ライフサイエンスコーパス: nickel

1 of contact with allergens like poison ivy or nickel.

2 +/- 4 ions of iridium, and 11 +/- 3 ions of nickel.

3 anced contaminant removal for all metals but nickel.

4 orption sites by affecting the d-orbitals of nickel.

5 3-43 MPa, ~10 times higher than that of pure nickel.

6 are challenging at lower oxidation states of nickel.

7 m-based SCS pincer ligand framework bound to nickel.

8 Under the conditions of nickel(0) catalysis, enantiomerically enriched vinyl dio

9 ting from 7,8-dibromo[5]helicene by Yamamoto nickel(0) couplings.

10 ctive data corroborate a mechanism involving nickel(0)-mediated benzylic oxidative addition with inve

11 The peaks in nickel abundance correlate with negative delta(13)C and

12 Anomalous peaks of nickel abundance have been reported in Permian-Triassic

13 icating that urease activation is limited by nickel accessibility in vivo Our data uncover the crucia

14 logically important nutrients phosphorus and nickel across the Archean-Proterozoic boundary, which mi

15 hotoexcited iridium catalyst facilitated the nickel activation via single-electron transfer.

16 Using nickel added X70 steel as a sample material, we demonstr

17 The free-standing platinum and platinum-nickel alloy nanowires show improvements of up to 5.1 ti

18 Excess supplies of cobalt and nickel altered root traits in a different way from Fe de

19 Amorphous oxide films of iron, nickel and a combination of iron and nickel demonstrated

20 his result is unaffected by small amounts of nickel and candidate core-forming light elements, as the

21 result of an interfacial layer of elemental nickel and cobalt, a few nanometres in thickness, whose

22 lkylation via the combination of photoredox, nickel and hydrogen-atom transfer catalysis.

23 Although a high correlation between nickel and iron was observed in 2D maps, 3D maps reveale

24 also revealed a general correlation between nickel and iron.

25 rth-abundant metals, including iron, cobalt, nickel and manganese, and represents a generic platform

26 high density of interfaces between platinum-nickel and nickel sulfide components, which cooperate sy

27 ase carbaporphyrin and carbachlorin, and the nickel and palladium complexes, were characterized by X-

28 Using nickel and photoredox catalysis, the direct functionaliz

29 2-functionalization of 1,3-dioxolane through nickel and photoredox catalysis.

30 nd base metals (platinum, palladium, copper, nickel, and cobalt) were synthesized with average partic

31 ed via the synergistic merger of photoredox, nickel, and hydrogen atom transfer catalysis.

32 on of femtomolar amounts of cobalt, iridium, nickel, and iron ions in solution by electrocatalyst for

33 n curves at the femtomolar level for cobalt, nickel, and lead ions on carbon ultramicroelectrodes (CU

34 ults, the limits of quantitation for cobalt, nickel, and lead ions were reported at 10 s of femtomola

35 metals, including arsenic, chromium, cobalt, nickel, and lead, likely due to the microbial production

36 ous carboxylic acids is described using both nickel- and iron-based catalysts.

37 flates, and vinyl bromides under synergistic nickel- and organic-dye-mediated photoredox catalysis is

38 A thorough theoretical study on nickel anion radical and gold neutral radical bis(dithio

39 ry, Japan, and Spiti, India suggest that the nickel anomalies at the end of the Permian were a worldw

40 We propose that the source of the nickel anomalies at the P-T boundary were Ni-rich volati

41 The nickel anomalies may provide a timeline in P-T boundary

42 microfluidic microbial fuel cell (MFC) using nickel as a novel alternative for conventional electrode

43 omplexes represent a rare oxidation state of nickel, as well as an unprecedented reaction pathway to

44 rigonal prisms of nido-[Sn8 Ni(CO)](6-) with nickel at one of the capping positions.

