ライフサイエンスコーパス: radical scavenger

1 th Trolox (a soluble vitamin E) or Tempol (a radical scavenger).

2 reaction occurred in the presence of a free radical scavenger.

3 death, suggesting that AIF serves as a free radical scavenger.

4 nate parent and can function as an excellent radical scavenger.

5 s of central neurotoxins by acting as a free radical scavenger.

6 ged proteins, presumably by acting as a free radical scavenger.

7 o ascertain whether clonidine acts as a free radical scavenger.

8 inhibited by tetramethylthiourea, a hydroxyl radical scavenger.

9 rating that cleavage is suppressed by a free radical scavenger.

10 radiation protection, primarily acting as a radical scavenger.

11 improved by in vivo treatment with the free radical scavenger.

12 esting that genipin may act as a direct free radical scavenger.

13 ), as well as its potential as a direct free radical scavenger.

14 m sulfate-inflamed mice, treated with a free radical scavenger.

15 ,6-tetramethyl-1-piperidinyloxy (TEMPO) as a radical scavenger.

16 fficient (*)OOH, and also presumably (*)OOR, radical scavenger.

17 effects are attenuated by the use of a free radical scavenger.

18 microM for 6-keto-PGF1alpha) and other free radical scavengers.

19 thanol and natural organic matter as sulfate radical scavengers.

20 robe concentration, and the presence of free-radical scavengers.

21 ior neuroprotective actions to those of free radical scavengers.

22 oxidation of ascorbate as well as effective radical scavengers.

23 deling of the extracellular matrix, and free radical scavengers.

24 solvent although subject to inactivation by radical scavengers.

25 e metal from the Fenton cycle, and effective radical scavengers.

26 These effects could be blocked by oxygen radical scavengers.

27 of 4-OHEN-mediated enzyme inhibition by free radical scavengers.

28 d by hydrogen peroxide and inhibited by free radical scavengers.

29 enerated in the presence of different oxygen radical scavengers.

30 nhibited by catalase, heme poisons, and free radical scavengers.

31 y nitric oxide synthase inhibitors or oxygen radical scavengers.

32 ization by the presence of H2O2 and hydroxyl radical scavengers.

33 poxia-induced response are inhibited by free radical scavengers.

34 arranged in ortho dihydroxy fashion are good radical scavengers.

35 Both fractions showed promising potential as radical scavengers.

36 ne samples were found to be less potent free radical scavengers.

37 en in the presence of high concentrations of radical scavengers.

38 adiated bivalents was rescued by addition of radical scavengers.

39 d by l-Trp, the heme ligand cyanide, or free radical scavengers.

40 redox active metal ions or inhibited by free radical scavengers.

41 mercaptopropionyl)-glycine and by the oxygen radical scavenger 2-acetamidoacrylic acid.

42 The free radical scavenger 2-mercaptoethanol completely suppresse

43 activity were inhibited by the nitrogen free radical scavenger 2-phenyl-4,4,5,5,-tetramethylimidazoli

44 of O(3) concentrations with or without a OH radical scavenger (2-butanol) on the SOA mass and therma

45 In addition, treatment with a free-radical scavenger, 4-hydroxytetramethylpiperidine-1-oxyl

46 V irradiation with one of the following free-radical scavengers: 40 mM D-mannitol, 40 mM imidazole or

47 inhibited NDMA formation in the presence of radical scavengers (ABTS and trolox) imply that O2 react

48 oiety of etoposide acts as an effective free radical scavenger, accounting for its antioxidant action

49 may significantly enhance intracellular free radical scavenger activity.

50 Recent studies have suggested that free radical scavenger administration reduces the rate of dev

51 f ECs was inhibited with 1% DMSO (a hydroxyl radical scavenger), allopurinol (a xanthine oxidase inhi

52 ve approaches-normobaric hyperoxia, the free radical scavenger alpha-phenyl-butyl-tert-nitrone (alpha

53 Treatment with the radical scavenger alpha-phenyl-tert-butyl nitrone (PBN)

54 Radical scavengers also reduced the irradiation-induced

55 nhibited by superoxide dismutase or hydroxyl radical scavengers, although it was strongly inhibited b

56 oxidase or pretreatment of capillaries with radical scavengers ameliorated DEP-induced P-glycoprotei

57 roduct of the pineal gland, is a direct free radical scavenger, an indirect antioxidant, as well as a

58 roxide, (ii) the effects are alleviated by a radical scavenger and (iii) the glutathione peroxidase g

59 Through the assessment of a free radical scavenger and an anti-inflammatory endocannabino

60 Etoposide acted as an effective radical scavenger and antioxidant protector of phosphati

61 e, melatonin, which is an effective hydroxyl radical scavenger and antioxidant.

