ライフサイエンスコーパス: sulfide

1 (carbon monoxide, nitric oxide, and hydrogen sulfide).

2 ary guests (e.g. metals, oxides, hydroxides, sulfides).

3 mium, manganese, iron, and nickel oxides and sulfides).

4 e, monoterpenes, and very recently, dimethyl sulfide.

5 lation mediated by nitric oxide and hydrogen sulfide.

6 lution and a concurrent increase in effluent sulfide.

7 methylate DMHg, in comparison with dissolved sulfide.

8 activity that is restored in the presence of sulfide.

9 n and osmotic stress and can be inhibited by sulfide.

10 higher than that previously reported for Co sulfides.

11 oxides, and that they were removed as their sulfides.

12 compounds such as ajoenes, vinyldithiins and sulfides.

13 ta-unsaturated ketones to generate bis-vinyl sulfides.

14 mulation based on the polymer poly(propylene sulfide)(135)-b-poly[(oligoethylene glycol)(9) methyl et

15 Sulfide 2 was used as a thionation reagent, converting b

16 n the early stages to form an iron-deficient sulfide, according to X-ray photoelectron spectroscopy.

17 Sulfide accumulation in oil reservoir fluids (souring) f

18 ding and promoting the physical transport of sulfides across the mantle-crust transition.

19 r species, this design decouples the lithium sulfide activation process from the constraints of low e

20 well as in human urine, namely allyl methyl sulfide, allyl methyl sulfoxide and allyl methyl sulfone

21 uid-solid growth, nanowires of germanium(II) sulfide, an anisotropic layered semiconductor, crystalli

22 le organic sulfur compounds such as dimethyl sulfide and (2-methylthio)ethanol.

23 between insulative solid sulfur and lithium sulfide and are key to full exertion of the high-energy-

24 ation of alternative electron acceptors like sulfide and by providing degradation-limiting nitrogen t

25 Our study suggests that dissolved sulfide and FeS(s)(m) mediated demethylation of DMHg may

26 The AuNPs enable the detection of dimethyl sulfide and histamine at limits of 0.5 and 0.035 mug/mL,

27 nt volatile biogenic markers, i.e., dimethyl sulfide and histamine, is developed to monitor the spoil

28 For these reasons, increases in hydrogen sulfide and hydrogen sulfide-producing enzymes have been

29 catalysed redox reactions involving sulfate, sulfide and intermediate sulfur compounds are thermodyna

30 ury (MMHg) in the presence of both dissolved sulfide and mackinawite (FeS(s)(m)).

31 in air lead to the release of toxic hydrogen sulfide and materials degradation, hindering large-scale

32 yze the six-electron reduction of sulfite to sulfide and nitrite to ammonia.

33 onstrained to previous design principles for sulfide and oxide Li-ion conductors, allowing for much g

34 nalling, for instance nitric oxide, hydrogen sulfide and oxidized lipids.

35 mixtures of arsenic oxyanions with dissolved sulfide and solutions derived from the dissolution of th

36 We show that at elevated concentrations of sulfide and sulfate in acidic environments over a broad

37 sessed by calibration with two indium salts (sulfide and sulfate) readily available in good purity.

38 es that include both new (rare earth uranium sulfides and alkali-thorium thiophosphates) and previous

39 reduction reactions in Li- and Na-containing sulfides and chlorides by applying thermodynamic analyse

40 (W) based non-periodic chalcogenide flakes (sulfides and selenides) were considered.

41 pitates were composed of more crystalline Co sulfides and/or Co-rich mackinawite, the exact phase bei

42 stances, including oxygen, nitrate, hydrogen sulfide, and ammonium, across the entire considered dept

43 d by time include 2-methylpropanal, dimethyl sulfide, and benzaldehyde.