45 dent plastic deformation in a single crystal nickel-base superalloy during cooling from casting relev

46 Introduced herein is a rare nickel-based catalyst which promotes substitution with d

47 Our first-generation nickel-based liposomes captured HIV-1 Env glycoprotein t

48 s that have improved in vitro stability over nickel-based liposomes.

49 om CO and a methyl group through a series of nickel-based organometallic intermediates.

50 reaches its full activity several days after nickel becomes available in the leaves, indicating that

51 enerated in vitro by incubation of UreG with nickel, bicarbonate, and GTP.

52 e influence of the amino terminal copper and nickel binding (ATCUN) motif on derivatives of ovispirin

53 des, may have a critical role in controlling nickel bioavailability.

54 This approach allowed a CQD-molecular nickel bis(diphosphine) photocatalyst system to reach a

55 A biomimetic nickel bis-diphosphine complex incorporating the amino a

56 , these studies led to the identification of nickel BPI complexes that could undergo stable charge-di

57 nes for the accumulation of zinc, manganese, nickel, calcium, and cadmium in sorghum seeds.

58 We developed nickel-capped zinc oxide nanorod (ZnO/Ni NR) structures

59 XRF profiles of the Ni-Lalpha,beta line of a nickel-carbon multilayer sample, which displays a latera

60 amonds contain inclusions of solidified iron-nickel-carbon-sulfur melt, accompanied by a thin fluid l

61 We report the first nickel-catalysed Suzuki-Miyaura coupling of amides, whic

62 The transformation relies on the use of nickel catalysis and proceeds using sterically hindered

63 hat the synergistic merger of photoredox and nickel catalysis enables the direct formation of sp(3)-s

64 historically dominated the field, the use of nickel catalysis has become increasingly widespread beca

65 Enabled by nickel catalysis, a mild and general catalytic method fo

66 The oxidative-addition adducts, formed using nickel catalysis, undergo in situ trapping to provide an

67 he synergistic combination of photoredox and nickel catalysis.

68 ishing that a simple, commercially available nickel catalyst (NiBr2.diglyme) can achieve couplings of

69 th triethanolamine are capable of reducing a nickel catalyst and activating the catalyst toward cross

70 is investigation, we establish that a chiral nickel catalyst can mediate doubly stereoconvergent alky

71 a wide range of amides using a palladium or nickel catalyst giving aryl phosphonates in good to exce

72 olNi )(-1) for a defined synthetic molecular nickel catalyst in purely aqueous solution under AM1.5G

73 solid and can be used in combination with a nickel catalyst to difluoromethylate aryl iodides, bromi

74 ess such critical bonds using an inexpensive nickel catalyst under mild reaction conditions.

75 Our system, composed of a nickel catalyst, an iridium photosensitizer, and an amin

76 nation of the directing group by binding the nickel catalyst.

77 Recent advances have shown that nickel catalysts are active toward the coupling of sp(3)

78 Nickel catalysts are unique for selective heteroaryl tra

79 Nickel catalysts are usually paired with "hard" nucleoph

80 as enabled by the discovery of alpha-diimine nickel catalysts that promote the chemoselective tribory

81 num or vanadium, containing either copper or nickel catalysts, respectively.

82 es guidelines for designing even more active nickel catalysts.

83 A mechanism comprising a nickel catalytic cycle, a zirconium catalytic cycle, and

84 Herein an intramolecular nickel-catalyzed (4+2) coupling between cyclobutanones a

85 Nickel-catalyzed addition of arylboron reagents to keton

86 Nickel-catalyzed additions of arylboronic acids to alkyn

87 Direct nickel-catalyzed alkylation of chiral N-acyl-4-isopropyl

88 Enantioselective nickel-catalyzed arylative cyclizations of substrates co

89 was developed to perform a dual iridium- and nickel-catalyzed C(sp(2) )-C(sp(3) ) coupling by circumv

90 these radicals are subsequently engaged in a nickel-catalyzed C-C bond-forming reaction with aryl hal

91 icient and exceptionally mild intramolecular nickel-catalyzed carbon-oxygen bond-forming reaction bet

92 A nickel-catalyzed conjunctive cross-coupling between non-

93 visible light facilitate a room temperature, nickel-catalyzed coupling of (hetero)aryl bromides with

94 Nickel-catalyzed coupling of benzyl acrylates with activ

95 ides, enabling chemoselective palladium- and nickel-catalyzed coupling sequences.