62 scherichia coli beta2 by hydroxyurea (HU), a radical scavenger and cancer therapeutic agent.

63 Furthermore, experiments with radical scavenger and inhibitor of intracellular glutath

64 A hydroxyl radical scavenger and inhibitors of inducible nitric oxi

65 get mixes the hyperpolarized solution with a radical scavenger and injects it into an NMR tube, provi

66 apacity for ascorbate to act as an efficient radical scavenger and its propensity to reduce and chela

67 is and, at the same time, an effective lipid radical scavenger and lipid antioxidant.

68 us, GSH, commonly viewed as a universal free radical scavenger and major intracellular antioxidant, a

69 re indeed generated by using tBuOH as the OH radical scavenger and measuring its product, formaldehyd

70 Implementing a free radical scavenger and TRPA1 inhibitor can inhibit mast c

71 In HC animals, tissue endogenous oxygen radical scavengers and antioxidant vitamins were deplete

72 diet, and have been recognised as efficient radical scavengers and antioxidants.

73 Oxygen radical scavengers and calcium channel blockers have bee

74 is proposed on the basis of experiments with radical scavengers and DMSO-d6 and ESI-MS observations.

75 a, isotopic labeling studies, and the use of radical scavengers and electron transfer inhibitors.

76 ol (RES), and quercetin (QUE) are known free radical scavengers and have shown cardioprotective effec

77 eater degree of inhibition by solution-phase radical scavengers and higher rate of reactivity loss fr

78 ding magnetite + H2O2 one in the presence of radical scavengers and in a natural water matrix, but it

79 By combining radical scavengers and kinetic modeling, we have derived

80 phenolics may act as potent superoxide anion radical scavengers and reducing agents.

81 ro-beta-carboline and pinoline) were good OH radical scavengers and their activity was comparable to

82 ivation of caspase-3 and was reduced by free radical scavengers and Z-Val-Ala-Asp fluoromethylketone,

83 e measured the effectiveness of tempol (free radical scavenger) and creatine (enhances cellular energ

84 S inhibitor), dimethyl sulfoxide (a hydroxyl radical scavenger), and ascorbate (a peroxynitrous acid

85 is shown here to function directly as a free radical scavenger, and adducts formed as a result of thi

86 As a free radical scavenger, and cofactor, ascorbate (ASC) is a ke

87 wever, is also a potent antioxidant and free radical scavenger, and numerous studies have shown that

88 The influence of NaNO2 and H2O2, hydroxyl radical scavenger, and sunlight was assessed by an exper

89 damage and the effects of antioxidants, free radical scavengers, and overexpression of superoxide dis

90 wn to decrease inflammation, upregulate free radical scavengers, and prevent the formation of reactiv

91 PEGylated CNPs acted as efficient radical scavengers, and superoxide dismutase (SOD) activ

92 estigated concerning their active profile as radical scavengers, antimicrobials, estrogen-like activa

93 d mercaptopropionylglycine (MPG), a hydroxyl radical scavenger (antioxidant group).

94 r plate assay for the quantification of free radical scavengers (antioxidants) in food samples is des

95 These data suggest that free radical scavengers are effective in all cell types of th

96 e form of superoxide dismutase (SOD), a free radical scavenger, are limited because of its short half

97 discussed with reference to the use of free radical scavengers as potential anti-aging agents.

98 is reversed by co-administration of the free radical scavenger ascorbate.

99 and measuring the damage reduction from the radical scavengers ascorbic acid and beta-mercaptoethano

100 o UV irradiation was demonstrated via a free radical scavenger assay, where beta-carotene/CD nanofibe

101 lcium influx into neurones or acts as a free radical scavenger at concentrations below 100 microM.

102 ride (7 micromol/L), each of which is a free radical scavenger, blocked protection, indicating that d

103 Intravitreal injection of membrane-permeable radical scavenger but not vehicle before ischemia preven

104 ssion was prevented by catalase and hydroxyl radical scavengers but not by superoxide dismutase.

105 SH) is a crucial intracellular reductant and radical scavenger, but it may also coordinate the soft C

106 lic compounds and ascorbic acid that exhibit radical scavenger capacity and reducing power.

