ライフサイエンスコーパス: tungsten

1 ion, using novel collimator designs based on tungsten.

2 ce and Fermi-velocity distribution vF(kF) of tungsten.

3 roximately -0.5 by incorporating oxygen into tungsten.

4 , such as arsenic, antimony, molybdenum, and tungsten.

5 ation mechanism in nanoscale crystals of BCC tungsten.

6 igh-pressure helium bubbles in plasma-facing tungsten.

7 roughening were observed in the cold rolled tungsten.

8 or two different grades of ultrafine-grained tungsten.

9 balt (0.5-6 nM), molybdenum (10-5600 nM) and tungsten (0.3-8 nM) in Hydrate Ridge sediment porewaters

10 ich is much smaller than that of alpha-phase tungsten (174 Wm(-1)K(-1)).

11 terium Geobacter metallireducens harboring 4 tungsten, 4 zinc, 2 selenocysteines, 6 FAD, and >50 FeS

12 ion, we assessed functional neurotoxicity of tungsten, a common microelectrode material, and two cond

13 dynamic stability and magnetic properties of tungsten adsorbed tri-vacancy fluorinated (TVF) graphene

14 The tungsten alkylidyne [(t)BuOCO]W identical withC((t)Bu) (

15 The tungsten alkylidyne [CF3-ONO]W identical withCC(CH3)3(TH

16 Tungsten alkylidynes [CF3-ONO]W identical withCC(CH3)3(T

17 Introduction of tungsten allows reversible lithium-ion intercalation bel

18 In contrast to its tungsten analogue, which shows poor activity towards ter

19 vide a lower bound to the coherence time for tungsten analogues due to a destructive interference fro

20 lium antimonide cell paired with a broadband tungsten and a radiatively-optimized Drude radiator are

21 For tungsten and antimony, oxyanions typically dominated and

22 ments used in high-temperature alloys (e.g., tungsten and molybdenum), to vulnerability to supply res

23 is of pi/pi* orbital energy matching between tungsten and organic PE fragments and the introduction o

24 igands within complexes based on molybdenum, tungsten and ruthenium has led to reactivity and selecti

25 Molybdenum, antimony, tungsten, and uranium were positively associated with di

26 Molybdenum, antimony, tungsten, and uranium were positively associated with di

27 esium, molybdenum, lead, antimony, thallium, tungsten, and uranium with diabetes prevalence.

28 al physiological function (chromium, nickel, tungsten, and vanadium), and 12 with known toxicity (ant

29 Molybdenum-, tungsten-, and ruthenium-based complexes that control th

30 Here, the fabrication of single-tungsten-atom-oxide (STAO) is demonstrated, in which the

31 e linked in parallel serpentine arrays, with tungsten atoms in between.

32 By selectively substituting tungsten atoms with tantalum, the Vickers hardness can b

33 ng the magneto-optical response of trions in tungsten based TMD monolayers.

34 des, or acids (in contrast to molybdenum- or tungsten-based alkylidenes).

35 It is shown that the power output of a tungsten-based device increases by 6.5% while the cell t

36 The key limiting factors for the Drude- and tungsten-based devices are respectively the recombinatio

37 Tungsten-based monolayer transition metal dichalcogenide

38 eous thermal plasmon emission, we engineer a tungsten-based thermal emitter, fabricated in an industr

39 tween excitons and trions in molybdenum- and tungsten-based transition metal dichalcogenides.

40 The optical properties of particularly the tungsten-based transition-metal dichalcogenides are stro

41 s into a polyoxometalate cage, a new type of tungsten-based unconventional Dawson-like cluster, [W18O

42 d graphene (G) sandwiched between beta-phase tungsten (beta-W) films of 15, 30 and 40 nm thickness.

