ライフサイエンスコーパス: perchlorate

1 adecyl-3,3,3',3'-tetramethylindocarbocyanine perchlorate).

2 ntration range of 6.3x10(-7)-1.0x10(-3)mol/L perchlorate.

3 tate > methanesulfonate > trifluoroacetate > perchlorate.

4 he supporting electrolyte tetrabutylammonium perchlorate.

5 ion-exchange brines or resins exhausted with perchlorate.

6 different from those of the simple mercuric perchlorate.

7 cyl-3,3,3',3'-tetramethylindodicarbo-cyanine perchlorate.

8 sensitivity, or they possess toxic metals or perchlorate.

9 unambiguous methods are needed for measuring perchlorate.

10 de cattle with a degree of refractoriness to perchlorate.

11 ormation allowing the indefinite cycling for perchlorate.

12 everyone in the United States is exposed to perchlorate.

13 thus enabling prior pre-concentration of the perchlorate.

14 e approximately bromide > acetate > iodide > perchlorate.

15 The addition of lithium perchlorate (1-2 equiv) as an additive to the alkaloid c

16 otosensitized by 3-cyano-N-methylquinolinium perchlorate (3-CN-NMQ(+)) has been investigated by stead

17 es sensitized by 3-cyano-N-methylquinolinium perchlorate (3-CN-NMQ(+)ClO4(-)).

18 o having two electron acceptors (nitrate and perchlorate), (3) competition between nitrate and perchl

19 wer concentrations (4.6(+/-1.3)x10(-10)mol/L perchlorate), a column packed with 70mg of sodium 2,5,8,

20 ilure to adequately account for the risks of perchlorate-a well-characterized endocrine-disrupting ch

21 shifts its donated H-bonds between water and perchlorate acceptors by means of large, prompt angular

22 chemical analysis revealed a relatively high perchlorate affinity (Km = 6 mum) and a characteristic s

23 Treatment of 2 with silver perchlorate afforded a silver(I)/iron(III) heterodimetal

24 phoric or perchloric acid with 150 mM sodium perchlorate) affording excellent separation for all samp

25 ally available 9-mesityl-10-methylacridinium perchlorate and 2-phenylmalononitrile as a redox-cycling

26 ions between human exposure to low levels of perchlorate and adverse health effects.

27 Respiration of perchlorate and chlorate [collectively, (per)chlorate] w

28 bility to grow by dissimilatory reduction of perchlorate and chlorate [denoted (per)chlorate].

29 loromonas aromatica abolished growth in both perchlorate and chlorate but not growth in nitrate, indi

30 f the corresponding porphyrin-manganese(III) perchlorate and chlorate complexes, respectively, permit

31 ons were identified between increasing log10 perchlorate and decreasing total thyroxine (T4) [regress

32 esults showed that strain P4B1 could utilize perchlorate and grow in the presence of 1.8% to 10.2% Na

33 The fate of perchlorate and its effect on animal health were studied

34 n electropolymerization (tetrabuthylammonium perchlorate and lithium perchlorate) has emerged demonst

35 pensions indicated that strain P4B1 had both perchlorate and nitrate reduction enzymes.

36 n were the most important mechanisms for the perchlorate and nitrate treatments, respectively, in the

37 When perchlorate and nitrate were both present, nitrate reduc

38 When the culture was exposed to both perchlorate and nitrate, the nitrate reduction enzyme ac

39 Perchlorate and other hydrophobic ions can be measured w

40 )6](3-), which was formed from chromium(III) perchlorate and pH adjusted with ethylenediamine.

41 sed to evaluate associations between urinary perchlorate and serum thyroid hormone concentrations in

42 Mixing copper(II) perchlorate and sodium iodide solutions results in coppe

43 te, chloride, nitrate, etc.) and <10(-4) for perchlorate and thiocyanate are obtained.