107 that have been employed to evaluate the free radical scavenger capacity of carotenoid molecules are t

108 ls (nitric oxide, superoxide anion, hydroxyl radical scavenger capacity) and cellular antioxidants (s

109 urthermore, targeting mitochondria with free radical scavengers conferred superior protection against

110 Control experiments with radical scavengers confirmed the in situ generation of t

111 ith PS conjugated to the oxygen-derived free radical scavenger DFO.

112 dismutase (an O( minus sign, dot below )(2) radical scavenger) did not show any inhibitory effects.

113 cavenger) or superoxide dismutase (an O(-.2) radical scavenger) did not show any inhibitory effects.

114 venger) or superoxide dismutase (an O(-.)(2) radical scavenger) did not show any inhibitory effects.

115 were unaffected by the presence of the free radical scavenger dimethyl sulfoxide (DMSO) or by freezi

116 Cotreatment of cells with the oxygen radical scavenger dimethyl sulfoxide significantly reduc

117 ntrations, absence vs presence of a hydroxyl radical scavenger (dimethyl sulfoxide, DMSO), and differ

118 Pretreatment of cells with the radical scavenger DMSO had no effect on the mutagenic in

119 The free radical scavenger DMSO or the gap junction inhibitor Lin

120 The addition of the free radical scavenger DMSO produces an insignificant effect

121 ent treatment of cells with arsenite and the radical scavenger DMSO reduced the fluorescent intensity

122 by H(2)O(2) was not affected by the hydroxyl radical scavenger DMSO, mannitol, or N-tert-butyl-alpha-

123 rradiation in the presence or absence of the radical scavenger DMSO, suggesting that DSB formation is

124 onsistent with our previous results with the radical scavenger DMSO, which reduced the mutagenicity o

125 rbic acid, and dithiothreitol but not by the radical scavengers DMSO, mannitol, or superoxide dismuta

126 alonitroalkane analogues relative to natural radical scavenger (e.g., carbonate) concentrations.

127 Furthermore, addition of free radical scavengers (e.g., DMSO, glycerol, and cationic t

128 is study, we tested the efficacy of the free radical scavenger edaravone in three cellular models of

129 The addition of oxygen radical scavenger enzymes (catalase, superoxide dismutas

130 sfer radical pathway was also validated with radical scavenger experiments and cyclic voltammetry dat

131 Radical scavenger experiments and DFT calculations indic

132 tests confirmed homogeneous catalysis, while radical scavenger experiments excluded radical pathways.

133 experiments, deuterium labeling studies, and radical scavenger experiments.

134 polar extracts were the most efficient free-radical scavengers, Fe(2+) chelators and inhibitors of m

135 upport the concept of developing oxygen free radical scavengers for both AD and PD and further sugges

136 nced by the presence of the less potent free radical scavengers gallic and caffeic acids.

137 l)piperazine-1-sulfonamide possessing a free radical scavenger group (FRS), chelating groups (CHL), o

138 Hydroxyl and superoxide radical scavengers had no effect on the rate.

139 Free radical scavengers have failed to improve patient outcom

140 Procyanidins (PCs) are effective free radical scavengers, however, their antioxidant ability i

141 t significantly inhibited in the presence of radical scavengers (humic acid, carbonate), in complex a

142 The radical scavenger hydroxyurea and small molecule mimics

143 s 2.50-fold less sensitive than hRRM2 to the radical scavenger hydroxyurea, whereas EPR showed simila

144 Using a radical scavenger (i.e., isopropanol), we determined tha

145 ferent intervention pathways: (I) lipophilic radical scavengers, (II) iron chelators, (III) antioxida

146 ron transport chain as well as a potent free radical scavenger in lipid and mitochondrial membranes.

147 pha-Tocopherol acts as a peroxyl and alkoxyl radical scavenger in lipid environments, and thus it pre

148 In contrast, Pso is a moderate radical scavenger in lipid media, and its reaction is de

149 hat RA possesses a significant efficacy as a radical scavenger in physiological environments.

150 Pso has been found to be a potent radical scavenger in physiological polar media, acting v

151 Ascorbic acid is a potent free-radical scavenger in plasma, and also regulates intracel

152 T), a cysteine rich protein is involved as a radical scavenger in several pathological conditions ass

153 n additional pressure on ascorbate as a free-radical scavenger in this population.

