ライフサイエンスコーパス: carbide

1 ing Fe and Ni particles supported on silicon carbide.

2 w and measure stable crack growth in silicon carbide.

3 erfaces of few-nm thick germanium on silicon carbide.

4 cal SAM chemistry for generating the central carbide.

5 tural instability and amorphization of boron carbide.

6 tial similar to or exceeding that of silicon carbide.

7 hyl transfer and conversion to an iron-bound carbide.

8 ilicon and carbon faces of hexagonal silicon carbide.

9 table than a mixture of SiO2, C, and silicon carbide.

10 n epitaxial graphene on silicon-face silicon carbide.

11 uctors such as transition-metal nitrides and carbides.

12 antum dots and defects in diamond or silicon carbide(6-10), have emerged as promising candidates for

13 ZrC(1-x) (sub-stoichiometric zirconium carbide), a group IV transition metal carbide, is being

14 aman spectra of 2D alpha-Mo(2) C (molybdenum carbide), a promising member in MXene family, is conduct

15 ase synthesis route to phase-pure molybdenum carbide (alpha-MoC(1-x)) nanoparticles (NPs) in a contin

16 Pt) atomically dispersed on alpha-molybdenum carbide (alpha-MoC) enables low-temperature (150-190 deg

17 d layered gold (Au) clusters on a molybdenum carbide (alpha-MoC) substrate to create an interfacial c

18 The Mossbauer spectroscopy of iron carbides (alpha-Fe, gamma'-FeC, eta-Fe2C, zeta-Fe2C, chi

19 reaction of molybdenum with the SWNT to form carbide, also exhibited no Schottky barrier.

20 The electronic structures of Mo carbide and carbyne species were investigated quantum me

21 Silicon carbide and gallium nitride, two leading wide band gap s

22 s) which are observed in both the molybdenum carbide and nitride samples.

23 Reduction of Mo(IV) CO adducts of carbide and silylcarbyne species allowed for the spectro

24 ace reconstruction of single-crystal silicon carbide and study this process by high-resolution transm

25 tance and influence of both the interstitial carbide and the identity of the heteroatom on the electr

26 to the weak Mo C bonds in this interstitial carbide and the low formation energy of the carbon chain

27 s ratio governs the chemical behavior of the carbide and the properties of the admetal, up to the poi

28 While the fabrication of bulk high-entropy carbides and borides is well established, high-entropy n

29 in the deep Earth, involving Fe-C phases (Fe carbides and C dissolved in Fe-Ni metal).

30 s a basis for exploring a large family of 2D carbides and carbonitrides in electrochemical energy sto

31 two-dimensional (2D) early transition metal carbides and carbonitrides, called MXenes, was discovere

32 emonstrate the freestanding transition-metal carbides and graphene oxide hybrid membranes as high-per

33 2D transition metal carbides and nitrides (MXenes), a class of emerging nano

34 Transition metal carbides and nitrides (MXenes), a family of two-dimensio

35 , boron nitrides along with transition metal carbides and nitrides (MXenes).

36 Two-dimensional (2D) metal carbides and nitrides, called MXenes, have attracted gre

37 MXenes, two-dimensional (2D) metal carbides and nitrides, have attracted attention for appl

38 The family of two-dimensional (2D) metal carbides and nitrides, known as MXenes, are among the mo

39 Two-dimensional metal carbides and nitrides, known as MXenes, combine metallic

40 2D transition-metal carbides and nitrides, known as MXenes, have displayed p

41 2D transition metal carbides and nitrides, named MXenes, are attracting incr

42 ess presents an approach for construction of carbides and their subsequent applications.

43 activity among all four phases of molybdenum carbide, and is exceedingly stable in acidic solution.

44 als such as hexagonal boron nitride, silicon carbide, and others.

45 The identification of an analogous carbide, and thus an atomically homologous active site i

46 ivation on monofunctional catalysts (metals, carbides, and oxides) is challenging due to activity con

47 engths and show that the icosahedra in boron carbide are not as stable as anticipated.

48 and the stacking faults of the primary M7C3 carbide are observed by scanning electron microscopy (SE

49 Point defects in silicon carbide are rapidly becoming a platform of great interes

50 ene nanoribbons epitaxially grown on silicon carbide are single-channel room-temperature ballistic co

51 Bulk polycrystalline high-entropy carbides are a newly developed group of materials that i

52 and potential catalytic applications of iron carbides are also summarized.