44 uction of inorganic byproducts (chlorate and perchlorate) and indicator organic byproducts (haloaceti

45 ate, methanesulfonate, trifluoroacetate, and perchlorate), and the apparent elution strength was foun

46 barium salts (acetate, trifluoroacetate, and perchlorate), and the thermodynamic parameters governing

47 ransport model of a new candidate inhibitor, perchlorate, and compared it with the commonly used inhi

48 solutions of phosphate buffer saline, sodium perchlorate, and in choline chloride plus oxalic acid, u

49 We investigated the formation of chlorate, perchlorate, and organic chlorination byproducts (OCBPs)

50 butyl-, tetrahexyl-, and tetraoctylammonium, perchlorate, and tetraphenylborate).

51 adecyl-3,3,3',3'-tetramethylindocarbocyanine perchlorate; and 3) TRPV1 currents and electrophysiologi

52 is work, we used a case study focused on the perchlorate anion (ClO4(-)) to highlight the value of th

53 ted is that the counterion, in this case the perchlorate anion, competes with water molecules for the

54 zation of the CS state, whereas weakly bound perchlorate anions gave no improvement.

55 f the chloride receptor is templated by five perchlorate anions.

56 used on developing replacements for ammonium perchlorate (AP), a primary choice for solid rocket and

57 ure of a mimetic of Martian water, magnesium perchlorate aqueous solution at its eutectic composition

58 Trace quantities of perchlorate are being increasingly detected in food and

59 uffered aqueous solution, whereas iodide and perchlorate are ineffective with electrothermal supercha

60 s and inhibition coefficients of nitrate and perchlorate are optimized by fitting data from experimen

61 naceous chondrite Murchison with chloride or perchlorate as chlorine source and confirm unequivocally

62 trile containing 0.1 M tetra-n-butylammonium perchlorate as electrolyte.

63 ounterion and (2.64 +/- 0.88) x 102 s-1 with perchlorate as the counterion.

64 trans-cis isomerization, using cresyl violet perchlorate as the sensitizer, also led to similar resul

65 s invoked herein, to the potential origin of perchlorates as found on Mars.

66 lectrochemical detection of "redox-inactive" perchlorate at a nanomolar level without its electrolysi

67 s contaminated from an industrial plant with perchlorate at levels near the 2007 California regulator

68 irradiated with a simulated Martian UV flux, perchlorates become bacteriocidal.

69 . L(-1) on TDIROF) resulting in chlorate and perchlorate being the dominant CBPs (>90% of initial chl

70 es has fueled much speculation that flows of perchlorate brines might be the cause of the observed ch

71 (N(CH3)3)Br) allows for the determination of perchlorate by electrospray ionization mass spectrometry

72 mechanisms: simultaneous use of nitrate and perchlorate by PRB and competition for H(2), the same re

73 ite, tellurate, tellurite, nitrate, nitrite, perchlorate, chlorate, monofluorophosphate, vanadate, mo

74 crA expression regardless of the presence of perchlorate, chlorate, or nitrate.

75 d cation sulfates, phosphates, and chlorides-perchlorates-chlorates), and has minor TiO2 and Fe2O3T o

76 Formation of chlorate, perchlorate, chlorinated, and brominated organics may co

77 s that occur inherently as oxo-anions (e.g., perchlorate, chromate, arsenate, pertechnetate, etc.) or

78 s sensitivity to the environmental pollutant perchlorate (ClO(4)(-)) and its implication in radioiodi

79 Perchlorate (ClO(4)(-)) competitively inhibits the uptak

80 Perchlorate (ClO(4)(-)) is a well known competitive inhi

81 Recent reports of perchlorate (ClO(4)(-)) production-a well-known thyroid

82 fRs) designed to reduce nitrate (NO3(-)) and perchlorate (ClO4(-)) in contaminated groundwater.

83 ly 10 mM of dissolved salts with 0.4 to 0.6% perchlorate (ClO4) by mass leached from each sample.