154 PH method: chlorogenic acid was the dominant radical scavenger in V. opulus P3 (74%), while epicatech

155 light the therapeutic potential of synthetic radical scavengers in Alzheimer disease.

156 analyzed the localization of superoxide free radical scavengers in different striatal neuron types in

157 -OH(2))(+). as well as oxidation products of radical scavengers in mass spectra of water droplets for

158 synthesized and found to be equipotent free radical scavengers in solution as assessed by EPR analys

159 unt of radical generated and the presence of radical scavengers in solution.

160 Attenuation of the etching process by radical scavengers in the presence of oxygen, and the re

161 thiazolidine-4-carboxylic acid (OTZ), a free radical scavenger, in treating acute respiratory distres

162 not be effectively inhibited by the hydroxyl radical scavengers, including dimethylsulfoxide, mannito

163 kinase protein kinase-B is blocked with free radical scavengers, indicating a role for reactive oxyge

164 ght was affected by the presence of hydroxyl radical scavengers, indicating the likely involvement of

165 Interestingly, hydroxyl radical scavengers inhibited the response to pyocyanin,

166 Neuroprotective strategies, including free radical scavengers, ion channel modulators, and anti-inf

167 en suggested to serve as a proton buffer and radical scavenger, its physiological function remains my

168 e mitochondrially enriched electron and free radical scavengers JP4-039 and XJB-5-131 improved RC fun

169 Administration of the free radical scavenger L-N-acetylcysteine blocked MS-275-medi

170 y attenuated by coadministration of the free radical scavenger L-N-acetylcysteine.

171 (NF-kappa B) activation; moreover, the free radical scavenger L-N-acetylcyteine (LNAC) blocked borte

172 th N-acetyl-l-cysteine (NAC), an oxygen free radical scavenger, led to a reduction in the FoxO1 inhib

173 vascular expression and activity of the free radical scavengers manganese and extracellular superoxid

174 amage that was not prevented by the hydroxyl radical scavenger mannitol (50 mM).

175 The hydroxyl radical scavenger mannitol had no effect on the methacho

176 Addition of the hydroxyl radical scavenger mannitol or dimethyl sulfoxide to AMs

177 NOO- scavenger urate but not by the hydroxyl radical scavenger mannitol.

178 ive oxygen species, since neither a hydroxyl radical scavenger (mannitol) nor oxygen affects the yiel

179 Dexrazoxane, a free-radical scavenger, may protect the heart from doxorubici

180 Melatonin and AFMK, as potent free radical scavengers, may assist plants in coping with har

181 Furthermore, the free radical scavenger, melatonin (2 mM), prevented the enhan

182 reported neuroprotective action of the free radical scavenger, melatonin, against cerebral ischemia.

183 designed to evaluate the impact of the free radical scavenger metallothionein on high-fat diet-induc

184 impact of glutathione depletion and the free radical scavenger, metallothionein (MT), on cardiac func

185 ular oxygen from the reaction medium, by the radical scavengers methanol, ethanol, and mannitol, and

186 upric Reducing Antioxidant Capacity and DPPH radical scavenger methods.

187 Catechin, a free radical scavenger, minimized the increase in free radica

188 The free radical scavenger Mn(III)tetrakis(4-benzoic acid)porphyr

189 EDTA and the free radical scavengers Mn(2+) and Trolox, a vitamin E analog

190 nylpropylamino)-benzoate (NPPB), or the free radical scavenger N-acetyl cysteine (NAC) each provided

191 tase or the application of the hydroxyl-free radical scavenger N-acetyl cysteine (NAC) to the Sig-1R-

192 The free radical scavenger N-acetyl cysteine blocked LAQ824-media

193 In addition, the free radical scavenger N-acetyl-L-cysteine attenuated ROS gen

194 fect of serum on lipolysis, whereas the free radical scavenger N-acetyl-l-cysteine completely inhibit

195 S inhibitor N(G)-methyl-l-arginine, the free radical scavenger N-acetyl-l-cysteine, or the NOS substr

196 PD184352/UCN-01 was not blocked by the free-radical scavenger N-acetyl-L-cysteine.

197 ed by pretreatment of PC cells with the free radical scavenger N-acetyl-L-cysteine.

198 minished, along with cell death, by the free radical scavenger N-acetylcysteine (NAC).