96 Distinct from nickel-catalyzed cross-coupling reactions involving carb

97 Nickel-catalyzed cross-electrophile coupling reactions o

98 We report here the first systematic study of nickel-catalyzed decarbonylation of aromatic aldehydes u

99 is of terminal and internal alkynes from the nickel-catalyzed decarboxylative coupling of N-hydroxyph

100 l-alkyl cross-coupling reactions, namely the nickel-catalyzed decarboxylative Negishi coupling of N-h

101 Using this newly accessible ligand class, nickel-catalyzed enantioselective reductive coupling rea

102 and annulation to benzimidazole and further nickel-catalyzed intramolecular isocyanide insertion has

103 synthesis of quinazoline derivatives through nickel-catalyzed ligand-/base-free oxidative isocyanide

104 The nickel-catalyzed reaction occurs with both alkyl fluorid

105 This broad-scope nickel-catalyzed reaction uses the same activating princ

106 bond, are crucial intermediates in numerous nickel-catalyzed reactions.

107 Nickel-catalyzed reductive cyclization of this alkynylal

108 Nickel-catalyzed sp(3)-sp(3) homocouplings of alkyl brom

109 The formyl-radical equivalent then undergoes nickel-catalyzed substitution reactions with aryl halide

110 We report a stereospecific, nickel-catalyzed Suzuki-Miyaura arylation of tertiary be

111 e discovered an alkyne hydroallylation and a nickel-catalyzed variant of alkyne diarylation.

112 mpetition among the interactions between the nickel cation, water, and birnessite promote redox chemi

113 that places them in the forefront of current nickel chemistry research.

114 her than that of conventional tubular sodium-nickel chloride batteries (280 degrees C), is obtained f

115 80 degrees C), is obtained for planar sodium-nickel chloride batteries operated at 190 degrees C over

116 ies the deposition of aluminium-incorporated nickel coatings by brush electroplating, focusing on the

117 ll M/platinum (Pt) catalysts (where M can be nickel, cobalt, or iron).

118 Additionally, tandem nickel-cobalt affinity chromatography was used to prepar

119 als (e.g., iron, cobalt, nickel, copper, and nickel-cobalt alloy), accomplished by a facile low-tempe

120 e, high porosity and stabilization effect of nickel-cobalt complexes on 1T phase MoS2.

121 us hybrid nanostructures combining amorphous nickel-cobalt complexes with 1T phase molybdenum disulfi

122 teases, mitogenic factor deoxyribonucleases, nickel/cobalt uptake and cobalamin biosynthesis.

123 The synergetic effect of nickel, colloidal nickel hydroxide islands, and the enha

124 iridium sensitizer produces an excited-state nickel complex that couples aryl halides with carboxylic

125 eoinvertive SN2-like oxidative addition of a nickel complex to the electrophilic substrate.

126 oline by reaction of a secochlorin bisketone nickel complex with Woollins' reagent.

127 fin insertion to form a (cyclopropylcarbinyl)nickel complex, which upon reductive elimination release

128 Nickel compounds are well-established human carcinogens

129 cinogenesis and tumor progression induced by nickel compounds.

130 Ag|AgCl electrode in solution) for the mica-nickel confined interface of total area approximately 0.

131 20% mouse serum and 100 mM EDTA, whereas the nickel-conjugated trimers were not stable under these co

132 tly improved compared to soluble trimers and nickel-conjugated trimers.