84 iously developed and shown to reduce aqueous perchlorate (ClO4-) with H2 at a rate approximately 100

85 Mining-related perchlorate [ClO4(-)] in the receiving environment was i

86 A series of ligand-copper(II) bis-perchlorate complexes were synthesized, characterized, a

87 For the same samples, the corresponding perchlorate concentration ratio was 1.37 (difference sig

88 The median urinary perchlorate concentration was 6.5 mug/L, about two times

89 nt for assessing the environmental impact on perchlorate concentrations in milk and potential for rel

90 Perchlorate concentrations in the Great Lakes range from

91 fferent combinations of influent nitrate and perchlorate concentrations.

92 is required for the assessment of nanomolar perchlorate contamination in drinking water as an emergi

93 There is great concern that perchlorate contamination may be far more widespread tha

94 Perchlorate contamination of water represents a serious

95 ements showing the decomposition of ammonium perchlorate, copper oxide nanoparticles, and sodium azot

96 tetrazine and triazolo-tetrazine ligands and perchlorate counteranions have been achieved.

97 /Na(+) ratio of approximately 0.11 optimized perchlorate degradation and cell growth.

98 explained by the presence of (36)Cl-enriched perchlorate deposited during the period of elevated atmo

99 as a likely repository of recent atmospheric perchlorate deposition.

100 Selective and sensitive perchlorate detection was obtained by monitoring the 35C

101 hod using contact conductivity detection for perchlorate determination.

102 with dioctadecyl tetramethylindocarbocyanine perchlorate (DiI) and in situ hybridization using cloned

103 octadecyl-3,3,3'-tetramethylindocarbocyanine perchlorate (DiI) axonal labeling was used to define the

104 adecyl-3,3,3',3'-tetramethylindocarbocyanine perchlorate (DiI) bilaterally to nodose ganglia.

105 odecyl-3,3,3',3'-tetramethylindocarbocyamine perchlorate (DiI) labeling suggested reduced MET-IR neur

106 adecyl-3,3,3',3'-tetramethylindocarbocyanine perchlorate (DiI) was inserted into whole-mounted transg

107 decyl-3,3,3',3'-tetramethylindocarbo-cyanine perchlorate (DiI) was used to label selectively vagal pr

108 tadecyl-3,3,3'3'-tetramethylindocarbocyanine perchlorate (DiI) within authentic RPLC porous silica pa

109 adecyl-3,3,3',3'-tetramethylindocarbocyanine perchlorate (DiI), a lipophilic carbocyanine dye, which

110 odecyl-3,3,3',3'-tetramethylindocarbocyanine perchlorate (DiI), ranging in concentration from 1 to 30

111 adecyl-3,3,3'3'-testramethylindocarbocyanine perchlorate (DiI; n=49, 2x10(6) cells each) were injecte

112 cyl-3,3,3',3'-tetramethylindotricarbocyanine perchlorate [DiI], DiD, DiR, and PKH26) can give rise to

113 (ECFP-Mem) and 3'-dioctadecyloxacarbocyanine perchlorate [DiOC(18)(3)], were used to distinguish DHE

114 nmental impacts of conventional and emerging perchlorate drinking water treatment technologies were a

115 Thyroid hormones and moderate exposure to perchlorate during pregnancy in women in Southern Califo

116 ort of Na(+) and the environmental pollutant perchlorate electroneutrally, G93T/N/Q/E/D NIS, striking

117 tatively identified as porphyrin-iron(V)-oxo perchlorates, electronic isomers (or valence tautomers)

118 This ion associates with perchlorate, even in the gas phase.

119 lications for public health given widespread perchlorate exposure and the importance of thyroid hormo

120 method to analyze neonatal DBS will improve perchlorate exposure assessments of this susceptible pop

121 These results suggest that environmental perchlorate exposures may affect thyroid hormone product

122 In addition, isotopic analyses of perchlorate extracted from groundwater and surface water

123 ed in lactating cows, ruminally infused with perchlorate for 5 weeks.

124 tion rates demonstrate greater inhibition of perchlorate formation (IPF).