44 features an iron centre with three bonds to sulfides, and characterize examples of the cluster in th

45 n for the low range of delta(34)S in Archean sulfides, and raise a possibility that sulfate scarcity

46 C6 aldehydes, isothiocyanates, nitriles, and sulfides, and was selected for purification experiments.

47 uggest that the cellular effects of hydrogen sulfide are mediated in part by sulfane sulfur species,

48 These results indicate that using sulfide as an electron donor will promote N(2) O and amm

49 lar and catalytic bipyramid prisms of cobalt sulfide as efficient sulfur host for sodium sulfur batte

50 the polar and catalytic properties of cobalt sulfide as hosts for soluble sodium polysulfides that re

51 Existing methods employ sulfides as substrates, and rely on consecutive iminatio

52 lfide/Fe molar ratios exceeded 1 and aqueous sulfide/As molar ratios exceeded 100, which partitioned

53 or the activation of commercial bulk lithium sulfide at up to 70 wt.% lithium sulfide electrode conte

54 colloidally synthesize atomically thin metal sulfides (ATMS).

55 d-state electrolytes, and the development of sulfide-based all-solid-state batteries is provided, inc

56 The opportunities for sulfide-based ASSLBs are also discussed.

57 phite electrode cycled with LiI-incorporated sulfide-based electrolyte.

58 arge-scale manufacturing and applications of sulfide-based solid-state batteries.

59 hide (GaInP(2)), when combined with ammonium-sulfide-based surface passivation, effectively reduces r

60 iding a facile synthesis method for chromium-sulfide-based ultrathin layers.

61 Most ternary sulfides belonging to the MGaS(2) structure-type have be

62 ates, sodium, thiosulfate, sulfate, sulfite, sulfide, bicarbonate, and other macromolecule-stabilizin

63 n an environment-friendly and earth-abundant sulfide binary semiconductor, GeS.

64 lcogenides, including bismuth oxide, bismuth sulfide, bismuth selenide, and bismuth telluride, have b

65 oxygen consumption was sensitive to the non-sulfide-bound Cu concentration when ascorbic acid was pr

66 Stripping potentiometry was specific for sulfide-bound Cu in wines, and showed that this was the

67 other methods assessed either perturbed the sulfide-bound Cu or were not sufficiently sensitive.

68 -phenylacetamide-1,3,4-thiadiazol-2-yl)ethyl sulfide (BPTES) selected for a drug-resistant population

69 -phenylacetamido-1,3,4-thiadiazol-2-yl)ethyl sulfide (BPTES), which curtails cells' glutamine consump

70 an redox chemistry between iron-buffered and sulfide-buffered states.

71 on product formed through irradiation of the sulfide by energetic ions of the solar wind.

72 lerant in the absence of reducing agents and sulfides by means of reaching an O(2)-protected state (H

73 ked coating to functionalize core/shell lead sulfide/cadmium sulfide quantum dots (PbS/CdS QDs) emitt

74 The presence of sulfide can lead to the formation of thiolated anions; h

75 Hydrogen sulfide can signal through 3 distinct mechanisms: 1) red

76 st-subduction magmas transporting metal-rich sulfide cargoes play a fundamental role in fluxing metal

77 We show that a pair of cadmium sulfide (CdS) cluster isomers provides an advantageous e

78 Paints based on cadmium sulfide (CdS) were popular among artists beginning in th

79 near-unity emitting cadmium selenide/cadmium sulfide (CdSe/CdS) core-shell quantum dots.

80 or the photooxidation of 2-chloroethyl ethyl sulfide (CEES, a chemical warfare simulant of mustard ga

81 reductase (SQOR) catalyzes the first step in sulfide clearance, coupling H(2)S oxidation to coenzyme

82 bination of an archetypal redox-active metal sulfide cluster, Fe(4)S(4), with an organic linker, 1,4-

83 lar catalytic bipyramid prisms sulfur@cobalt sulfide composite exhibits a high capacity of 755 mAh g(

84 Although pore water sulfide concentration covaried with hgcAB diversity acro

85 In conclusion, even when free sulfide concentrations are too low for formation of Sb-s

86 changed in response to stepwise increases of sulfide concentrations in a membrane-aerated biofilm rea

87 Surprisingly, when an allyl-sulfide-containing azide monomer (AS-N(3) ) is used to f

88 ted when disordered As(2)S(3) dissolved into sulfide-containing solution at pH 5.4.