133 and in several catalytic cycles proposed for nickel-containing enzymes, nickel(I) plays a key role.

134 Similarities between PSII and the iron- and nickel-containing form of this enzyme (Fe-Ni CODH) sugge

135 an ancillary factor called coenzyme F430, a nickel-containing modified tetrapyrrole that promotes ca

136 ID enzyme, involved in the maturation of the nickel-containing urease.

137 In this work, nickel content was determined in hydrogenated vegetable

138 standard solid-state method to increase the nickel content, and that this compositional modification

139 verse transition metals (e.g., iron, cobalt, nickel, copper, and nickel-cobalt alloy), accomplished b

140 tures using a synergistic iridium photoredox/nickel cross-coupling dual catalysis strategy has been d

141 ntered radical that leads to engagement of a nickel cycle.

142 UreG is crucial for nickel delivery because UreG-dependent urease activation

143 ur data uncover the crucial role of UreG for nickel delivery during eukaryotic urease activation, inc

144 f iron, nickel and a combination of iron and nickel demonstrated oxygen evolution reaction electrocat

145 catalyst consists of small nanoparticles of nickel dispersed on partially reduced ceria.

146 Visible light photoredox/nickel dual catalysis has been employed in the cross-cou

147 isible-light-promoted iridium photoredox and nickel dual-catalyzed cross-coupling procedure for the f

148 precatalyst activation and the speciation of nickel during catalysis reveal that Ni(I) species are fo

149 literature data related to OER catalysis by nickel electrodes.

150 the use of an oscillatory chemical reaction (nickel electrodissolution) and are further confirmed by

151 The nickel enzyme, which is only active when its Ni ion is i

152 s that the iridium photocatalyst facilitates nickel excitation and bromine radical generation via tri

153 ge, discovered that environmental carcinogen nickel exposure led to MEG3 downregulation, consequently

154 Collectively, we uncover that nickel exposure results in DNMT3b induction and MEG3 pro

155 s metaphosphate on self-supported conductive nickel foam that is commercially available in large scal

156 Notably, the resulting nitrogen-modified nickel framework (N-Ni) exhibits an extremely low overpo

157 k, a new extraction method for separation of nickel from edible oils and determination by FAAS is rep

158 New solution ICP-MS results of enhanced nickel from P-T boundary sections in Hungary, Japan, and

159 an average consumer basket, daily intake of nickel from vegetable fats is at least twice as low as i

160 We report a nickel-gallium complex featuring a Ni(0)-->Ga(III) bond

161 dination site at gold, and the nature of the nickel-gold interaction appear to be essential for this

162 dination chemistry and catalytic behavior of nickel halide, acetate, and mixed halide-acetate with ch

163 A redox mediator, iron-nickel hexacyanoferrate (Fe|NiHCF) was amperometrically

164 ussed are stoichiometric reactions involving nickel hydride complexes and how some of these reactions

165 Nickel hydride complexes, defined herein as any molecule

166 s, defined herein as any molecules bearing a nickel hydrogen bond, are crucial intermediates in numer

167 The synergetic effect of nickel, colloidal nickel hydroxide islands, and the enhanced surface area

168 4]arene with adjacent hexameric capsules via nickel-hydroxyl coordination.

169 species complex that includes populations of nickel-hyperaccumulating as well as non-accumulating pla

170 ulations belong to the same species and that nickel hyperaccumulation in A. serpyllifolium appears to

171 at the electron-deficient beta-diketiminato nickel(I) complex [(i) Pr2 NNF6 ]Ni results in reduction

172 ule coordinated to an activated bisphenoidal nickel(I) compound containing a tetraazamacrocyclic liga

173 The reactivity of two paramagnetic nickel(I) compounds, CpNi(NHC) (where Cp=cyclopentadieny

174 h awareness of the competencies and scope of nickel(I) compounds.

175 cles proposed for nickel-containing enzymes, nickel(I) plays a key role.