125 ses ((37)Cl/(35)Cl and (18)O/(17)O/(16)O) of perchlorate from known synthetic and natural sources rev

126 Resolution of perchlorate from more abundant ions was achieved using z

127 ding the use of these surfactants to resolve perchlorate from other anions, are discussed in this wor

128 tion resembling that measured for indigenous perchlorate from preindustrial groundwaters of the weste

129 delta(37)Cl values of perchlorate from the Great Lakes range from +3.0 per tho

130 Here, the authors show that magnesium perchlorate has a major impact on water structure in sol

131 Perchlorate has been detected recently in a variety of s

132 Great Lakes perchlorate has mass-independent oxygen isotopic variati

133 (tetrabuthylammonium perchlorate and lithium perchlorate) has emerged demonstrating its effect on sen

134 Both natural and synthetic sources of perchlorate have been identified in water samples from s

135 Nitrate and perchlorate have considerable use in technology, synthet

136 Perchlorates have been identified on the surface of Mars

137 , benzoate, perrhenate, nitrate, triflimide, perchlorate, hexafluorophosphate, hydrogen sulfate, meth

138 The dissolved components are nitrate, perchlorate, hydrogen (H(2)), substrate-utilization-asso

139 ron(IV) tetramesitylporphyrin radical cation perchlorate in acetonitrile were measured in single turn

140 ng/mL) was sufficiently sensitive to detect perchlorate in all human urine samples evaluated to date

141 radiation of 1,2-cyclopenta-fused pyridinium perchlorate in aqueous base promotes a remarkably regios

142 chlorate reducer Azospira suillum PS grew on perchlorate in co-culture, but not individually.

143 Measurement of perchlorate in DBS indicated good precision (relative st

144 y to give low detection limits of 0.2-0.5 nM perchlorate in deionized water, commercial bottled water

145 ecently proposed a health advisory limit for perchlorate in drinking water of 15 parts per billion (p

146 has been developed for the determination of perchlorate in drinking water.

147 or routine online monitoring applications of perchlorate in drinking water.

148 nomical in production laboratory analysis of perchlorate in environmental water and soil samples.

149 simpler alternative for the determination of perchlorate in foods, nowadays only allowed by sophistic

150 ed isotope fractionation, as illustrated for perchlorate in groundwater.

151 nsitive and selective method for quantifying perchlorate in human urine using ion chromatography coup

152 We report the capture of ppm-level aqueous perchlorate in record capacity and kinetics via the comp

153 hlorate, we developed a method for analyzing perchlorate in the dried blood spots (DBS) of newborns.

154 The stable isotopic results indicate that perchlorate in the Great Lakes is dominantly of natural

155 are consistent with an atmospheric origin of perchlorate in the Great Lakes.

156 el for simultaneous reduction of nitrate and perchlorate in the H(2)-based membrane biofilm reactor (

157 ed for simultaneous reduction of nitrate and perchlorate in the H(2)-based membrane biofilm reactor.

158 es caused by the recently discovered ~1 wt % perchlorate in the Martian soil.

159 s carried out chemically using thianthrenium perchlorate in the presence of anisole it was shown to p

160 ars, where the existence of large amounts of perchlorate in the soil needs to be confirmed.

161 The mass transfer of perchlorate in the thin-layer liquid membrane and aqueou

162 m determinations of the emergent contaminant perchlorate in vegetable matrices down to nanomolar conc

163 new method was developed for the analysis of perchlorate in water by using reversed-phase liquid chro

164 heterogeneous catalysts for the reduction of perchlorate in water with dihydrogen have been prepared

165 the Phoenix Lander of calcium and magnesium perchlorates in Martian soil samples has fueled much spe

166 es show that the presence of lanthanide(III) perchlorate increases the mechano-responsiveness of the

167 rchlorate levels were highly correlated with perchlorate intake, but milk iodine was unaffected, and

168 adecyl-3,3,3',3'-tetramethylindocarbocyanine perchlorate (internal reference dye), and 14 mmol/kg sod

169 ental concerns resulting from the release of perchlorate into groundwater systems [corrected].