43 bunit of this complex harbors an active site tungsten-bis-pyranopterin cofactor with the metal being

44 pening process was efficiently promoted by a tungsten/bis(hydroxamic acid) catalytic system, furnishi

45 This process was promoted by a tungsten-bishydroxamic acid complex at room temperature

46 electric, CsNbW(2) O(9) , with the hexagonal tungsten bronze structure, is reported.

47 ent experiments reveal that micro-structured tungsten can exhibit significant deviation from the blac

48 sted that non-3d high-valency metals such as tungsten can modulate 3d metal oxides, providing near-op

49 ure to light or oxygen, which is unusual for tungsten carbene complexes.

50 The tungsten carbene subunits were readily incorporated into

51 pported tungsten carbide (WC) and molybdenum tungsten carbide (Mo(x)W(1-x)C) nanoparticles are highly

52 Carbon-supported tungsten carbide (WC) and molybdenum tungsten carbide (M

53 s of three different metallic nanoparticles, tungsten carbide (WC), silver (Ag) and copper (Cu), in c

54 For tungsten carbide - epoxy crystals we identify all angle

55 Tungsten carbide cobalt (WC-Co) matrix nanocomposites re

56 Supported tungsten carbide is an efficient and vital nanomaterial

57 n plastic blocks, cured and sectioned with a tungsten carbide knife to obtain mineralized bone sectio

58 Consequently, tungsten carbide may be a promising catalyst in self-hyd

59 drawn nanowires can be alleviated by adding tungsten carbide nanoparticles to the metal core to arri

60 ing OH* are significantly more endergonic on tungsten carbide than on platinum.

61 In this work, tungsten carbide with tube-like nanostructures (WC NTs)

62 accessible for coordination chemistry toward tungsten carbonyl.

63 have solved this challenge and now report a tungsten catalyst supported by a tetraanionic pincer lig

64 n-to-air atmosphere between a solid pin type tungsten cathode and a liquid drop placed on a graphite

65 n 3-center-2-electron interactions with both tungsten centers.

66 ish benzene ring reduction at an active-site tungsten cofactor; however, the mechanism and components

67 of deuterium incorporation, via binding to a tungsten complex.

68 Our investigations indicate that tungsten complexes are inactive in the test reaction eit

69 nyl isocyanide (CNdipp) have been developed; tungsten complexes incorporating these oligoarylisocyani

70 of the valley polarization as a function of tungsten concentration, where 40% tungsten incorporation

71 ions of climbing prismatic loops in iron and tungsten, confirming that this novel form of vacancy-fre

72 y a member of the TF family, named TaoR (for tungsten-containing aldehyde oxidoreductase regulator).

73 acterial genes for molybdenum-containing and tungsten-containing enzymes are often differentially reg

74 Proteins affiliated with the tungsten-containing form of formylmethanofuran dehydroge

75 t work, we conclude that all molybdenum- and tungsten-containing formate dehydrogenases and related e

76 lectively, and efficiently interconverted by tungsten-containing formate dehydrogenases that surpass

77 x chemistry, and excited-state properties of tungsten-containing oligo-phenylene-ethynylenes (OPEs) o

78 aspect to its redox metabolism, involving a tungsten-containing oxidoreductase of unknown function.

79 for solid solutions of tungsten in ReB2 with tungsten content up to a surprisingly large limit of nea

80 along both the a- and c-axes with increasing tungsten content, as evaluated by powder X-ray and neutr

81 th and resistivity are compared to isotropic tungsten-copper composites fabricated by standard powder

82 s, we demonstrate on the specific example of tungsten-copper composites the effect of anisotropy on t

83 r is used for the simulated helium-implanted tungsten; defect removal rate.

84 e dependent upon the defective nature of the tungsten-deficient metal sublattice.

85 Tungsten diboride (WB2), which takes a structural hybrid

86 In particular, for Tungsten dichalcogenides it has been found that the sign

87 olarized emission in a molybdenum diselenide/tungsten diselenide (MoSe(2)/WSe(2)) heterobilayer with

88 nterfaces, in tungsten disulfide (WS(2)) and tungsten diselenide (WSe(2)) contacted with indium alloy

89 ed spirals of tungsten disulfide (WS(2)) and tungsten diselenide (WSe(2)) draped over nanoparticles n

90 potential in molybdenum diselenide (MoSe(2))/tungsten diselenide (WSe(2)) heterobilayers.