89 The acid-labile iron and sulfide content analyses in conjunction with the EPR and

90 This idea is untested because fully sulfide-coordinated three-coordinate iron is unprecedent

91 demonstrate the ability to generate carbonyl sulfide (COS) in the presence of thiols.

92 g through" manner by copolymerizing carbonyl sulfide (COS) with epichlorohydrin (ECH), where the side

93 f-immolative decomposition releases carbonyl sulfide (COS), which is quickly hydrolyzed to H(2)S by c

94 Sulfides could be produced through mineralization of red

95 t characterize the effect of thiol and allyl sulfide crosslink structures on degradation kinetics is

96 The copper sulfide crystal structure plays a key role in the mechan

97 Further reactions of the azetidine sulfides demonstrate their potential for incorporation i

98 toward sulfide that created temporary, local sulfide depletion (Fh < Lp).

99 ith the algal-derived infochemicals dimethyl sulfide (DMS) and dimethylsulfoniopropionate (DMSP), aff

100 As dimethyl sulfide (DMS) is a reliable marker for meat freshness, s

101 Dimethyl sulfide (DMS), emitted from the oceans, is the most abun

102 Dimethyl sulfide (DMS; CH(3)SCH(3)), a biogenically produced trac

103 AP39, a novel mitochondria-targeted hydrogen sulfide donor, prevented ROS production, reduced HIF-1al

104 rate that three-coordinate iron supported by sulfide donors is a plausible precursor to reactivity in

105 ulk lithium sulfide at up to 70 wt.% lithium sulfide electrode content.

106 Herein, the emerging sulfide electrolytes and preparation methods are reviewe

107 Among all solid-state electrolytes, the sulfide electrolytes have the highest ionic conductivity

108 The ionic conductivity of sulfide electrolytes is comparable with or even higher t

109 However, several critical challenges for sulfide electrolytes still remain to be solved, includin

110 n particular, the required properties of the sulfide electrolytes, such as the electrochemical stabil

111 s requires insight into the behavior of iron sulfides exposed to space.

112 formation of mobile thioarsenates at aqueous sulfide/Fe molar ratios <1.

113 d some locations in the aquifer) the aqueous sulfide/Fe molar ratios exceeded 1 and aqueous sulfide/A

114 f SNZVI made from S(2)O(4)(2-), whereas iron sulfide (FeS) was the main S species of SNZVI made from

115 ubes, graphene nanoplatelets, molybdenum(IV) sulfide flakes, neodymium(III) oxide nanoparticles, two

116 coastal waters may lead to release of toxic sulfide from sediments.

117 uced due to biologically mediated removal of sulfide from the process solution in the anaerobic biore

118 ntinuous films of both defective gallium(II) sulfide (GaS): GaS(0.87) and stoichiometric GaS.

119 ules-among them potential precursors to iron-sulfide grains and to astrobiologically important molecu

120 hosphorus atom is trivalent with no terminal sulfide groups, and each sulfur atom is divalent.

121 of them function as active sites for lithium sulfide growth at the full discharge state.

122 Endogenous hydrogen sulfide (H(2) S) has anti-inflammatory and vasodilatory

123 Hydrogen sulfide (H(2) S) is a gaseous molecule that has received

124 Hydrogen sulfide (H(2) S) is an important signaling molecule whos

125 ic resistance, and it also produces hydrogen sulfide (H(2) S) that provides some defense against anti

126 ture responses to ammonia (NH(3) ), hydrogen sulfide (H(2) S), and humidity, respectively.

127 CBS is the predominant hydrogen sulfide (H(2) S)-producing enzyme in endothelial cells (

128 cies related to the gasotransmitter hydrogen sulfide (H(2) S).