176 etic chemistry the huge potential of complex nickel(I) units for the activation and transformation of

177 e highlights some representative examples of nickel(I)-based small-molecule activation, intending to

178 he former with Ni(OAc)2 or Pd(OAc)2 afforded nickel(II) and palladium(II) complexes.

179 ted hydroborylene-coordinated (chloro)(silyl)nickel(II) complex 3, {[cat((TMS) L)Si](Cl)Ni<--:BH(NHC)

180 ed [2,3-bismethylenethiomorpholinochlorinato]nickel(II) complex was confirmed by determination of its

181 ine-2-thiones using a commercially available nickel(II) complex, (Me3P)2NiCl2, has been developed for

182 pyrazolate bridge gave a series of dinuclear nickel(II) dihydride complexes M[LNi2(H)2], M = Na (Na.2

183 piked anaerobic sludge, the concentration of nickel(II) on anaerobic digestion performance was profil

184 Photoexcited Nickel(II) tetramesitylporphyrin (NiTMP), like many open

185 was stimulated by the addition of 5 mg L(-1) nickel(II), and cobalt(II), and their mixture in day(s).

186 es with copper(III), silver(III), gold(III), nickel(II), palladium(II), platinum(II), rhodium(III), i

187 Reductive elimination from the presented nickel(III) complexes is faster than C-F bond formation

188 ynthesis is thought to involve either methyl-nickel(III) or methyl radical/Ni(II)-thiolate intermedia

189 Finally, nickel import ATP-binding protein (NikE), periplasmic di

190 fact that the formal oxidation state of the nickel in 3 is +4, experimental and computational analys

191 lpha-amino radicals which are intercepted by nickel in catalytic C(sp(3))-C coupling.

192 Based on results, the levels of nickel in neither vegetable fats nor confectionery produ

193 ization of the amount of accessible metallic nickel in the form of small nanoparticles while preventi

194 rstanding the alteration and role of MEG3 in nickel-induced lung tumorigenesis.

195 cally, MEG3 downregulation was attributed to nickel-induced promoter hypermethylation via elevating D

196 triggered by the release of vast amounts of nickel into the atmosphere.

197 hese results showed that the introduction of nickel into the carbonized wood improves the specific ca

198 vation, which involves the channeling of two nickel ions into the active site.

199 ACS form a stable 2:1 complex that binds two nickel ions with higher affinity than the individual com

200 lar distance maps, showing variations in the nickel-iron and nickel-organic carbon ratios, also revea

201 lectrocatalyst consisting of porous metallic nickel-iron nitride (Ni3 FeN) supporting ordered Fe3 Pt

202 may be associated with the in situ generated nickel-iron oxide/hydroxide and iron oxyhydroxide cataly

203 Nickel is a metal that can be present in products contai

204 However, nickel is a nonvolatile element, assumed to be largely s

205 n the hypoxic response induced by hypoxia or nickel is not completely understood.

206 In this work, we present a nickel isonicotinate based ultramicroporous MOF, 1 [Ni-(

207 A reactive high-valent dinuclear nickel(IV) oxido bridged complex is reported that can be

208 ed technique, coupled with a stress-inducing nickel layer is used to transfer single crystalline grap

209 copper, iron, potassium, manganese, sodium, nickel, lead, sulfur, silicon, titanium, vanadium, and z

210 via their C-terminal polyhistidine tails to nickel lipids integrated into the lipid bilayer.

211 Nickel may cause toxic effects including the promotion o

212 nganese reagent and instead proceeds through nickel-mediated bond formation.

213 The subsequent nickel-mediated homocoupling reactions then produced par

214 A zirconium/nickel-mediated one-pot synthesis of ketones is reported

215 Urease is a ubiquitous nickel metalloenzyme.

216 Defects in nickel migrate faster than in NiCo and NiFe.

217 tag from the fermentation supernatant onto a nickel-modified magnetic particle.