91 Here we show that adding an insulating tungsten diselenide (WSe(2)) monolayer between the hBN a

92 a immobilization onto chitosan exfoliated 2D tungsten diselenide (WSe(2)) nanosheet platform.

93 leveraging the atomically thin semiconductor tungsten diselenide (WSe2) as a host for quantum dot-lik

94 ily such as molybdenum disulphide (MoS2) and tungsten diselenide (WSe2), as well as other emerging tw

95 operties of mono and few-layer TMDs, such as tungsten diselenide (WSe2), by controlling the defects,

96 e exciton homogeneous linewidth in monolayer tungsten diselenide (WSe2).

97 de (MoS2), molybdenum diselenide (MoSe2) and tungsten diselenide (WSe2).

98 show that the Type-II band-alignment between tungsten diselenide and chromium triiodide can be exploi

99 Tungsten diselenide and molybdenum disulfide channels we

100 ic arrays of hundreds of quantum emitters in tungsten diselenide and tungsten disulphide monolayers,

101 ngle-photon emission from localized sites in tungsten diselenide and tungsten disulphide.

102 monic sideband (HSB) generation in monolayer tungsten diselenide creates distinct electronic interfer

103 mitters in atomically thin materials such as tungsten diselenide have been demonstrated to host optic

104 alley-polaritons by embedding a monolayer of tungsten diselenide in a monolithic dielectric cavity.

105 e probed the momentum state of excitons in a tungsten diselenide monolayer by photoemitting their con

106 y thin crystalline semiconductor--that is, a tungsten diselenide monolayer--is non-destructively and

107 We found that tungsten diselenide nanoflakes show a current density of

108 illars to coordinate the spatial location of tungsten diselenide quantum emitters, we uncover the pos

109 ron-hole pairs in the layered dichalcogenide tungsten diselenide while a strong terahertz field accel

110 ical to this second approach is to interface tungsten diselenide with other van der Waals materials w

111 In the case of monolayer tungsten diselenide, we observe that the bandgap is reno

112 ited to excite localized charged excitons in tungsten diselenide.

113 ed states in a single-layer semiconductor of tungsten diselenide.

114 tion of moire superlattice exciton states in tungsten diselenide/tungsten disulfide (WSe(2)/WS(2)) he

115 insulating states at fractional fillings of tungsten diselenide/tungsten disulfide moire superlattic

116 hat are spatially localized by defects in 2D tungsten-diselenide (WSe2) monolayers.

117 onstrated by growing supertwisted spirals of tungsten disulfide (WS(2)) and tungsten diselenide (WSe(

118 ts, indicative of defect-free interfaces, in tungsten disulfide (WS(2)) and tungsten diselenide (WSe(

119 operates at room temperature using monolayer tungsten disulfide (WS(2)) as the emissive material.

120 ensurate molybdenum diselenide (MoSe(2)) and tungsten disulfide (WS(2)) monolayers, we demonstrate th

121 Tungsten disulfide (WS(2)) with an average particle size

122 re variations in an adjacent single layer of tungsten disulfide (WS(2)).

123 s of biosurfactant stabilized/functionalized tungsten disulfide (WS(2)-B) quantum dots (QDs) and its

124 Here, the growth of oxidation-resistant tungsten disulfide (WS2 ) monolayers on graphene is demo

125 MDs) such as molybdenum disulfide (MoS2) and tungsten disulfide (WS2) are envisioned to present unpre

126 Tungsten disulfide (WS2) MWNTs, ~300 nm in diameter and

127 Here we show that with a tungsten disulfide (WS2) substrate, the strength of the

128 nally large Bloch-Siegert shift in monolayer tungsten disulfide (WS2) under infrared optical driving.