129 genotrophic SO(4) (2-) reduction to hydrogen sulfide (H(2)S) and carbon dioxide (CO(2)) reduction to

130 Dysregulation of hydrogen sulfide (H(2)S) by inhibition of cystathionine gamma-lya

131 The ubiquitous gasotransmitter hydrogen sulfide (H(2)S) has been recognized to play a crucial ro

132 Hydrogen sulfide (H(2)S) is a biologically relevant molecule, and

133 Hydrogen sulfide (H(2)S) is an important signaling molecule that

134 Hydrogen sulfide (H(2)S) is emerging as an important player in cy

135 Hydrogen sulfide (H(2)S) is involved in numerous pathophysiologic

136 The biological mediator hydrogen sulfide (H(2)S) is produced by bacteria and has been sho

137 ss under haloalkaline conditions, dihydrogen sulfide (H(2)S) is removed from sour gas and oxidized to

138 Hydrogen sulfide (H(2)S) participates in prokaryotic metabolism a

139 Hydrogen sulfide (H(2)S) production in the intestinal microbiota

140 essure-driven disproportionation of hydrogen sulfide (H(2)S) to H(3)S, with a confirmed transition te

141 Hydrogen sulfide (H(2)S), a signaling molecule implicated in many

142 ions (~60-70%), and dominate NH(3), hydrogen sulfide (H(2)S), and volatile organic compounds (VOC) em

143 ry sources of sulfur into genotoxic hydrogen sulfide (H(2)S), have been associated with development o

144 creases gut bacterial production of hydrogen sulfide (H(2)S), indole, and indoxyl sulfate.

145 onvergent evolution of tolerance to hydrogen sulfide (H(2)S)-a toxicant that impairs mitochondrial fu

146 SH), presumed signaling products of hydrogen sulfide (H(2)S)-mediated thiol (RSH) modification, are a

147 e to the induction of intracellular hydrogen sulfide (H(2)S).

148 oduction of the gaseous transmitter hydrogen sulfide (H(2)S).

149 to mediate the signaling effects of hydrogen sulfide (H(2)S).

150 Hydrogen sulfide has been implicated in a large number of physiol

151 Cobalt sulfide has interwoven surfaces with wide internal space

152 ur, demethylation of DMHg in the presence of sulfide has until now remained experimentally untested.

153 nd (S(2))(2-) through dimerization of S-S in sulfides have been studied and reported, an anion redox

154 Allyl sulfide hydrogels are used to support the formation of e

155 Results showed that sulfide: (i) decreased nitrite oxidation rates but incre

156 h the supply of S in TMS(2)S caused the iron sulfide impurities.

157 inefficient 24 h growth to dissolve an iron sulfide impurity.

158 s occurred prior to a significant buildup of sulfide in pore waters.

159 ates similar ligand behaviour of nitride and sulfide in such clusters, providing useful reference for

160 will detail the known mechanisms of hydrogen sulfide in the mitochondria and the implications of its

161 anomalously gold and tellurium rich magmatic sulfides in mantle-derived magmas emplaced in the lower

162 iation between mantle-derived carbonates and sulfides in some mafic-ultramafic magmatic systems empla

163 ation and transformation pathways of Co (Fe) sulfides in this study allows for a better constraint of

164 Neoproterozoic West African diamonds contain sulfide inclusions with mass-independently fractionated

165 crobiome composition, metabolome, mean total sulfide (increase 133.0 +/- 80.5 vs 54.3 +/- 47.0 nmol/g

166 oxidizing autotrophic denitrification at the sulfide interface.

167 O bonds have been created using alpha-chloro sulfide intermediates and [2,3] sigmatropic rearrangemen

168 ate enhancement for nucleophilic addition of sulfide into the trisulfide versus a disulfide cofactor.