170 ar shaped potentiometric sensor selective to perchlorate ion was constructed with a PVC membrane cont

171 vesicle interior is determined relative to a perchlorate-ion internal standard, preloaded into the ve

172 Perchlorate is a goitrogenic anion that competitively in

173 Perchlorate is a persistent and mobile contaminant in th

174 Perchlorate is an important ion on both Earth and Mars.

175 e cultured in milk, spiked with perchlorate, perchlorate is consumed.

176 he toluene phase and when tetrabutylammonium perchlorate is introduced into the water phase, implying

177 nce significant, p < 0.001), indicating that perchlorate is lost.

178 d a good fit to the data, which suggest that perchlorate is more effective than nitrate on a per mole

179 Perchlorate is, thus, detected as DClO(4)(+) in the posi

180 enzymatic step in the bacterial reduction of perchlorate, is catalyzed by perchlorate reductase.

181 n is 4.13 +/- 0.09 (SEM); in the presence of perchlorate it is 4.35 +/- 0.09 (SEM).

182 Perchlorate (K(i,app) = 0.6 +/- 0.05 microM) and iodide

183 ich has a relatively much lower affinity for perchlorate (Km = 1.1 mm) and no substrate inhibition.

184 adecyl-3,3,3',3'-tetramethylindocarbocyanine perchlorate) labeling to assess the pathfinding of commi

185 adecyl-3,3,3',3'-tetramethylindocarbocyanine perchlorate LDL cell-based assays on the stable knockdow

186 on tandem mass spectrometry to measure blood perchlorate levels in DBS samples as low as 0.10 ng/mL.

187 pport the utility of this method to quantify perchlorate levels in DBS samples.

188 Milk perchlorate levels were highly correlated with perchlora

189 The triflate and perchlorate ligands tend to stabilize the quintet state

190 ditions (H(2) pressure, nitrate loading, and perchlorate loading) affect nitrate and perchlorate remo

191 rtant operating conditions (nitrate loading, perchlorate loading, and H(2) pressure) affect nitrate a

192 complex with 18-crown-6 in both nitrate and perchlorate media.

193 dex grains, visualized in a weakly adsorbing perchlorate medium, show that there is higher activity o

194 the internal standard oxygen-labeled sodium perchlorate (NaCl18O4).

195 After 14 days of incubation in sodium perchlorate (NaClO4) or perchloric acid (HClO4) solution

196 e been identified in water samples from some perchlorate occurrences in the United States by the isot

197 al effects of low environmental exposures to perchlorate on thyroid function.

198 artian surface being converted to CH3Cl with perchlorate or chloride in Martian soil.

199 MLHE-1 was unaffected by magnesium perchlorate or low atmospheric pressure (10 mbar).

200 nes can transfer metal cations with picrate, perchlorate, or chloride counterions from an aqueous sol

201 E), dioctadecyl-tetramethylindo carbocyanine perchlorate, or chloromethyl tetramethylrhodamine.

202 een developed without the need for barium or perchlorate oxidizers.

203 dobacteria are cultured in milk, spiked with perchlorate, perchlorate is consumed.

204 Nitrate, thiocyanate, perchlorate, perfluorooctanoic acid (PFOA), halogenated

205 MOCA can use the perchlorate present in the Martian soil to its advantage

206 , wild-type PDA and a Deltacld mutant of the perchlorate reducer Azospira suillum PS grew on perchlor

207 suggested that competition by heterotrophic perchlorate reducers and direct inhibition by nitrite pr

208 ntation, and MFP is tolerated by nitrate and perchlorate reducing microorganisms.

209 Perchlorate reduction and accumulation of perchlorate-reducing bacteria (PRB) in the biofilm are a

210 ial group, i.e., denitrifying bacteria (DB), perchlorate-reducing bacteria (PRB), and sulfate-reducin

211 While perchlorate-reducing bacteria (PRB), assayed by qPCR tar

212 Salt-tolerant perchlorate-reducing bacteria can be used to regenerate

213 totrophic denitrifying bacteria, autotrophic perchlorate-reducing bacteria, heterotrophic bacteria, i

214 A salt-tolerant perchlorate-reducing Marinobacter vinifirmus strain P4B1

215 Perchlorate-reducing microorganisms employ a separate en

216 Perchlorate reductase (PcrAB), a specialized member of t

217 The genes encoding perchlorate reductase (pcrABCD) in two Dechloromonas spe

218 The separation of perchlorate reductase as an activity distinct from chlor

219 of the DMSO reductase family indicated that perchlorate reductase forms a monophyletic group separat

220 um bifidum include perchlorate reduction via perchlorate reductase.