129 attice exciton states in tungsten diselenide/tungsten disulfide (WSe(2)/WS(2)) heterostructures in wh

130 also demonstrate that optical properties of tungsten disulfide can be effectively tuned by carriers

131 In this scheme, two-dimensional tungsten disulfide excitonic photoluminescence couples i

132 Here we show, using graphene-tungsten disulfide heterostructures as an example, evide

133 tion of light guiding in an atomically thick tungsten disulfide membrane patterned as a photonic crys

134 t fractional fillings of tungsten diselenide/tungsten disulfide moire superlattices.

135 nsfer at a 2D/0D heterostructure composed of tungsten disulfide monolayers (2D-WS2) and a single laye

136 a comprehensive wetting study of individual tungsten disulfide nanotubes by water.

137 tion processed, optically uniform, few-layer tungsten disulfide saturable absorber (WS2-SA).

138 We find that photocarriers injected in tungsten disulfide transfer to graphene in 1 ps and with

139 nergy of oxygen molecules on graphene and 2D tungsten disulfide using temperature-programmed terahert

140 nic gating in individual chiral nanotubes of tungsten disulfide.

141 Especially, single-layer tungsten disulfides (WS2) is a direct band gap semicondu

142 oxygen molecules on graphene ( 0.15 eV) and tungsten disulphide ( 0.24 eV).

143 mb, leading to grain boundary migration in a tungsten disulphide monolayer.

144 quantum emitters in tungsten diselenide and tungsten disulphide monolayers, emitting across a range

145 We show that intrinsic defects in tungsten disulphide play an important role in this proxi

146 f monolayer molybdenum disulphide (MoS2) and tungsten disulphide, grown directly on insulating SiO2 s

147 m localized sites in tungsten diselenide and tungsten disulphide.

148 olayer graphene and few-layer semiconducting tungsten disulphide.

149 study, we designed a photodetector based on tungsten ditelluride (WTe(2)) with carefully fabricated

150 Tungsten ditelluride (WTe2) is a transition metal dichal

151 Furthermore, since tungsten does not undergo room-temperature alloying with

152 Tungsten doped titanium dioxide films with both transpar

153 The structure is based on thin films of tungsten-doped vanadium dioxide where the tungsten fract

154 s from pairs of sensilla impaled by the same tungsten electrode to demonstrate that direct electrical

155 delivery of a high-voltage nsEP to cells by tungsten electrodes creates a multitude of biophysical p

156 tanium ethoxide and dopant concentrations of tungsten ethoxide at 500 degrees C from a toluene soluti

157 ntation of transformed Escherichia coli with tungsten facilitated the replacement of molybdenum in re

158 Here, we show that a plain incandescent tungsten filament (3,000 K) surrounded by a cold-side na

159 While the incorporation of oxygen into the tungsten films leads to significant changes in their mic

160 he results show that graphene inserted among tungsten films plays a dominant role in reducing radiati

161 energy landscape for self climb in iron and tungsten, finding a simple, material independent energy

162 al diffusivity measurements in ion-implanted tungsten for nuclear fusion armour.

163 One of the most interesting materials is tungsten, for which large spin-orbit torques have been f

164 of tungsten-doped vanadium dioxide where the tungsten fraction is judiciously graded across a thickne

165 Tungsten-graphene multilayer composites are fabricated u

166 ient photochemical vapor generation (PVG) of tungsten has been achieved for the first time using a 19

167 , promethium, and samarium), cobalt, silver, tungsten, heavy rare earth elements (yttrium, europium,

168 The antisymmetric CO stretch of tungsten hexacarbonyl was used as a vibrational probe an

169 The volatile product (most probably tungsten hexacarbonyl) was generated using a flow inject

170 n energy of nitrogen and the measurements of tungsten hexacarbonyl.