169 Extraterrestrial iron sulfide is a major mineral reservoir of the cosmochemica

170 Hydrogen sulfide is a signaling molecule that regulates essential

171 that the negative regulation of autophagy by sulfide is mediated by specific persulfidation of the AT

172 carboxylase produces taurine, while hydrogen sulfide is recycled into cysteine by cystathionine beta-

173 Nickel sulfide is regarded as a material with tremendous potent

174 of the reversible inhibition of the ATG4 by sulfide is supported by the results obtained in Arabidop

175 tes in establishing the reversible potassium sulfide K(2) S(n) phase sequence, the parasitic polysulf

176 The "masked" terminal Zn sulfide, [K(2.2.2-cryptand)][(Me) LZn(S)] (2) ((Me) L={(

177 action of methylidyne radicals with hydrogen sulfide, leading to thioformaldehyde (H(2)CS) and its th

178 The subsequent generation of hydrogen sulfide led to the formation of iron-sulfur precipitatio

179 rate here that the lithium-rich layered iron sulfide Li(2)FeS(2) as well as a new structural analogue

180 issolve all lithium polysulfides and lithium sulfide (Li(2) S(8) -Li(2) S).

181 x growth and dissolution kinetics of lithium sulfide (Li(2)S) and sulfur (S(8)) during discharge and

182 In other words, sulfide likely disrupted microbial cross-feeding between

183 res both extensive marine iron oxidation and sulfide-limited pyritization.

184 ine biosynthesis and the adaptation of other sulfide linked pathways, such as folate cycle, nucleotid

185 ilicate magmas primarily occurs within dense sulfide liquids, which tend to coalesce, settle and not

186 turally occurring minerals, such as the iron sulfide mackinawite, play a key role in the remediation

187 lfur-containing compounds including hydrogen sulfide, mercaptans, and sulfur dioxide.

188 contribute to a better understanding of how sulfide metabolism is integrated in one carbon metabolis

189 Abnormalities of one carbon, glutathione and sulfide metabolisms have recently emerged as novel patho

190 Pyrite is a ubiquitous iron sulfide mineral that is oxidized by trace oxygen.

191 Iron sulfide minerals are widespread on Earth and likely in p

192 efines our understanding of the role of iron sulfide minerals in the stability of tetravalent uranium

193 htly linked to the formation of reduced iron-sulfide minerals.

194 enrichment of 1-pyrroline core with an aryl sulfide moiety might exhibit potential for the synthesis

195 erature and environmentally relevant DMHg to sulfide molar ratios, we observed demethylation rates up

196 Hydrogen sulfide monitoring has become essential in the natural g

197 (n-type) and Nb-doped (p-type) molybdenum di-sulfide (MoS(2)) field-effect transistors are examined u

198 sulfur-based materials, in particular metal sulfides (MS(x) ) and elemental sulfur (S), are currentl

199 were treated without or with sodium hydrogen sulfide (NaHS), a H(2)S donor (30 uM), in drinking water

200 To address this need, we have developed iron sulfide nanoclusters that catalyse nitric oxide generati

201 , we show the tunable preparation of cuprous sulfide nanocrystals ranging in internal structures from

202 es were composed exclusively of amorphous Co sulfide nanoparticles (CoS.xH(2)O) that were stable in a

203 ation exchange reactions of colloidal copper sulfide nanoparticles are widely used to produce derivat

204 chain of the synthesized self-capped nickel sulfide nanoparticles decreased the overall efficiency,

205 Here, we show that digenite copper sulfide nanoparticles undergo a spontaneous phase transi

206 quential cation-exchange reactions to copper sulfide nanorod precursors.

207 Photoexcited electrons from cadmium sulfide nanorods (CdS NRs) transfer to 2-oxoglutarate:fe

208 ways to 65,520 distinct multicomponent metal sulfide nanorods having as many as 6 materials, 8 segmen

209 Arabidopsis (Arabidopsis thaliana), hydrogen sulfide negatively regulates autophagy independently of

210 id the transition between sulfur and lithium sulfide, nitrogen-doped carbon dots become highly reacti

211 Fusing 1,6-diene with allylic sulfide or allylic sulfone motifs enabled a ring-closing

212 , which classified the Cu as either bound to sulfide or not.

213 Addition of sulfide or polysulfide caused substantial As retention a

214 etic iron clusters, bearing either inorganic sulfides or thiolate with interstitial carbide motifs, a

215 silver could later precipitate as chloride, sulfide, or selenide and be incorporated in bones during

216 The presence of sulfide ore also affected the production of exopolysacch

217 luding interaction with Se and Te present in sulfide ores from the Kisgruva Proterozoic volcanogenic

218 complex network involving sulfate reduction, sulfide oxidation and thiosulfate reactions.

