ライフサイエンスコーパス: bismuth

1 h as spin-orbit coupled graphene and crystal Bismuth.

2 chalcogenidometallates of cadmium, lead, and bismuth.

3 lomb and spin-orbit interaction in elemental bismuth.

4 rees , the angle between twinned crystals in bismuth.

5 relativistic electrons, such as graphene or bismuth.

6 tanding of the topological band structure of bismuth.

7 ntum Hall fractionalization observed in pure bismuth.

8 of a copper grain boundary with and without bismuth.

9 h as phosphorus, arsenic, antimony, and even bismuth.

10 mpact on the electrocatalytic performance of bismuth.

11 the electronic structure) on the surface of bismuth.

12 and magnetism on the helical hinge states of bismuth(111) films grown on a superconducting niobium su

13 s of plutonium-(239,240), americium-241, and bismuth-207 are found.

14 ium-(239,240), plutonium-238, americium-241, bismuth-207, and cesium-137.

15 n channels, ranging from yttrium (89 amu) to bismuth (209 amu), which are now available.

16 hly charged heavy ions such as hydrogen-like bismuth (209)Bi(82+) experience electromagnetic fields t

17 splittings in hydrogen-like and lithium-like bismuth (209)Bi(82+,80+) with a precision that is improv

18 -lived (half-life, 46 minutes) alpha-emitter bismuth 213 ((213)Bi) conjugated to an anti-CD45 monoclo

19 onjugate, which recognizes CD25, followed by bismuth 213 ((213)Bi)-1,4,7,10-tetraazacyclododecane-N,N

20 lpha-emitters with short half-lives, such as bismuth-213 ((2)(1)(3)Bi).

21 e potential of targeted radiotherapy using a bismuth-213 ((213)Bi)-labeled anti-CD45 antibody to repl

22 oietic cells with an alpha-particle emitter, bismuth-213 ((213)Bi)-labeled anti-CD45 monoclonal antib

23 Here, we substituted the alpha-emitter bismuth-213 (213Bi) linked to a monoclonal antibody (mAb

24 The daughters, especially bismuth-213 (213Bi), tend to accumulate in the kidneys.

25 nt radioimmunotherapy with the alpha-emitter bismuth-213 (Bi) coupled to anti-CD45 or anti-T-cell rec

26 Bismuth-213 is a short-lived (t 1/2 = 46 min) radionucli

27 he therapeutic radioisotopes Rhenium-188 and Bismuth-213.

28 electrodes modified by the incorporation of bismuth adatoms is revealed.

29 By adding extra electrons via bismuth alloying, we showed that both the structural sta

30 of the superconductive pairing in bulk lead-bismuth alloys is altered in the quantum regime.

31 s largely been initiated by the discovery of bismuth and antimony chalcogenide bulk topological insul

32 zation of a new MOF prepared with the use of bismuth and dithieno[3,2-b:2',3'-d]thiophene-2,6-dicarbo

33 th linear energy dispersion, for example, in bismuth and graphene.

34 urther evidence for the nontrivial nature of bismuth and in particular, demonstrate backscattering in

35 d with 100-140 kVp by tantalum compared with bismuth and iodine at equal mass concentration suggests

36 R = Me, Ph), react with 1 by attaching X to bismuth and R3Si to the oxyaryl oxygen to form Ar'Bi(X)(

37 le solution and simultanously depositing the bismuth and target metals on the glassy-carbon or carbon

38 d model, formic acid is first physisorbed on bismuth and then deprotonated and chemisorbed in formate

39 Most of these materials contain bismuth, and none so far are oxides.

40 ng uranium, thorium, actinium, radium, lead, bismuth, and polonium isotopes, to the total radioactivi

41 oling device made of our material and p-type bismuth antimony telluride (Bi(0.5)Sb(1.5)Te(3)) has pro

42 nless thermoelectric figure of merit (ZT) in bismuth antimony telluride (BiSbTe) bulk alloys has rema

43 0-nm deep into the bulk of pure and Cr-doped bismuth antimony telluride films, we provide signatures

44 iquid-phase compaction in Bi(0.5)Sb(1.5)Te3 (bismuth antimony telluride) effectively scatter midfrequ

45 Bismuth-antimony (Bi-Sb) alloy is a promising material f

46 r density-dependent interatomic potential of bismuth approaching a solid-solid phase transition.