199 We further demonstrated that the free radical scavenger N-acetylcysteine blocked arachidonic a

200 These effects were mitigated by the free radical scavenger N-acetylcysteine, which also reverted

201 In contrast, although treatment with the radical scavenger N-tert-butyl-a-phenylnitrone (PBN) als

202 mine whether delayed treatment with the free radical scavenger N-tert-butyl-a-phenylnitrone (PBN) is

203 Thiol-containing free-radical scavengers N-acetyl cysteine, dimethyl- and tetr

204 Significantly, treatment with an oxygen free radical scavenger, N-acetyl-l-cysteine (NAC), attenuated

205 .4 atm); systemic administration of the free radical scavenger, N-acetylcysteine (NAC 150 mg kg(-1) i

206 The oxygen radical scavenger, N-acetylcysteine (NAC), attenuates th

207 uced permeability as treatment with the free radical scavenger, N-acetylcysteine, inhibited this effe

208 ancer cells were pre-treated with the oxygen radical scavenger, N-acetylcysteine, the NKA inhibitory

209 ated the protective nature of the known free radical scavenger, N-tert-butyl-alpha-phenylnitrone (PBN

210 ctivation of JNK were attenuated by the free-radical scavenger NAC, suggesting that oxidative damage

211 ons of aqueous O2, and studied the impact of radical scavengers on NDMA formation.

212 VD.CHO, 8 microgram intrastriatally), a free radical scavenger (OPC-14117; 600 mg/kg, orally) and eth

213 omplished in control experiments when a free radical scavenger or a melatonin analog were substituted

214 reatment of cells with sodium formate (an.OH radical scavenger) or superoxide dismutase (an O( minus

215 eatment of cells with sodium formate (an .OH radical scavenger) or superoxide dismutase (an O(-.)(2)

216 eatment of cells with sodium formate (an .OH radical scavenger) or superoxide dismutase (an O(-.2) ra

217 nthine oxidase inhibitor), Me2SO (a hydroxyl radical scavenger), or deferoxamine (an iron chelator).

218 sorbed-superoxide dismutase (PEG-SOD; a free-radical scavenger), or PEG-SOD alone.

219 N-2-mercaptopropionyl glycine (MPG), a free radical scavenger, or by 200 micromol/L 5-hydroxydecanoa

220 either dimethyl thiourea (DMTU), a hydroxyl radical scavenger, or SN50 peptide, a NFkappaB blocker.

221 the conclusion that it is a powerful oxygen radical scavenger, partially contributed by its molecula

222 Anthocyanidins proved to be the most potent radical scavengers, particularly under slightly alkaline

223 IL-1beta, an effect inhibited by the oxygen radical scavenger PDTC.

224 d these side reactions to conclude that free radical scavengers, phenols with electron-donating subst

225 chelerythrine (10(-7) M) or the O(-)(2) free radical scavengers polyethylene glycol superoxide dismut

226 this muscle and that pretreatment with free radical scavengers prevents lipid peroxidation and reduc

227 lator, or 1,3-dimethyl-2-thiourea, an oxygen radical scavenger, prior to addition of H(2)O(2) did not

228 This approach relies on the use of a radical scavenger probe that combines a nitroxide moiety

229 ailed to inhibit 12/15-LOs, and is devoid of radical scavenger properties.

230 horbol-13-acetate , is blocked by the oxygen radical scavenger pyrrolidine dithiocarbomate.

231 Our assay is compatible with free radical scavengers (R(2) = 0.98), phenols with electron-

232 Radical scavengers reduced the killing, indicating a rol

233 e found that supplementing vitamin E, a free radical scavenger, reduces the oxidative state in PHT ga

234 es can be prevented by treatment with a free radical scavenger, resulting in improved motility.

235 and challenged in the presence of a hydroxyl radical scavenger, results that indicated sensitivity to

236 N-Acetylcysteine (NAC) is a potent free radical scavenger shown in animal models to attenuate di

237 nificantly decreased by addition of the free radical scavengers, SOD, CAT or GPX.

238 The utility of using free radical scavengers such as CeO(2) nanoparticles to mitig

239 the pure laccase inhibitor sodium azide and radical scavengers such as gallic and kojic acids.

240 Endogenous radical scavengers such as superoxide dismutase (SOD) de

241 ansplantation and are degraded by endogenous radical scavengers such as superoxide dismutase (SOD).