221 al reduction of perchlorate, is catalyzed by perchlorate reductase.

222 Perchlorate reduction and accumulation of perchlorate-re

223 ading, and H(2) pressure) affect nitrate and perchlorate reduction and biomass distribution in these

224 e difficult to conclude definitively whether perchlorate reduction does or does not occur.

225 lorate), (3) competition between nitrate and perchlorate reduction for the same resources in the PRB:

226 Importantly, perchlorate reduction occurred even in the presence of 5

227 ts of Na(+) and Mg(2+) concentrations on the perchlorate reduction rate of P4B1.

228 the pcrABCD genes play a functional role in perchlorate reduction separate from nitrate reduction.

229 pathways for Bifidobacterium bifidum include perchlorate reduction via perchlorate reductase.

230 to the culture showed significant effects on perchlorate reduction when perchlorate was the sole elec

231 ral insight into the mechanism of biological perchlorate reduction, a critical component of the chlor

232 Lower NaCl concentrations allowed faster perchlorate reduction.

233 With less stringent perchlorate regulatory limits, ion exchange technologies

234 Existing methods for perchlorate remediation are hampered by the common co-oc

235 -based technologies could prove effective at perchlorate removal from water cocontaminated with nitra

236 In this work, the potential for perchlorate removal using cell-free bacterial enzymes as

237 loading of >0.6 g N/m(2)-d begins to inhibit perchlorate removal, as the competition effects become d

238 loading (<0.1 g N/m(2)-d) slightly promotes perchlorate removal, because of the beneficial effect fr

239 ological reduction) and emerging (catalysis) perchlorate-removal technologies was evaluated through a

240 and perchlorate loading) affect nitrate and perchlorate removals: (1) competition for H(2), (2) prom

241 amily, catalyzes the first step of microbial perchlorate respiration, but little is known about the b

242 odecyl-3,3,3',3'-tetramethylindocarbecyanine perchlorate) retrograde labelling and intracellular elec

243 Sodium perchlorate salt (NaClO(4)) is commonly used as an inter

244 atmosphere.Significant amounts of different perchlorate salts have been discovered on the surface of

245 e found that the host rotaxanes transfer the perchlorate salts poorly when compared to B18C6, but the

246 Additionally, the prepared oxadiazolium perchlorate salts showed excellent moisture stability, a

247 the exchange, forming silver 4,4'-bipyridine perchlorate (SBP).

248 The perchlorate-selective electrode is based on the submicro

249 with periodic regeneration using brines and perchlorate-selective IX without regeneration) at an exi

250 selective IX, which shows higher impact than perchlorate-selective IX.

251 adecyl-3,3,3'3'-tetramethylindo-carbocyanine perchlorate showed that pCRLPs are taken up at a faster

252 iodide, nitrate, chloride, dihydrophosphate, perchlorate) showed the highest response to KI.

253 ries have generated considerable interest in perchlorate source identification.

254 adioactive isotope (36)Cl were used to trace perchlorate sources and behavior in the Laurentian Great

255 r demonstrate the feasibility of identifying perchlorate sources in contaminated environments on the

256 f aluminate and aluminosilicate species with perchlorate species that most likely inhibit the formati

257 bservation, tetramethylrhodamine ethyl ester perchlorate staining revealed that mitochondrial membran

258 ion (2 g/L) with different anions (chloride, perchlorate, sulfate, carbonate, nitrate), anion concent

259 these studies were conducted using nitrate-, perchlorate-, sulfate-, and chloride-based electrolyte s

260 hexafluorophosphate, tetrafluoroborate, and perchlorate supporting electrolytes prevent the encapsul