47 The results show that CO2 binds to a bismuth atom in the presence of an excess electron to fo

48 The bismuth atom of the tridentate diphosphinobismuthine (o-

49 a model system, a nickel sample infused with bismuth atoms, by using aberration-corrected scanning tr

50 rapy or high-dose dual therapy, according to bismuth availability.

51 tion of a tunable topological insulator in a bismuth-based class of material by combining spin-imagin

52 amination of solar cell devices based on the bismuth-based compound 5 resulted in PCEs in the range o

53 Bismuth-based compounds have recently gained increasing

54 onductor quantum well structures and several bismuth-based compounds, but so far experiments have not

55 article interference pattern within a single bismuth-based cuprate family, we observed a Fermi surfac

56 d Hc2 as a function of hole concentration in bismuth-based cuprates by measuring the voltage induced

57 Bismuth-based materials have been instrumental in the de

58 ase family, as this is the first report of a bismuth-based MAX phase.

59 A bismuth-based metal-organic framework (MOF), [Bi(BTC)(H2

60 Three bismuth-based PeNCs of general chemical formulas A(3)Bi(

61 report here a series of nontoxic and stable bismuth-based perovskite nanocrystals (PeNCs) with appli

62 e offered voluntary re-treatment with 14-day bismuth-based quadruple therapy.

63 ed therapy as a second-line treatment, while bismuth-based therapy achieved similar or greater eradic

64 h associated with greater effectiveness than bismuth-based therapy as a second-line treatment, while

65 When comparing triple and bismuth-based therapy, the relative effectiveness appear

66 Bismuth (Bi) has been known as a highly efficient electr

67 h the rhombohedral A7 structure of elemental bismuth (Bi) have been discovered at ambient condition,

68 We observed that bismuth (Bi) might be a promising candidate for this tas

69 actants) has been used for the deposition of bismuth (Bi) nanoparticles onto the surface of reduced g

70 ion that used trace elements [antimony (Sb), bismuth (Bi), lead, or tellurium] to stabilize high-inde

71 Studies of nanosized forms of bismuth (Bi)-containing materials have recently expanded

72 I) occurring in the edge state of a pristine bismuth bilayer with that occurring in the edge state of

73 Two bismuth boron cluster anions, BiB2 O(-) and Bi2 B(-) , c

74 at the B-Bi bond in 10 which afforded stable bismuth (boryl)iminomethane 20.

75 d to the use (n = 50) or absence (n = 51) of bismuth breast shields.

76 another hidden facet of the band topology of bismuth by showing that bismuth is also a first-order to

77 Bismuth, by comparison, is an affordable and environment

78 at the ground state hyperfine populations of bismuth can be read out using the mid-infrared Rydberg t

79 rt that a high-pressure crystalline phase of bismuth can melt into a metastable liquid below the melt

80 In this work, we show that a bismuth-carbon monoxide evolving catalyst (Bi-CMEC) can

81 In this work, we report an inexpensive bismuth-carbon monoxide evolving catalyst (Bi-CMEC) that

82 tability (100 hours) grain boundary-enriched bismuth catalyst, we demonstrated ultra-high concentrati

83 Bismuth chalcogenides and lead telluride/selenide alloys

84 Bismuth chalcogenides are examples of such two-dimension

85 nsmission through thin nanoplates of layered bismuth chalcogenides by intercalation of copper atoms,

86 halides (BiO(x), where X is Cl, Br or I) and bismuth chalcogenides, including bismuth oxide, bismuth

87 on the working electrode by reduction of the bismuth citrate during the preconcentration step.