218 Nickel nanoparticles ( approximately 5.40 nm) confined i

219 t, it increases the catalytic performance of nickel nanoparticles by a factor of 33 (mass activity) o

220 Nickel nanoparticles encapsulated in few-layer nitrogen-

221 notube (MWCNT) supported highly monodisperse nickel nanoparticles modified on glassy carbon electrode

222 Here we report that a composite catalyst, nickel nanoparticles supported on nitrogen-doped carbon

223 wood is converted into graphitic carbon with nickel nanoparticles uniformly distributed within the th

224 nge current density) relative to unsupported nickel nanoparticles.

225 uring highly composition-segregated platinum-nickel nanowires.

226 tercalation is achieved via the oxidation of nickel (Ni(2+)) ions, whereas, to a large extent, mangan

227 atic ecosystems, the cycling and toxicity of nickel (Ni) are coupled to other elemental cycles that c

228 We use copper (Cu) and nickel (Ni) as representative contaminants, and measure

229 r period, 2004-2013) datasets of PM2.5-bound nickel (Ni) concentration obtained from the daily sample

230 Nickel (Ni) is considered to be a potentially harmful el

231 nuous aqueous phase with the use of metallic nickel (Ni) nanoparticles (NPs) under conditions specifi

232 strength of nanocrystalline copper (Cu) and nickel (Ni) using a crystal-plasticity based mechanics m

233 of all studied marine species to waterborne nickel (Ni), with the EC50 for the development of fully

234 ing Se as well as vanadium (V), cobalt (Co), nickel (Ni), zinc (Zn), and aluminum (Al) concentrations

235 d thermal annealing process facilitated by a nickel, Ni thin film catalyst on top.

236 The platinum-nickel/nickel sulfide heterostructures can deliver a cur

237 trucks contain greater amounts of aluminum, nickel, niobium, and silver and significantly greater am

238 fferent chromatographic platforms, including nickel-nitrilotriacetic acid (Ni-NTA), 2G12, and PGT151

239 Moreover, the nickel OMCs offer exceptional activity in the hydrogenat

240 ustainable solid-state synthesis of OMCs and nickel OMCs with uniform and tunable mesopores ( approxi

241 e-bond synthesis can therefore be used, with nickel- or iron-based catalysis, to extract carbon dioxi

242 osed Ni source lies within the huge Noril'sk nickel ore deposits, which formed in magmatic conduits w

243 s, showing variations in the nickel-iron and nickel-organic carbon ratios, also revealed a general co

244 e controlled growth of hybrid perovskites on nickel oxide (NiO) is shown, resulting in the formation

245 Nickel oxide (NiO) NPs were synthesized by sol-gel metho

246 -free electrochemical immunosensor, based on nickel oxide (NiO) thin film, for the detection of low d

247 onstrate that a catalyst consisting of small nickel oxide clusters supported on ceria-zirconia (NiO/C

248 Iron doping of nickel oxide films results in enhanced activity for prom

249 en ascribed to a unique iron site within the nickel oxide matrix, we show here that Fe doping influen

250 dopamine biosensor has been developed using nickel oxide nanoparticles (NPs) and tyrosinase enzyme c

251 The radio frequency sputtered nickel oxide thin film nanostrtablucture deposited on gl

252 ings of cobalt (CoOx), manganese (MnOx), and nickel oxides (NiOx) has been undertaken, and extensive

253 The catalyst comprises heterogeneous nickel particles supported on activated carbon and furni

254 The subsequent reduction of the nickel peroxide species is confined by a chemical step r

255 e cage with a thin layer of electrodeposited nickel phosphosulfide for Li2S impregnation, using terna

256 sulfide for Li2S impregnation, using ternary nickel phosphosulphide as a highly conductive coating la

257 nhydrides with benzyl trifluoroborates under nickel-photoredox catalysis is described.