261 tion rate constants, kf, for the nitrate and perchlorate systems are (3.82 +/- 0.89) x 107 and (5.92

262 MeCN containing 0.10 M tetra-n-butylammonium perchlorate (TBAP), the complex displayed a reversible,

263 omethanesulfonyl)imide, hexafluorophosphate, perchlorate, tetrafluoroborate, and dicyanamide on the s

264 t sensitive analytical methods for detecting perchlorate, that is, ion chromatography coupled with a

265 Perchlorate, thiocyanate, and nitrate are sodium/iodide

266 At high doses, perchlorate, thiocyanate, and nitrate inhibit iodide upt

267 Thyroid antagonists (perchlorate, thiocyanate, and nitrate) and childhood gro

268 osure group (3.6, 626, and 500 mg/gC, median perchlorate, thiocyanate, and nitrate, respectively) gir

269 exposure (9.6, 2,343, and 955 mg/gC, median perchlorate, thiocyanate, and nitrate, respectively) had

270 ones and anti-thyroid antibodies and urinary perchlorate, thiocyanate, nitrate, and iodide concentrat

271 e positive free energies of hydration (e.g., perchlorate, thiocyanate, nitrate, etc.).

272 ent dye and tetramethylrhodamine-ethyl-ester-perchlorate (TMRE) and imaged by confocal microscopy.

273 th the dye tetramethylrhodamine methyl ester perchlorate (TMRM) to evaluate the kinetics of the mitoc

274 The reduction of perchlorate to chlorite, the first enzymatic step in the

275 thoxyethoxymethyl-3-pivaloxymethylpyridinium perchlorate to generate a bicyclic-aziridine intermediat

276 addition of hexafluorophosphate could cause perchlorate to shift from capsule 2 to capsule 1 and tri

277 them are chemically oxidized with copper(II) perchlorate to the respective cation species, which show

278 gen peroxide, act in synergy with irradiated perchlorates to cause a 10.8-fold increase in cell death

279 nstitution on receipt of one anionic signal (perchlorate) to create a tight binding pocket for anothe

280 and could enhance the efficacy of nitrate or perchlorate treatments.

281 alpha-D-glucosyl)-3-pivaloxymethylpyridinium perchlorate undergoes photocyclization to generate separ

282 ation, high production rates of chlorate and perchlorate (up to approximately 4 and 25 muM) made them

283 nanoparticles is reported in aqueous sodium perchlorate using the nanoimpact method.

284 The (36)Cl/Cl ratio of perchlorate varies widely from 7.4 x 10(-12) (Lake Ontar

285 ecyl-3,3,3',3'-tetramethylindodicarbocyanine perchlorate)-VLDL binding to cells, and shed syndecan-1

286 e field effect transistor, but ethylviologen perchlorate was added to provide a redox counter-reactio

287 reduction did not start significantly until perchlorate was below 100 mg/L.

288 Perchlorate was detectable in 100% of the DBS collected

289 e provide evidence that up to 80% of dietary perchlorate was metabolized, most likely in the rumen, w

290 Perchlorate was only formed at higher specific charges (

291 of the batch experiments, the production of perchlorate was prevented by competing active chlorine a

292 Perchlorate was quantified using a stable isotope-labele

293 Perchlorate was removed by the soluble protein fraction

294 ficant effects on perchlorate reduction when perchlorate was the sole electron acceptor.

295 urrounding in utero and neonatal exposure to perchlorate, we developed a method for analyzing perchlo

296 concerns surrounding widespread exposure to perchlorate, we developed a sensitive and selective meth

297 r Green and tetramethylrhodamine-ethyl-ester-perchlorate were examined live with confocal microscopy.

298 adecyl-3,3,3',3'-tetramethylindocarbocyanine perchlorate, which preferentially incorporates into orde

299 adecyl -3,3,3,3-tetramethyl-indocarbocyanine perchlorate with acetylated low-density lipoprotein (DiI

300 isotope-labeled internal standard ((18)O(4)-perchlorate) with excellent assay precision (coefficient