88 f a three-electrode voltammetric cell with a bismuth citrate-loaded graphite working electrode.

89 were divided into 3 groups according to the Bismuth classification (Group 1, type I; Group 2, type I

90 d bilateral stent placement according to the Bismuth classification.

91 tency when compared with PS placement in all Bismuth classifications.

92 mass spectrometry (ToF-SIMS) equipped with a bismuth cluster source for ion imaging and a C(60)(+) cl

93 Bismuth-coated carbon electrodes display an attractive s

94 The bismuth-coated electrode was used to detect zinc in insu

95 Following the preconcentration at the bismuth-coated electrode, the deposited metals are oxidi

96 Bare glassy carbon (GC), bismuth-coated glassy carbon (Bi-GC), and mercury-coated

97 The electrocatalytic activity of bismuth considered as a low-cost and green electrode mat

98 The Fermi surface of elemental bismuth consists of three small rotationally equivalent

99 These features have rendered bismuth-containing nanoparticles (BiNPs) with desirable

100 The corresponding bismuth-containing samples exhibit smaller reduction in

101 stematically with the film thickness and the bismuth content and can be parametrized in terms of a ch

102 determined by distal bile duct obstruction, Bismuth- Corlette type IV stricture, biliary obstruction

103 ction of the bile ducts (HR 3.711, P=0.008), Bismuth-Corlette type IV stricture (HR 2.082, P=0.008),

104 , electrical conductivity, and magnetism) in bismuth could be due to the formation of these polytypes

105 The evolution of bismuth crystal structure upon excitation of its A(1g) p

106 eparation of single-unit-cell structure, the bismuth defects are controlled to tune the oxygen defect

107 ights into the different morphologies of the bismuth deposits on the carbon substrates.

108 We demonstrate the detection of 1,700 bismuth donor spins in silicon within a single Hahn echo

109 pins in the solid state, in particular using bismuth donors in silicon.

110 This is in sharp contrast to bismuth doped lead selenide, which reaches a figure of m

111 with chloride ions were electrolyzed using a bismuth doped TiO2 (BiOx/TiO2) anode coupled with a stai

112 In bismuth-doped polycrystalline nickel, we found that orde

113 Using bismuth-doped silicon, we demonstrate quantum control ov

114 ayer semiconductor anodes with electroactive bismuth-doped TiO2 functionalities and stainless steel c

115 The QD formation occurs after anneal of Bismuth droplets under Selenium flux.

116 rbon atom was then studied, showing that the bismuth electrode catalyzed the electroreduction of chlo

117 Various types of proton-irradiated lead-bismuth eutectic (LBE) samples from the MEGAPIE prototyp

118 echniques (reference scanning); (b) with one bismuth eye shield; (c) with organ-based TCM; (d) with r

119 s, particularly strontium titanate (STO) and bismuth ferrite (BFO), is presented.

120 taxial constraint in lead-free piezoelectric bismuth ferrite (BiFeO3) films.

121 discovery of a large shape-memory effect in bismuth ferrite at the nanoscale.

122 While bismuth ferrite BiFeO(3) (BFO) is a well studied multife

123 in walls in thin films of lead zirconate and bismuth ferrite exhibit large conductance at microwave f

124 Among the various types of multiferroics the bismuth ferrite system has received much attention prima

125 m (La) and strontium (Sr) doped rhombohedral bismuth ferrite within density functional theory.

126 Bismuth ferrite, BiFeO3, is the most-studied intrinsic m

127 he supporting electrolyte, the conditions of bismuth film deposition, an accumulation potential and t

128 ctive behaviour of ETTA at an in situ plated bismuth film electrode (BiFE) as a sensor.

129 alytic adsorptive stripping voltammetry at a bismuth film electrode gives a Cr concentration of 6.0 +

130 considered to be of a general use while the bismuth film exploited in this study served as a conveni

131 We present results from an amorphous bismuth film system patterned with a nanohoneycomb array

132 en-printed electrode modified "in-situ" with bismuth film, which is more environmentally friendly tha

133 ectroaccumulation of heavy metal ions in the bismuth film.