171 of helium gas bubble superlattices within a tungsten host matrix to uncover mechanistic insight into

172 n transfer (PCET) was studied in a series of tungsten hydride complexes with pendant pyridyl arms ([(

173 f zirconium hydride, probably facilitated by tungsten hydride which was formed at this temperature.

174 d oxidative addition of the Si-H bond to the tungsten(II) center, there is strong experimental and NM

175 -H bond is heterolytically cleaved to form a tungsten(II) hydride and a silylium ion, which is stabil

176 ure can be maintained for solid solutions of tungsten in ReB2 with tungsten content up to a surprisin

177 nt equations of state of gold, platinum, and tungsten in static experiments up to 500 gigapascals.

178 unction of tungsten concentration, where 40% tungsten incorporation is sufficient to achieve valley p

179 nolytic cleavage of epothilone B followed by tungsten-induced deoxygenation of the epoxide moiety.

180 ntity of the sixth ligand of the active-site tungsten ion together with the interplay of the electron

181 pyranopterin cofactors rather than from the tungsten ion.

182 udies reveal a synergistic interplay between tungsten, iron, and cobalt in producing a favorable loca

183 Tungsten is a promising plasma facing material for fusio

184 Although tungsten is currently considered the most promising cand

185 Tungsten is the main candidate material for plasma-facin

186 actions, is enhanced when a high-Z material, tungsten, is placed in front of the target.

187 New tungsten isotope data for modern ocean island basalts (O

188 Here, using molybdenum and tungsten isotope measurements on iron meteorites, we dem

189 iation relies on highly precise and accurate tungsten isotope measurements.

190 High-precision tungsten isotopic data from rocks from two large igneous

191 The tungsten isotopic data negatively correlate with (3)He/(

192 u, reveal preservation to the Phanerozoic of tungsten isotopic heterogeneities in the mantle.

193 nt tungsten-to-oxygen silyl migration in the tungsten(IV) silyl hydride is also energetically feasibl

194 light to ruby red in incandescent light from tungsten lamps or candles.

195 to dramatically affect the microstructure of tungsten, leading to bubble growth, blistering, and/or t

196 he system is validated using measurements of tungsten light and a static scene.

197 Despite low levels of cobalt and tungsten, metagenomic and metaproteomic data suggest tha

198 photocathodes are synthesized by evaporating tungsten metal in an ambient of ethylene gas to form tun

199 tical rings-shaped fractal metasurface using tungsten metal.

200 tendril surfaces, but tendrils were all BCC tungsten metal.

201 ms are addressed by introducing a mixture of tungsten microparticles dispersed within a LM matrix (LM

202 assette was introduced into callus cells via tungsten microparticles, and stable transformants were s

203 Tungsten microwires with nanoscale tips are insulated ex

204 -density polyethylene (HDPE) moderation, and tungsten moderation.

205 In tungsten monoboride (WB), the boron atoms are linked in

206 In this article, we fabricate chromium and tungsten nano-antennas and demonstrate that they can han

207 We have grown tungsten nanotendrils at low (50 eV) and high (12 keV) H

208 cribed, which applies high voltage between a tungsten nanotip and a metal plate to generate a plasma

209 t laser with solid-density, micrometer-sized tungsten needles.

210 strate the synthesis of Pt shell on titanium tungsten nitride core nanoparticles (Pt/TiWN) by high te

211 Tungsten nitrido complexes of the form WN(NR2)3 [R = com

212 the superhard metals, the highest boride of tungsten--often referred to as WB4 and sometimes as W(1-

213 ns of aromatic ligands eta(2)-coordinated to tungsten or molybdenum and the use of these reactions in

214 ith 1T' structure, namely, 1T'-MX2 with M = (tungsten or molybdenum) and X = (tellurium, selenium, or

215 m, manganese, iron, cobalt, molybdenum (Mo), tungsten, or rhenium.