219 ne oxidoreductase (SQR) genes indicates that sulfide oxidation in both strains is mediated by SQR.

220 otope labeling reveals that cells performing sulfide oxidation in deeper anoxic horizons have a high

221 Also, we recently showed that sulfide oxidation is impaired in Coenzyme Q10 (CoQ10) de

222 idoreductase (SQOR), the first enzyme in the sulfide oxidation pathway.

223 its gene expression during nitrate-dependent sulfide oxidation to the coastal sediment isolate Sulfur

224 ate the approach: binary uranium and thorium sulfides, oxide to sulfide transformation in solid-state

225 s and oxidized to elemental sulfur (S(8)) by sulfide-oxidizing bacteria.

226 cable bacterium gains energy in the anodic, sulfide-oxidizing cells, whereas cells in the oxic zone

227 e admixture in concrete and the abundance of sulfide-oxidizing microorganisms was determined by DNA s

228 Microelectrode profiles of sulfide, oxygen, and pH indicated low or no in situ cabl

229 Here, we document metal sulfide particles, including pyrite nanoparticles, withi

230 PS) and poly(ethylene glycol)-oligo(ethylene sulfide) (PEG-OES) that can self-assemble into solid cor

231 made of poly(ethylene glycol)-poly(propylene sulfide) (PEG-PPS) and poly(ethylene glycol)-oligo(ethyl

232 Reactive sulfur species, such as hydrogen sulfide, persulfides, and polysulfides, have recently em

233 While formation of Sb(III) sulfide phases or Sb(III) binding to NOM are discussed t

234 t where it became associated with organic or sulfide phases.

235 halpies of formation for three magnetic iron sulfide phases: bulk and nanophase Fe(3)S(4) spinel (gre

236 Here, an allyl sulfide photodegradable hydrogel is presented, achieving

237 The prototype di(tri)sulfide-polyethylene glycol sulfur container is highly e

238 (ethylene glycol) (PEG) and poly (propylene sulfide) (PPS) and use them for Rg3 encapsulation and de

239 ygen species (ROS)-degradable poly(propylene sulfide) (PPS).

240 Here, we systematically studied Co (Fe) sulfides precipitated and aged in environmentally releva

241 Cobalt sulfide precipitates, key phases in the natural biogeoch

242 represents a promising opportunity for metal sulfide precipitation from hot acidic metallurgical stre

243 repared with commercially available lead and sulfide precursors.

244 TgCBS can also efficiently produce hydrogen sulfide, preferentially via condensation of cysteine and

245 reaching up to 100-200 mg.L(-1) of dissolved sulfide produced after 19-24 days, depending on the orig

246 Hydrogen sulfide produced by sulfate-reducing microorganisms (SRM

247 , increases in hydrogen sulfide and hydrogen sulfide-producing enzymes have been implicated in severa

248 rmation of reactive oxygen species, triggers sulfide production and competitively inhibits a key enzy

249 marize our current understanding of hydrogen sulfide production and metabolism, as well as its signal

250 needs further optimization of the volumetric sulfide production rate to gain relevance for practice.

251 ode at a pH 3.5 and 80 degrees C, and stable sulfide production rates of 60-80 mg.L(-1).d(-1) were ac

252 of the tests were conducted with nano-porous sulfides (pyrite) produced by sulfate-reducing bacteria

253 unctionalize core/shell lead sulfide/cadmium sulfide quantum dots (PbS/CdS QDs) emitting at ~1600 nm.