134 These bismuth-film electrodes are prepared by adding 400 micro

135 s of anodic stripping electrode processes at bismuth-film electrodes is presented from both theoretic

136 (3+) ions, the deposition conditions for the bismuth-film, and the accumulation time of the target he

137 Substituting antimony or bismuth for lead achieves maximum power factors between

138 ted and chemisorbed in formate form, also on bismuth, from which configuration the C-H bond is cleave

139 er contaminants (including nutrients, boron, bismuth, gadolinium, and ethylenediaminetetraacetic acid

140 s were obtained for the NaI systems, and the bismuth germanate (BGO) systems were operated well below

141 detector array consists of 10,080 individual bismuth germanate crystals arranged in 24 rings of 420 c

142 consists of 2 modules of a 26 x 26 pixelated bismuth germanate scintillator array with individual cry

143 and only 2 (thallium-doped sodium iodide and bismuth germanate) have found widespread use.

144 Among the various Discovery bismuth germanium oxide-based PET/CT scanners, the IQ wi

145 nic hybrid materials based on methylammonium bismuth halide (CH3NH3)3Bi2I9.

146 reported BiOI solar cells, as well as other bismuth halide and chalcohalide photovoltaics recently e

147 The deepest group V donor in silicon, bismuth, has a large zero-field ground state hyperfine s

148 Atomization of bismuth hydride in a 17 W planar quartz dielectric barri

149 O2 molecules leads to the stabilization of a bismuth(I) oxalate complex and results in a core ion swi

150 or PS stents, with lower occlusion rates in Bismuth II patients.

151 Reaction of bismuth(II) compounds with sulfur gives mixtures of [Bi(

152 oaded: Readily accessible and shelf-stable 1-bismuth(III) acetylides react rapidly and regiospecifica

153 ntage of the electrophilic tris(carboxylato) bismuth(III) compounds is the unique low absorption of t

154 es are prepared by adding 400 microg/L (ppb) bismuth(III) directly to the sample solution and simulta

155 A bismuth(III) triflate catalyzed three-component synthesi

156 Catalytic quantities of bismuth(III) triflate efficiently initiate the rearrange

157 Bismuth(III) triflate is found to be a highly effective

158 2,3-d]tropones in good yields via sequential bismuth(III)chloride-catalyzed furfurylation and an unus

159 es in the electronic structure caused by the bismuth impurity.

160 ed with seven elements (yttrium, indium, and bismuth in addition to the four lanthanides) by multista

161 er a hundred years: how can minute traces of bismuth in copper cause this ductile metal to fail in a

162 ion of selenium, silver, antimony, lead, and bismuth in liquid microsamples (20 muL) by inductively c

163 Heavier impurities such as bismuth in silicon (Si:Bi) could be used in conjunction

164 proaches to a solid-state atomic clock using bismuth in silicon, or eventually in enriched (28)Si.

165 operties of the 1D topological edge state of bismuth in the absence of TRS, where backscattering is p

166 e able to observe the actual distribution of bismuth in the boundary and detect changes in the electr

167 he copper atoms that surround the segregated bismuth in the grain boundary become embrittled by takin

168 amoxicillin or tetracycline, with or without bismuth, in the same prescription for 7-14 days.

169 l and optical properties of the single-layer bismuth iodide (BiI3) nanosheet.

170 d in the beta-phase of quasi-one-dimensional bismuth iodide Bi4I4.

171 experimental evidence for the WTI state in a bismuth iodide, beta-Bi(4)I(4).

172 Ps) in the presence of platinum (Pt(4+)) and bismuth ions (Bi(3+)) are presented.

173 er-modified gold nanoparticles (Apt-Au NPs), bismuth ions and chloride ions.