258 Using dealloyed nanoporous nickel-platinum (np-NiPt) electrodes, we find the hydrog

259 Nickel plays an important role in areas as diverse as me

260 Nickel precatalysts are potentially a more sustainable a

261 NiAz is the first model nickel protein system capable of accessing three (Ni(I)/

262 metal sensors that respond to cobalt and/or nickel (RcnR, InrS) or copper (CsoR) plus CstR, which re

263 canic gas and subsequent global dispersal of nickel released from this gas as aerosol particles.

264 /S6 axis resultant from PHLPP1 inhibition in nickel responses.

265 nd imaging analysis on a model material, the nickel-rich layered lithium transition-metal oxide, reve

266 either in the short or long term, including nickel-rich layered oxides, lithium-rich layered oxides,

267 Nickel-rich layered transition metal oxides, LiNi1-x (Mn

268 h SLIP lavas, permitted a massive release of nickel-rich volcanic gas and subsequent global dispersal

269 Despite nickel's importance, the investigation of its compounds

270 er of these two modes of catalysis leverages nickel's unique properties in alkyl cross-coupling while

271 The two-dimensional framework of nickel-seamed hexameric metal-organic nanocapsules has b

272 tures and leads to the formation of discrete nickel-seamed pyrogallol[4]arene nanocapsules.

273 and the experimental determination that each nickel site is oxidized by four electrons helps link the

274 ystem and kinetics of resazurin reduction by nickel spiked anaerobic sludge, the concentration of nic

275 center of acetyl coenzyme A synthase using a nickel-substituted azurin protein (NiAz).

276 f-assembled growth of c-BN NDs on cobalt and nickel substrates by plasma-assisted molecular beam epit

277 ro was observed only with UreG obtained from nickel-sufficient plants.

278 H2) and carbon monoxide (CO) in contact with nickel sulfide (NiS) in hot aqueous medium.

279 The reactivity of the "masked" terminal nickel sulfide complex, [K(18-crown-6)][(L(tBu))Ni(II)(S

280 ty of interfaces between platinum-nickel and nickel sulfide components, which cooperate synergistical

281 Herein, we report that nickel sulfide Ni3 S2 is a highly selective catalyst for

282 e we use 2D and 3D X-ray imagery on Noril'sk nickel sulfide, combined with simple thermodynamic model

283 of other alloy systems, such as non-weldable nickel superalloys and intermetallics.

284 on-rich HO-H bond via H transfer to N on the nickel surface, beneficial to the overall hydrogen evolu

285 We present a series of self-assembled nickel terpyridine complexes as electrocatalysts for the

286 Ms), including copper, manganese, magnesium, nickel, tin, niobium, light rare earth elements (LREEs;

287 rporated into the bulk of disordered lithium nickel titanium molybdenum oxides using a standard solid

288 Here, a Nickel-Titanium alloy is used as a sensory material in o

289 A nickel-titanium shape memory alloy part was created with

290 howed the heterogeneous sorption behavior of nickel to CMAs.

291 of intramolecular electron transfer from the nickel to the porphyrin and proton transfer from a carbo

292 ssion of genes involved in pH regulation and nickel transport.

293 ability is achieved by the sputter-deposited nickel-vanadium and gold pad metal layers and copper int

294 solutions and applied surface potentials of nickel (vs. Ag|AgCl electrode in solution) for the mica-

295 In bismuth-doped polycrystalline nickel, we found that ordered, segregation-induced grain

296 s surfaces comprising of gold, palladium and nickel were generated on copper substrates to demonstrat

297 years, were found for residual oil burning (nickel, zinc), near-road traffic (copper, iron, and tita

298 nolithic zinc sponge anodes can be cycled in nickel-zinc alkaline cells hundreds to thousands of time

299 zinc form-factor elevates the performance of nickel-zinc alkaline cells in three fields of use: (i) >

300 We demonstrate 800 stable cycles of nickel-zinc batteries with good power rate (20 mA cm(-2)