53 Some primary M7C3 carbides are formed by layers of shell or/and consist of

54 precursor-free methods to prepare ultrathin carbides are lacking.

55 Novel iron carbides are particularly promising catalytic materials

56 ransition metal oxides, dichalcogenides, and carbides, are presented.

57 unattributed point defect centers in silicon carbide as a near-stacking fault axial divacancy and sho

58 nts for promoting methylidene formation from carbide as energetically viable relative to the heteroly

59 12 times better than conventional zirconium carbide at 2,500 degrees C).

60 we systematically explore all stable calcium carbides at pressures from ambient to 100 GPa using vari

61 on of slip systems in mono- and high-entropy carbides at room temperature.

62 s of S-adenosyl methionine (SAM) to insert a carbide atom and fuse two substrate [Fe-S] clusters form

63 In this study, we labeled the interstitial carbide atom with (14)C and (13)C isotopes and traced th

64 forcing and enhancing the wear resistance of carbide based materials.

65 n the surfaces and in the interiors of boron carbide based nanowires.

66 Herein, a highly durable and efficient carbide-based bifunctional catalyst consisting of iron-m

67 The discovery of a carbide-based surface able to activate methane at low te

68 ed from a cobalt-substituted bulk molybdenum carbide (beta-Mo(2)C:Co) through a two-step synthesis: f

69 A versatile method for achieving atomic carbide-bonded graphene networks on both metallic and no

70 ition on substrates and in situ formation of carbide bonds.

71 mpounds and applied to samples such as boron carbide, boric acid, carborane, and borosilicate glass.

72 extended to other metals to synthesize metal carbide, boride, and nitride coatings.

73 f making scalable ultrathin transition metal-carbide/boride/nitride using immiscibility of two metals

74 metal and main-group-element surface alloys: carbides, borides, and nitrides, which feature high stab

75 oscopy confirmed the formation of transition carbides by auto-tempering as well as the presence of re

76 theoretical calculations show that Fe and Si carbides can be significantly depleted in (13)C relative

77 The formation of carbides can significantly modify the physical and chemi

78 Our results show that the interstitial carbide cannot be exchanged upon turnover, nor can it be

79 Treatment of iron carbide carbonyl clusters [Fe(n) (mu(n) -C)(CO)(m) ](x)

80 anic product release, as evidenced by direct carbide carbonylation experiments.

81 achieved over a high-surface-area molybdenum carbide catalyst prepared by a temperature-programmed re

82 Additive-free films of this titanium carbide 'clay' have volumetric capacitances of up to 900

83 d U(2)C(2) is the first example of a uranium carbide cluster featuring two U centers bridged by a C=C

84 A non-isolated pentagon rule metallic carbide clusterfullerene containing a heptagonal ring, S

85 e classes of EMFs with nitride, sulfide, and carbide clusters and different metal atoms (Sc, Y, Ti).

86 veloping syntheses of biomimetic iron-sulfur-carbide clusters like FeMoco.

87 rication of vertically aligned CNS and metal carbide@CNS composites via a facile salt templating indu

88 e resulting vertically aligned CNS and metal carbide@CNS structures possess ultrathin walls, good ele

89 olimus-eluting DP-DES, or thin-strut silicon-carbide-coated BMS in 8 European centers.

90 Tungsten carbide cobalt (WC-Co) matrix nanocomposites reinforced

91 ents with enhanced properties over the metal carbides commonly used in cutting, drilling, and wear-re

92 nded to provide the first ever thiolato-iron-carbide complex: an analogous reaction with toluylsulfen

93 ynthesis of other micro/nanostructured metal carbides/composites from metal oxides/carbon precursors.

94 an be considered to be a novel form of boron carbide consisting of boron doped, distorted multiwalled

95 ction (EBSD) maps show that the primary M7C3 carbide consists of multiple parts.

96 Though some carbide-containing iron clusters are known, none yet hav

97 lybdenum-dependent nitrogenase is the unique carbide-containing iron-sulfur cluster called the iron-m

98 The semi-molten M7C3 carbide contains unmelted shell and several small-scale

99 cally have martensitic microstructures, high carbide contents, and various coatings to exhibit high h

100 al matrix with in-situ formation of chromium carbide (Cr7C3) at the CNT/copper (Cu) interface.

101 on process by transferring oxide crystals to carbide crystals, leading to the surface enrichment of a

102 micro-supercapacitors with embedded titanium carbide current collectors, fully compatible with curren

103 ry of crystallographic planes in these boron carbide datasets substantiates that crystallinity is mai

104 Novel nanostructured sulfur (S)-carbide derived carbon (CDC) composites with ordered mes

105 ition of proton and hydride to a terminal Mo carbide derived from CO.