174 Embrittlement of copper by bismuth is a classic example of this phenomenon.

175 the band topology of bismuth by showing that bismuth is also a first-order topological crystalline in

176 odes and mercury film electrodes showed that bismuth is an appropriate alternative for Zn detection.

177 The Landau spectrum of bismuth is complex and includes many angle-dependent lin

178 A recent study has, however, shown that bismuth is in fact a higher-order topological insulator

179 Surface high mobility is unexpected since bismuth is not a topological insulator and the surface i

180 g therapy as an alternative, especially when bismuth is not available.

181 iotics and either a proton pump inhibitor or bismuth is the regimens of choice.

182 contrast to the neurotoxic lead(II) acetate, bismuth is used due to its nontoxic properties, as Bi(II

183 ent of topological physics, even though bulk bismuth itself has been long thought to be topologically

184 electrodes (except of copper, antimony, and bismuth itself).

185 th an argon cluster ion for sputtering and a bismuth liquid metal ion source for analysis, both surfa

186 resents a fully characterizable product of a bismuth-mediated C-H activation and rearrangement of the

187 The bismuth-mediated two-component hemiacetal/oxa-conjugate

188 a beam bombardment of naturally monoisotopic bismuth metal ((209)Bi) via the (alpha, 2n) reaction.

189 traditional bismuth quadruple therapy (PPI + bismuth + metronidazole + tetracycline [PBMT]).

190 ied including a single capsule that contains bismuth, metronidazole, and tetracycline.

191 Administrating the H2S scavenger bismuth mitigates A. parvulum-induced colitis in vivo.

192 e reductive activation of CO2 with an atomic bismuth model catalyst changes under aprotic solvation.

193 ammetric measurements of zinc were done on a bismuth-modified electrode.

194 Comparison of the performance of bismuth-modified electrodes and mercury film electrodes

195 trolytic sampling of heavy metals at special bismuth-modified particles is presented.

196 s of (i) a Nafion-multiwall carbon nanotubes-bismuth nanocomposite film modified glassy carbon electr

197 erometry, and optical images reveal that the bismuth nanocrystal melts during trapping, facilitating

198 g heterostructures of periodically repeating bismuth-nanocrystal/germanium-nanowire junctions.

199 solid (SLS) mechanism with the assistance of bismuth nanocrystals adhered to a substrate (silicon or

200 -solid (SLS) approach using electrodeposited bismuth nanoparticles (Bi NPs) as catalyst.

201 pounds detection based on the combination of bismuth nanoparticles (BiNPs) and Tyr for phenol detecti

202 ial system that allows for in situ growth of bismuth nanoparticles from the precursor compound SrBi2T

203 d an efficient approach to deposit secondary bismuth nanoparticles onto the NW backbone to induce the

204 haracteristic X-ray emissions from collected bismuth nanoparticles, upon excitation with collimated X

205 of CTCs by using magnetic nanoparticles and bismuth nanoparticles, X-ray fluorescence spectrometry,

206 V) determination of Pb(II) and Cd(II) at the bismuth nanostructured layer formed on the working elect

207 and are cathodically converted to defective bismuth nanotubes.

208 In particular, bismuth nanowires were self-assembled on the clean Si(10

209 The hydrolysis and precipitation of bismuth nitrate in an ethanol-water system with 2,3-bis(

210 However, the promoting role of bismuth nitrate in this reaction is not understood at th

211 ith 2,3-bis(2-pyridyl)pyrazine yielded basic bismuth nitrate Reuleaux triangle disks.

212 Bismuth nitrate-catalyzed versatile Michael reaction was

213 nt is evident with the use of either in situ bismuth or mercury film modified SPES compared to the ba

214 considering mass transfer within either the bismuth or the metal analyte film.