216 ue by studying Li-ion insertion in hexagonal tungsten oxide (h-WO(3)) nanorods during chronoamperomet

217 Tantalum-doped tungsten oxide (Ta-WO x )/conjugated polymer multilayers

218 surfaces by electrodeposition of nanoporous tungsten oxide (TO) films.

219 ng the growth of titanium oxide (TiO(2)) and tungsten oxide (WO(3)) thin films, as examples.

220 by a porous shell growing at the surface of tungsten oxide and shielding the wire surface from flowi

221 is article, we study three different niobium-tungsten oxide crystallographic shear phases (Nb(12)WO(3

222 py and atomic force microscopy revealed that tungsten oxide has a porous structure.

223 the fabrication of thick, vertically aligned tungsten oxide nanochannel layers, with pore diameter of

224 ure-function relationships in electrochromic tungsten oxide nanorods.

225 important structural promotional effect that tungsten oxide offers for the SCR reaction by V(2) O(5)

226 The functionalized tungsten oxide sensor was highly efficient in the captur

227 g of vancomycin on interdigitated electrodes/tungsten oxide sensor.

228 Niobium-tungsten oxide shear structures host small amounts of lo

229 using gold interdigitated electrodes onto a tungsten oxide thin film.

230 Tungsten oxide was functionalized with vancomycin, a gly

231 By integrating a thin layer of tungsten oxide within the anode, which serves as a rapid

232 contrast to what happens in materials (like tungsten oxide) susceptible to ionic electromigration an

233 n confirmed the formation of polycrystalline tungsten oxide.

234 e report an approach to synthesize molecular tungsten-oxide-based pentagonal building blocks, in a ne

235 those of the parent imido derivative and its tungsten oxo analogue.

236 Treating 3 with acid chlorides provides the tungsten oxo chloride species [CF3-ONO]W(O)Cl (4) and di

237 lowed by migratory insertion to generate the tungsten-oxo alkylidene 2.

238 Despite the importance of the heterogeneous tungsten-oxo-based olefin metathesis catalyst (WO(3)/SiO

239 ious carbonyl-containing substrates provides tungsten-oxo-vinyl complexes upon oxygen atom transfer.

240 We report the colloidal synthesis of an ~3 tungsten-oxygen (W-O) layer thick (~1 nm), two-dimension

241 n-rich environments allows highly nonwetting tungsten particles to mix into LMs.

242 Furthermore, the performance of different tungsten period-thicknesses in radiation tolerance is sy

243 ompare thermal radiation from a micro-cavity/tungsten photonic crystal (W-PC) and a blackbody, which

244 ardment under tokamak-relevant conditions on tungsten plasma-facing materials in a magnetic fusion en

245 in characterizing the mechanical behavior of tungsten polycrystalline samples with ion-irradiated sur

246 illa was marked with a radiodense mixture of tungsten powder and temporary cement.

247 Tungsten preferentially occupies tetrahedral and block-c

248 ress on the sample volume and ruby, gold and tungsten pressure gauges were used.

249 allium (Ptrend = 0.13), 2.18 (1.51-3.15) for tungsten (Ptrend < 0.01), and 1.46 (1.09-1.96) for urani

250 tion with the Drude radiator outperforms the tungsten radiator, dominated by frustrated modes, only f

251 nium-182 in mantle domains with high hafnium/tungsten ratios, were created during the first ~50 milli

252 ific ABC-type transporter tupABC genes under tungsten-replete conditions.

253 itation to collect particles on the tip of a Tungsten rod, and subsequently, by flowing liquid over t

254 s in stereoretentive olefin metathesis using tungsten, ruthenium, and molybdenum catalysts are presen

255 metal in an ambient of ethylene gas to form tungsten semicarbide (W2C) thin films on top of p-type s

256 able materials (e.g., magnesium, molybdenum, tungsten, silicon, germanium, silicon dioxide, silicon n

257 ost promising elemental materials, including tungsten, silicon, graphite, diamond and graphene, for p

258 ree dialkylamines from monomeric and dimeric tungsten species.