106 were used to characterize ion adsorption in carbide-derived carbon (CDC) with two different average

107 ping on hydrophobicity of nanoporous silicon carbide-derived carbon (SiCDC), and investigate the unde

108 process for manufacturing strongly adhering carbide-derived carbon films and interdigitated micro-su

109 The result is a predominantly amorphous carbide-derived carbon, with a narrow distribution of mi

110 with electrodes composed of porous nanosized carbide-derived carbons (CDCs) and nonporous onion-like

111 tive catenation involves C-C coupling from a carbide-derived surface methylidene.

112 fracture energy for a bi-crystal of silicon carbide, diffusion bonded with a thin glassy layer.To im

113 structures, the observation of a H(2) MC(+) carbide dihydride structure implies that it is imperativ

114 ce of vibrational bands of a H(2) Ta(4) C(+) carbide dihydride structure over those indicative for a

115 the ground-state electron spin of a silicon carbide divacancy defect.

116 Joining the intermetallic and carbide domains together then provides substantial relie

117 (in the first 15 h) of the high-surface-area carbide during the reaction was ascribed to considerable

118 d atom probe tomography experiments on boron carbide elucidate an approach for characterizing the ato

119 a strategy to produce highly dispersed iron carbides embedded in a matrix of porous carbon.

120 d with an approximately 1,455-kelvin silicon carbide emitter.

121 For tungsten carbide - epoxy crystals we identify all angle all mode

122 ther nuclear fuel materials (e.g., nitrides, carbides, etc.) in the form of pellets, powders, and mic

123 ional catalyst consisting of iron-molybdenum carbide (Fe3 Mo3 C) and IrMn nanoalloys is demonstratred

124 perimental data up to core pressures on iron carbide Fe7C3, a candidate component of the inner core,

125 used in combination with an uncoated silicon carbide filter and report effects on emissions of polych

126 ween K1 and K2 and concurrently facilitating carbide formation via deprotonation of the initial carbo

127 -O cleavage as rate-determining steps toward carbide formation.

128 the initial growth period, the primary M7C3 carbide forms protrusion parallel to {} crystal planes.

129 t the synthesis and crystal structure of the carbide Gd(13)Fe(10)C(13).

130 y exposure ages of 40 large presolar silicon carbide grains extracted from the Murchison CM2 meteorit

131 Molybdenum carbide has been proposed as a possible alternative to p

132 ally been elucidated, and the discovery of a carbide has generated new questions and targets for coor

133 The unusual structure of these carbides has attracted much attention: C assumes a tetra

134 metallic ruthenium and a shell of ruthenium carbide have been synthesized by a mild and easy hydroth

135 Spin defects in silicon carbide have the advantage of exceptional electron spin

136 New two-dimensional niobium and vanadium carbides have been synthesized by selective etching, at

137 d to image key features such as microcracks, carbides, heat affected zone, and dendrites in a laser a

138 nt discovery of chemically ordered hexagonal carbides, i-MAX phases, we perform an extensive first-pr

139 -plasma sintered (Hf-Ta-Zr-Nb)C high-entropy carbide in a specific orientation during micropillar com

140 It is found that the primary M7C3 carbide in hypereutectic Fe-Cr-C alloy is irregular poly

141 ggests an essential role of the interstitial carbide in maintaining the stability while permitting a

142 rvations point to a role of the interstitial carbide in stabilizing the cofactor structure, although

143 As for our identification of the central carbide in the Fe-Mo cofactor, we employed Fe Kbeta vale

144 provided for the presence of an interstitial carbide in the Fe-V cofactor of Azotobacter vinelandii v

145 searched since the discovery of interstitial carbide in the FeMo cofactor of Mo-dependent nitrogenase

146 he incorporation of finely dispersed V-Mo-Nb carbides in a ferrite matrix.

147 d on the unique catalytic activities of iron carbides in CO(x) hydrogenation and HER and the correlat

148 The latter is produced by placing the carbides in HF, HCl or NaCl solutions and applying anodi

149 stic insights into the radical SAM-dependent carbide insertion concomitant with cofactor core formati

150 ters (designated K1 and K2) concomitant with carbide insertion into an [Fe(8)S(9)C] cofactor core (de

151 Previously, we proposed a carbide insertion pathway involving methyltransfer from

152 n, thereby refining the initial steps of the carbide insertion pathway.