215 d assembly of the nested clusters, driven by bismuth- or lead-promoted decomposition of excess peroxi

216 a facile, one-pot hydrothermal synthesis of bismuth oxide (Bi2O2.33) nanostructures (nanorods) was d

217 layered manganese oxide polymorph mixed with bismuth oxide (Bi2O3)) cathodes intercalated with Cu(2+)

218 Bismuth oxide double-walled nanotubes with fragmented su

219 r or I) and bismuth chalcogenides, including bismuth oxide, bismuth sulfide, bismuth selenide, and bi

220 The high-temperature cubic form of bismuth oxide, delta-Bi2O3, is the best intermediate-tem

221 tion reported in the clinical application of bismuth oxide-containing hydraulic cements.

222 ay be attributed to the hydrogen bromide and bismuth oxybromide derived from the hydrolysis of bismut

223 The Apt-Au NPs are immobilized on bismuth oxychloride (BiOCl) nanosheets in situ to form A

224 Bismuth oxyhalides (BiO(x), where X is Cl, Br or I) and

225 red in detail through theory and experiment: bismuth oxyiodide (BiOI).

226 14)H(2)O(8)).nH(2)O (SU-101) was inspired by bismuth phenolate metallodrugs, and could be synthesized

227 The in situ bismuth-plated electrodes exhibit a wide accessible pote

228 ole + clarithromycin [PAMC]) and traditional bismuth quadruple therapy (PPI + bismuth + metronidazole

229 The guidelines recommend bismuth quadruple therapy for first-line treatment, repl

230 We could recommend bismuth quadruple therapy or high-dose dual therapy, acc

231 Second-line therapies should be bismuth quadruple therapy or levofloxacin triple therapy

232 precipitates, whereas comparable amounts of bismuth results in very few or no precipitates.

233 an be accessed from inexpensive and nontoxic bismuth salts.

234 in a thin film of the topological insulator bismuth selenide (Bi2Se3) at room temperature can indeed

235 rsive X-ray diffraction (XRD) experiments of bismuth selenide (Bi2Se3) have been carried out to press

236 Several compositions of manganese-tin-bismuth selenide solid-solution series, Mn(1-x)Sn(x)Bi(2

237 s, including bismuth oxide, bismuth sulfide, bismuth selenide, and bismuth telluride, have been heavi

238 These bismuth-semiconductor interfaces may be useful for quant

239 he effect of increasing distance between the bismuth shield and eye lens was also investigated.

240 Increasing the distance between the bismuth shield and the eye lens helped reduce CT number

241 A combination of organ-based TCM with one bismuth shield reduced the dose by 47.0%.

242 CT numbers were increased whenever the bismuth shield was used.

243 ose to the eye was reduced by 26.4% with one bismuth shield, 30.4% with organ-based TCM, and 30.2% wi

244 hields; and (f) with organ-based TCM and one bismuth shield.

245 rent to yield the same dose reduction as one bismuth shield; (e) with two layers of bismuth shields;

246 provided superior image quality to that with bismuth shielding while similarly reducing dose to the e

247 ovides the same dose reduction to the eye as bismuth shielding; however, CT number accuracy is mainta

248 s one bismuth shield; (e) with two layers of bismuth shields; and (f) with organ-based TCM and one bi

249 -ray induced ultrafast phase transition in a bismuth single crystal at high intensities (~10(14) W/cm

250 nalized as the outcome of abundant defective bismuth sites that stabilize the *OCHO intermediate.

251 structure to show that heterometals such as bismuth stabilize labile Ti-oxo sulfate clusters in aque

252 Competitive antagonism by bismuth subnitrate moderately reduced the renal uptake o

253 with simultaneous iodinated intravenous and bismuth subsalicylate enteric contrast material at DE CT

254 a rabbit in which iodinated intravenous and bismuth subsalicylate oral contrast media were administe

255 Bismuth subsalicylate, and 5-amniosalicylates are therap

256 A 2D array of bismuth-substituted iron-garnet nanopillars on an ultrat

257 utilizes an optical indicator composed of a bismuth-substituted yttrium iron garnet thin film, and v

258 m film of the metal analyte is formed on the bismuth substrate, in situ deposited onto a glassy carbo

259 aging (MRI); the radiopaque agents barium or bismuth sulfate for detection by X-ray modalities; or pe

260 muth chalcogenides, including bismuth oxide, bismuth sulfide, bismuth selenide, and bismuth telluride

261 onnected 3D semiconducting nanostructures of bismuth sulphide were prepared from inverse cubic lipid

262 Dissolution of irradiated bismuth targets is accomplished using HNO(3); however, (

263 eveloped a method for (211)At isolation from bismuth targets using tellurium-packed columns.