259 of aldehyde oxidoreductase aor and represses tungsten-specific ABC-type transporter tupABC genes unde

260 A hollow tungsten sphere was interrogated to evaluate the respons

261 The absolute configuration of the tungsten stereocenter in TpW(NO)(PMe3)(eta(2)-benzene) c

262 n ultra-thin bilayer of copper and amorphous tungsten suboxide, which derives its remarkable optical

263 Characterization of the hafnium-tungsten systematics ((182)Hf decaying to (182)W and emi

264 cused attention on the supply chains of tin, tungsten, tantalum, and gold (3TG), specifically those o

265 The model estimates the upper bound of tin, tungsten, tantalum, and gold use within ICT products to

266 Alloys of tungsten tetraboride (WB4) with the group 4 transition m

267 Tungsten tetraboride alloys with a variable concentratio

268 Tungsten tetraboride is an inexpensive, superhard materi

269 ign future compounds stable in the adaptable tungsten tetraboride structure.

270 ce that crystallize in the same structure as tungsten tetraboride.

271 , nanochannels, nanopores) on metals such as tungsten that up to now were regarded as very difficult

272 Similar to beta-tantalum and beta-tungsten, the sputter-grown V films also have a high res

273 ions of irradiated water targets showed that tungsten thicker than 1.4 mm resulted in fewer photons a

274 Alternatively, for a constant tungsten thickness, more power was deposited in the targ

275 Both layers were grown on a sharp tungsten tip by chemical vapor deposition (CVD) in a ste

276 anning tunnelling microscopy with a standard tungsten tip.

277 kel, molybdenum, ruthenium to palladium, and tungsten to platinum in the periodic table.

278 the spin texture in iron/nickel bilayers on tungsten to show that chiral domain walls of mixed Bloch

279 sisting of oxidative addition and subsequent tungsten-to-oxygen silyl migration in the tungsten(IV) s

280 the structural and electronic properties of tungsten trioxide (WO3) surfaces interfaced with an IrO2

281 classical but inert transition metal oxide, tungsten trioxide, to be an efficient electrocatalyst fo

282 on of ultrafine- and nanocrystalline-grained tungsten under conditions similar to those in a reactor,

283 We find tin and tungsten use in automobiles to be 3-5 times higher than

284 Most molybdenum(VI) and tungsten(VI) dioxoazides were fully characterized by the

285 Molybdenum(VI) and tungsten(VI) dioxodiazide, MO2(N3)2 (M=Mo, W), were prep

286 A series of novel molybdenum(V) and tungsten(VI) oxoazides was prepared starting from [MOF4

287 Most molybdenum(V) and tungsten(VI) oxoazides were fully characterized by their

288 ray photoelectron spectroscopy, the as-grown tungsten(VI) sub-oxide was identified as monoclinic W18O

289 In this regard, two Tungsten (W) based non-periodic chalcogenide flakes (sul

290 ly tested on short-lived molybdenum (Mo) and tungsten (W) isotopes to the preparation of a carbonyl c

291 lds on previous studies on military-relevant tungsten (W) to more thoroughly explore environmental pa

292 ading candidate for plasma-facing materials, tungsten (W), in future nuclear fusion reactors.

293 igh melting points such as chromium (Cr) and tungsten (W).

294 a recent study on 3000 appm helium-implanted tungsten (W-3000He), we hypothesized helium-induced irra

295 The optimal thickness of tungsten was 1.4 mm for both the simulated and the measu

296 direction were achieved by scanning a 4 mum tungsten wire target.

297 Gold tungsten wires (O: 50 mum) coated with polyethylenimine

298 phological transformations of the surface of tungsten wires in a specially designed electrochemical c

299 nd bis-terphenyl complexes of molybdenum and tungsten with general composition M2(Ar')(O2CR)3 and M2(

300 By contrast, substitution of tungsten with tellurium induces redox stability, directi