153 Carbide insertion plays a pivotal role in the biosynthes

154 tains unmelted shell and several small-scale carbides inside, which further proves that the primary M

155 gregation of Mn-Si (intermetallic) and Mn-C (carbide) interactions in these structures can be underst

156 nduced transformation of diamond and silicon carbide into graphene suffers from metal contamination a

157 rected towards converting silicon or silicon carbide into other chemicals.

158 yl-L-methionine (SAM)-dependent insertion of carbide into the M cluster, the cofactor of the molybden

159 adical-based incorporation of methyl-derived carbide into the M cluster.

160 an essential role, concomitantly inserting a carbide ion and coupling two [Fe(4)S(4)] clusters to for

161 The carbide is a substitutional solid solution of Zr-Ti cont

162 Supported tungsten carbide is an efficient and vital nanomaterial for the d

163 This carbide is chemically stable in alkaline media and over

164 Cradle-to-gate, silicon carbide is estimated to require more than twice the ener

165 ered in this work, graphene grown on silicon carbide is found to be the most promising substrate for

166 ly charged silicon-vacancy centre in silicon carbide is immune to both drawbacks.

167 , which further proves that the primary M7C3 carbide is not an overall block.

168 ved that the coalescence of the primary M7C3 carbides is ascribed to the growing condition of the pro

169 conium carbide), a group IV transition metal carbide, is being considered for various high temperatur

170 dulation of ripples on both graphene-silicon carbide junctions.

171 blocks, cured and sectioned with a tungsten carbide knife to obtain mineralized bone sections for dy

172 operties of two-dimensional transition metal carbides known as MXenes.

173 2D transition metal carbides, known as MXenes, are transparent when the samp

174 ansion compared with the unstrained titanium carbide lattice.

175 MXenes combine 2D conductive carbide layers with a hydrophilic, primarily hydroxyl-te

176 results show that the presence of carbon or carbide-like species at the interface between the Ni clu

177 The laser-sculptured polycrystalline carbides (macroporous, ~10-20 nm wall thickness, ~10 nm

178 e ammonia nitridation of a parent core-shell carbide material (Pt/TiWC).

179 This work highlights the potential of using carbide materials to reduce the costs of hydrogen produc

180 ore metastable synthesis of boron-rich boron-carbide materials.

181 mma-UMo matrix, and across interfaces (e.g., carbide/matrix, grain boundary).

182 Consequently, tungsten carbide may be a promising catalyst in self-hydrating cr

183 e for this top-down mechanism based on metal carbide metallofullerenes M2C2@C1(51383)-C84 (M = Y, Gd)

184 demonstrate high-frequency multimode silicon carbide microdisk resonators and spatial mapping of the

185 nd characterization of two new intermetallic carbides: Mn16SiC4 (mC42) and Mn17Si2C4 (mP46).

186 o oxide species agglomerate and convert into carbided Mo nanoparticles.

187 Molybdenum carbide (Mo(2) C), a class of unterminated MXene, is end

188 ungsten carbide (WC) and molybdenum tungsten carbide (Mo(x)W(1-x)C) nanoparticles are highly active a

189 NC that is composed of ultrasmall molybdenum carbide (Mo2 C) nanoparticles embedded within nitrogen-r

190 g the non-precious metal material molybdenum carbide (Mo2C) as an active and selective catalyst for C

191 rect pattern method to manufacture ultrathin carbides (MoC(x), WC(x), and CoC(x)) on versatile substr

192 ganic sulfides or thiolate with interstitial carbide motifs, are reported.

193 ch improves the rate performance of titanium carbide MXene (Ti(3) C(2) T(x,) T(x) refers to -F, =O, -

194 Titanium carbide MXene (Ti3 C2 Tx ), in particular, has shown sig

195 foliated two-dimensional (2D) Ti3C2 titanium carbide (MXene) nanosheets.

196 es, conducting polymers, 2D transition metal carbides (MXene), and other transition metal dichalcogen

197 ps also control superconductivity of niobium carbide MXenes.

198 Two-dimensional transition metal carbides (MXenes) have attracted a great interest of the

199 2D transition metal carbides (MXenes) have been recently introduced as high-

200 l groups in two-dimensional transition-metal carbides (MXenes) open up a previously unexplored design

201 nides, and more recently 2D transition metal carbides (MXenes).

