi

61 nctata), exposed to Ag(0) or Ag2S NPs, or to AgNO3.

62 dase treatment revealed that, in response to AgNO3 treatment, their total accumulation level was simi

63 ases, reactions which fail using unsupported AgNO3 proceed effectively with AgNO3 -SiO2 .

64 The Ag2S-NPs remained as Ag2S, while AgNO3 exposure led to Ag(0) and sulfur-associated Ag spe

65 g unsupported AgNO3 proceed effectively with AgNO3 -SiO2 .

66 Control experiments with AgNO3 indicated metallic Ag particles formed during the

67 e, we found that HDL from mice injected with AgNO3 fails to inhibit palmitate-induced inflammation an

68 cells exposed to the dissolved metals ZnCl2, AgNO3, and CuCl2 for 7 d.