264 Tetradymite-structured chalcogenides such as bismuth telluride (Bi(2)Te(3)) are of significant intere

265 Bismuth telluride (Bi(2)Te(3))-based alloys have remaine

266 lexible films and devices by screen printing bismuth telluride based nanocrystal inks synthesized usi

267 elvin, which is comparable to the commercial bismuth telluride selenide (Bi(2)Te(3-) (x) Se (x) ) but

268 hermoelectric properties of electrodeposited bismuth telluride thin films, grown on indium tin oxide.

269 xide, bismuth sulfide, bismuth selenide, and bismuth telluride, have been heavily investigated for th

270 emperature heat-to-electricity conversion is bismuth telluride.

271 We report results for both bismuth telluride/antimony telluride and chromel/alumel

272 inary tellurides-polycrystalline cadmium and bismuth tellurides- were studied over the pH range 3-11,

273 rofluidic device with an integrated antimony/bismuth thermopile sensor and had a limit of detection o

274 Here we examine the layered ferroelectric bismuth titanate and demonstrate that, by site-specific

275 is created just below the conduction band of bismuth titanate.

276 By tuning the ratio of bismuth to antimony, we are able to reduce the bulk carr

277 y, we have investigated the magnetization of bismuth to fields of 31 tesla.

278 sm explaining the high catalytic activity of bismuth to reduce these families of compounds.

279 ellent yields of the previously unreported 5-bismuth triazolides.

280 lyloxy aldehydes and ketones using catalytic bismuth tribromide and various trialkylsilyl nucleophile

281 th oxybromide derived from the hydrolysis of bismuth tribromide.

282 ed on indium tin oxide (ITO) surfaces from a bismuth trichloride solution using potentiostatic double

283 The highly catalytic nature of bismuth triflate and the use of a relatively nontoxic so

284 Bismuth triflate is a highly efficient catalyst (0.1-1 m

285 ns with various silyl nucleophiles employing bismuth trifluoromethanesulfonate [Bi(OTf)3] as the Lewi

286 t atom or small cluster, up to 9 atoms, on a bismuth ultramicroelectrode (UME).

287 rbon beads were asymmetrically modified with bismuth using bipolar electrochemistry.

288 Bismuth vanadate (BiVO(4)) has recently emerged as a pro

289 Bismuth vanadate (BiVO4) has a band structure that is we

290 Bismuth vanadate (BiVO4) is a promising photoelectrode m

291 ith different ratios of titanium dioxide and bismuth vanadate [TiO(2)]/[BiVO(4)] give rise to compati

292 ronic band structure and charge transport of bismuth vanadate are systematically elucidated by ab ini

293 Here we show that annealing nanoporous bismuth vanadate electrodes at 350 degrees C under nitro

294 n-Type bismuth vanadate has been identified as one of the most

295 ion dynamics on the nanosecond time scale in bismuth vanadate with formula Bi(0.913)V(0.087)O(1.587),

296 luating corrosion mechanisms and apply it to bismuth vanadate, a state-of-the-art photoanode.

297 Antimony-alloyed bismuth vanadate, which is identified as a novel light a

298 A trimetallic bismuth-vanadium-zinc oxide combination was also found t

299 , gadolinium, tantalum, ytterbium, gold, and bismuth, were formulated as compounds in aqueous solutio

300 t a study of angle-resolved Nernst effect in bismuth, which maps the angle-resolved Landau spectrum f