202 w that a dense uniform dispersion of silicon carbide nanoparticles (14 per cent by volume) in magnesi

203 enzene hydrogenation reactions on molybdenum carbide nanoparticles (MCNPs) in the process of in situ

204 High-temperature oxidation of silicon-carbide nanoparticles (nSiC) underlies a wide range of t

205 lex, the zinc prevents the formation of iron carbide nanoparticles and the SiO(2) template promotes t

206 s been developed for the preparation of iron carbide nanoparticles and their nanocomposites.

207 d to produce well-dispersed transition metal carbide nanoparticles as additives to enhance the perfor

208 trated the self-assembly of transition metal carbide nanoparticles coated with atomically thin noble

209 e report a novel anode electrocatalyst, iron carbide nanoparticles dispersed in porous graphitized ca

210 nowires can be alleviated by adding tungsten carbide nanoparticles to the metal core to arrive at wir

211 ons confirm the unique configuration of iron carbide nanoparticles with porous graphitized carbon.

212 lasses, polymers, metal nanoparticles, metal carbide nanoparticles, and carbon materials.

213 d to produce well-dispersed transition metal carbide nanoparticles.

214 Tungsten carbide nanorods (WC NRs) are demonstrated for the first

215 Silicon carbide nanowires (SiC NWs) have attracted intensive att

216 the amorphization of nanocrystalline silicon carbide (nc-SiC) by point defect accumulation.

217 re, the sculptured microstructures endow the carbide network with enhanced visible light absorption,

218 Ultrathin tantalum carbide, nitride, and boride are grown using chemical va

219 ass of two-dimensional (2D) transition metal carbides, nitrides and carbonitrides that have shown pro

220 2D transition metal carbides, nitrides, and carbonitides called MXenes have

221 Two-dimensional (2D) carbides, nitrides, and carbonitrides known as MXenes ar

222 d of a few atomic layers of transition metal carbides, nitrides, or carbonitrides.

223 Two-dimensional transition metal carbides/nitrides, known as MXenes, have been recently r

224 tic method could be a versatile route toward carbide NPs of varying size, composition, and phase, on

225 Surface carbides of cobalt and nickel are exceptionally stable,

226 The microdisks are made in a 500-nm-carbide on 500-nm-oxide thin-film technology that facili

227 the impact of the metal/carbon ratio in the carbide on the performance of the catalysts.

228 ipation limits in 4H monocrystalline silicon carbide-on-insulator (4H-SiCOI) mechanical resonators fa

229 erein, we show that two-dimensional titanium carbide or carbonitride nanosheets, known as MXenes, can

230 alized two-dimensional (2D) transition-metal carbides or MXenes: Sc2C, Ti2C, Ti3C2, V2C, Cr2C, and Nb

231 The influence of the iron carbide particle size of promoted and unpromoted carbon

232 These results demonstrate that the iron carbide particle size plays a crucial role in the design

233 ing an optimal dispersion of the active iron carbide phase when a metal organic framework is used as

234 ap enrichment in various morphologies of a U carbide phase, the adjacent gamma-UMo matrix, and across

235 ns of the surface energy of the same silicon carbide plane.

236 eport the directional amorphization in boron carbide polycrystals.

237 d on group IV-V transition metal borides and carbides possess melting points above 3000 degrees C, ar

238 ticle inclusions representative of oxide and carbide precipitates.

239 ated forms; hexagonal boron nitride; silicon carbide), rare earth, semimetals, transition metal chalc

240 ity can be associated with surface ruthenium carbide (RuC) species, which enable CO(2) activation and

241 al X-ray diffraction revealed that it is the carbide Sc2C2@C(2v)(9)-C86 with a planar, twisted Sc2C2

242 extending and revolving protrusion forms the carbide shell.

243 noparticles supported on graphite-rich boron carbide show a 50-100% increase in activity in acidic me

244 ium disilicide (U(3)Si(2)) fuel with silicon carbide (SiC) composite cladding is being considered as

245 Silicon carbide (SiC) exhibits excellent material properties att

246 Defects in silicon carbide (SiC) have emerged as a favorable platform for o

247 Silicon carbide (SiC) is a fascinating wide-band gap semiconduct

248 ed as sludge waste consisting of Si, silicon carbide (SiC) particles and metal impurities from the fr

249 e field-effect transistors (GFET) on silicon carbide (SiC) substrates by scanning a focused laser bea

250 Lattice distortions (LD) in 4H-silicon carbide (SiC) wafers were quantified using synchrotron X

251 measurement of the surface energy of silicon carbide single crystals.