254 Sulfide quinone oxidoreductase (SQOR) catalyzes the firs

255 mental sulfur (S(0) ) and high expression of sulfide quinone oxidoreductase (SQR) genes indicates tha

256 might be due to its function as cofactor for sulfide:quinone oxidoreductase (SQOR), the first enzyme

257 Hydrogen sulfide radicals in the ground state, SH(X), and hydroge

258 S into a prelithiation agent, forming metal sulfides rather than S(8) after the full charge.

259 ient zone and that some microbially produced sulfide reacts rapidly to form organic sulfur that is re

260 epare probes offer practical applications of sulfide recognition in environmental water samples and i

261 unprecedently high potential of sulfur/metal sulfide reduction at 0.5 V vs. SHE.

262 ionine gamma lyase (CSE), generates hydrogen sulfide-related sulfane sulfur compounds (H(2)S(n)), tha

263 o lead to differing behaviors: phosphinidene sulfide release and formation of amorphous P(2)S.

264 the presence of a (34)S-depleted pore water sulfide reservoir, via closed system (Raleigh-type) frac

265 e and sulfite into cysteic acid and hydrogen sulfide, respectively.

266 le biosynthesis and growth are restricted to sulfide-respiring cells.

267 tes, thiotungstates, and thioantimonates, in sulfide-rich hot springs from Yellowstone National Park

268 ere we have studied a series of undoped lead sulfide samples (Pb(1- x)S) with presumed small chemical

269 ch rarely degas S, we show that many OPB are sulfide-saturated.

270 Differences in the timing of sulfide-saturation between individual OPB suites can be

271 D transition metal dichalcogenides including sulfides, selenides, and tellurides of group V and VI tr

272 mass loading of 9.1 mg cm(-2), sulfur@cobalt sulfide shows high capacity of 545 mAh g(-1) at a curren

273 Sulfide significantly and reversibly inactivates AtATG4a

274 Sulfide solid electrolytes are promising inorganic solid

275 desirable mechanical properties, many known sulfide solid electrolytes exhibit poor air stability.

276 ties (structural and chemical), synthesis of sulfide solid-state electrolytes, and the development of

277 (2)S tolerance in 10 independent lineages of sulfide spring fishes across multiple genera of Poecilii

278 on is maintained in the presence of H(2)S in sulfide spring P. mexicana but not ancestral lineages fr

279 4) -S dimers of clusters, and moreover, iron-sulfide-(sulfocarbide) clusters.

280 ge, may be applicable at a broad pH in mixed sulfide systems.

281 7.4, with <0.1% of pyrite leached in both bi-sulfide systems.

282 Phosphinidene sulfide [ (t)BuP=S] transfer is shown to proceed efficie

283 rly ordered FeOx with high reactivity toward sulfide that created temporary, local sulfide depletion

284 iologic effects of nitric oxide and hydrogen sulfide, their seemingly indistinguishable effects, and

285 y prebiotically plausible molecules-hydrogen sulfide, thioacetate(12,14) and ferricyanide(12,14-17) o

286 ation was generally observed at higher molar sulfide to metal(loid) excess (Iceland > Yellowstone).

287 We propose a model for electron flow from sulfide to oxygen that involves periplasmic cytochromes,

288 inary uranium and thorium sulfides, oxide to sulfide transformation in solid-state reactions, and in

289 Recent works into sulfide-type solid electrolyte materials have attracted

290 These differences are often attributed to sulfide-under-saturation of plume-related melts.

291 itates displayed higher crystallinity for Co sulfides (up to the formation of nanocrystalline cobalt

292 The sulfide uptake rate of the admixed concrete was also 30%

293 flushing with nitrogen gas, indicating that sulfide was limiting the conversion.

294 Reaction with dissolved sulfide was modulated by diffusion limitations and there

295 ethane completely while reducing sulfate to sulfide, was dominated by an archaeon that we name 'Cand

296 h H(3)O(+), acetone with NO(+), and dimethyl sulfide with O(2)(+*) reagent ions in single breath exha

297 Here we evaluate a library of heteroaromatic sulfides with different oxidation states, heteroatom sub

298 Indole sulfides with internal alkyne functionality produced 2H-

299 The spontaneous hydrolysis reactions of sulfides with moisture in air lead to the release of tox

300 molecules, such as nitric oxide and hydrogen sulfide, within the human body began a new concept in ce