242 ly all of these events were reversed by free radical scavengers such as the manganese superoxide dism

243 ibitor is encouraging and suggests that free radical scavengers, such as vitamin E, may have a potent

244 uent experiments conducted with an oxidative radical scavenger suggested that plasma-generated radica

245 yields decreased in the absence of hydroxyl radical scavengers, suggesting that future research shou

246 Furthermore, myocardial expression of free radical scavenger superoxide dismutase 1 and aldehyde de

247 The free radical scavenger superoxide dismutase attenuated respon

248 Exposure of the carotid sinus to the free-radical scavengers superoxide dismutase (SOD) and catala

249 thine oxidase (XO), with or without the free radical scavengers superoxide dismutase (SOD; 100 U/ml),

250 in WT C. elegans Supporting this model, free radical scavengers suppressed the Rhizobium-induced C. e

251 nsformed lymphoid cells, is reversed by free radical scavengers, synergizes with the antileukemic act

252 Melatonin, an endogenous free radical scavenger synthesized by neuronal mitochondria,

253 Endogenous radical scavenger systems such as superoxide dismutase (

254 activation of glutathione and ascorbate free radical scavenger systems.

255 This observation and experiments with a radical scavenger TEMPO do not support a homolytic mecha

256 In contrast, the free radical scavengers TEMPO and TEMPONE and the anti-oxidan

257 l calculations and with experiments in which radical scavengers (TEMPO, benzophenone) induce Al-Fe bo

258 Treatment of TRPM2+/+ mice with the free radical scavenger Tempol or the PARP1 inhibitor 3-aminob

259 Addition of the superoxide radical scavenger tempol restored the ability of bradyki

260 The free radical scavenger Tempol, but not other classes of antio

261 y silencing BCL10 or by exposure to the free radical scavenger Tempol.

262 estigate the effects of a membrane-permeable radical scavenger (tempol) on the circulatory failure an

263 The free radical scavenger, tempol, is known to have cardioprotec

264 Experiments using the radical scavenger tert-butyl-alcohol provided the same p

265 y IL-1, we exposed the cells to the hydroxyl radical scavenger tetramethylthiourea (10 mmol/L) and ob

266 gesting that the nanotube itself is a better radical scavenger than the BHT-derivatized SWCNT.

267 l is an excellent but very unselective (*)OH radical scavenger that provides antioxidant protection t

268 The most potent free radical scavengers that we tested for in the wine sample

269 e significant oxidation products for the two radical scavengers that were previously reported to be f

270 In the presence of a radical scavenger, the mass spectra of the C(sp(3))-N co

271 Using hydroxyurea as a radical scavenger, the spin-coupled hidden Cu(II) was ob

272 Two free radical scavengers, the salen-manganese complex EUK-134,

273 In addition to their action as radical scavengers, they act as activators for the intri

274 onsistent with this hypothesis, the hydroxyl-radical scavenger thiourea, when added to M. smegmatis c

275 cal microscopy, that was blocked by the free radical scavenger tiron but not by a caspase-2 inhibitor

276 for initiation to produce the radicals and a radical-scavenger to limit their lifetimes.

277 Two different concentrations of the hydroxyl radical scavenger Tris were used in the plasmid environm

278 Both the free radical scavengers Trolox and Mn2+, and the metal chelat

279 ored with and without coincubation of a free-radical scavenger (trolox).

280 Treatment with the peroxynitrite-dependent radical scavenger urate inhibits the invasion of iNOS-po

281 As a free radical scavenger, uric acid has been postulated to prot

282 The free radical scavenger Vitamin E significantly attenuates thi

283 hange blocker (amiloride), or an oxygen free radical scavenger (vitamin E).

284 tial of G. diffusa aqueous extract to act as radical scavenger was assessed against DPPH(), superoxid

285 otective effect, and 4-hydroxy TEMPO, a free radical scavenger, was not protective.

286 ted sensitivity to all other classes of free radical scavengers we have tested.

287 control studies with and without oxygen and radical scavengers, we propose that boron-imidates form

288 Inhibitors of hydrogen peroxide and hydroxyl radical scavengers were capable of attenuating the effec

289 al strains together with their efficiency as radical scavengers were evaluated.

290 Nerve growth factor and free radical scavengers were inactive in this system.

291 l-Ascorbic acid is a versatile radical scavenger widely distributed in aerobic organism

292 indole was shown to act as a potent hydroxyl radical scavenger with a rate constant of 7.8x1010 mol l

293 elatonin, a pineal hormone and a potent free radical scavenger with neuroprotective actions, has been