252 bar increased 6-8-fold when the average iron carbide size decreased from 7 to 2 nm, while methane and

253 c amine system could be regenerated by using carbide slag as the regeneration agent and could still s

254 the inner layers of the material, ruthenium carbide species being located on the upper surface layer

255 raphene, monolayer graphene grown on silicon carbide substrate).

256 illars etched into a semi-insulating silicon carbide substrate.

257 single crystalline graphene grown on silicon carbide substrates to flexible polycarbonate track etche

258 ounts of precious metals on transition metal carbide substrates.

259 discuss opportunities for future research on carbide-supported metal surfaces.

260 irradiation triggers melting of the silicon carbide surface, resulting in a phase separation into a

261 that the metal ML-supported transition metal carbide surfaces exhibit HER activity that is consistent

262 table crystal structures in boron-rich boron-carbide system and provides a pathway for large-area syn

263 different chemistry takes place on our metal/carbide system.

264 and muB with a slope of 12.81 T/muB for iron carbide systems and that the proportionality constant ma

265 Two-dimensional transition metal carbides (termed MXenes) are a new family of compounds g

266 re significantly more endergonic on tungsten carbide than on platinum.

267 rt with carbon-both through the interstitial carbide that resides in the central cavity of its cofact

268 Herein, a 2D titanium carbide (Ti(3) C(2) ) MXene film with transparent conduc

269 strate two types of two-dimensional titanium carbide (Ti(3)C(2)T(x)) MXene inks, aqueous and organic

270 re, the metal atoms from the ternary layered carbides, Ti3 AlC2 , Ti2 AlC and Ti3 SiC2 (MAX phases).

271 by etching aluminium from titanium aluminium carbide (Ti3AlC2, a 'MAX' phase) in concentrated hydrofl

272 electrodes made of two-dimensional titanium carbide (Ti3C2, a member of the 'MXene' family), produce

273 rial properties of micrometer-thick titanium carbide (Ti3C2Tx) MXene membranes prepared by filtration

274 is of an ultra-high-temperature high-entropy carbide, (TiNbTaZrHf)C, via a facile electrochemical pro

275 water and C1 molecules over transition metal carbide (TMC) and metal-modified TMC surfaces and thin f

276 supported on cost-effective transition-metal carbides (TMCs) are studied to reduce the Pd usage and t

277 Transition-metal carbides (TMCs) exhibit catalytic activities similar to

278 Transition metal carbides (TMCs) have demonstrated outstanding potential

279 ow to exploit long-cell polytypes of silicon carbide to achieve strong coupling between transverse ph

280 single layer and bilayer graphene on silicon carbide to investigate lateral electronic structure vari

281 riuranium pentasilicide (U(3)Si(5)), uranium carbide (UC), U(20)Si(16)C(3), and uranium silicide (USi

282 We demonstrate that the amorphous silicon carbide ultramicroelectrode arrays (a-SiC UMEAs) provide

283 cific surface area due to nitridation of the carbide under the reaction conditions.

284 e in-suit growth process of the primary M7C3 carbide was observed by confocal laser microscope (CLM).

285 Carbon-supported tungsten carbide (WC) and molybdenum tungsten carbide (Mo(x)W(1-x

286 e different metallic nanoparticles, tungsten carbide (WC), silver (Ag) and copper (Cu), in combinatio

287 ise a range of compositions, including metal carbides (WC), sulfides (MoS2 ), phosphides (Ni5 P4 , Co

288 Results indicate the U carbides were formed during casting, rather than retaine

289 ining largely debris of silicon, and silicon carbide, which is a common cutting material on the slici

290 nt pathway was revealed for the insertion of carbide, which signifies a novel biosynthetic route to c

291 deposition (CVD) or via reduction of silicon carbide, which unfortunately relies on the ability to fo

292 -photon absorption (TPA) occuring in silicon carbide with either cubic or wurtzite structure.

293 we fabricate 1D nanobeam PCCs in 4H-silicon carbide with embedded silicon vacancy centers.

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

295 Ultrathin transition metal carbides with high capacity, high surface area, and high

296 rapping of hydrogen within the core of these carbides with quantitative composition profiles.

297 he metallic conductivity of transition metal carbides with the hydrophilic nature of their hydroxyl o

298 sional graphitic carbon nitride and titanium carbide (with MXene phase) nanosheets, display outstandi

299 Here we design and fabricate a carbide (Zr0.8Ti0.2C0.74B0.26) coating by reactive melt

300 ced thermomechanical properties of zirconium carbide (ZrC(x)) with sample purity and stoichiometry ar