ライフサイエンスコーパス: Co

1 Co nanoparticles of 4.3 nm and 9.5 nm diameters were syn

2 Co Prism is obtained in one self-assembly step that orga

3 Co-adaptation involves trafficking of unliganded sensors

4 Co-administration of TGF-beta shRNA and HBV dual-shRNA d

5 Co-administration with front-line antibiotics enhanced t

6 Co-application of HpSlyD and FK506 led to significant re

7 Co-applied with amiodarone, L-ala,SP prodrugs increased

8 Co-assembly of binary systems driven by specific non-cov

9 Co-based catalysis proceeds through five steps: C-H bond

10 Co-blockade of both CCL9 and IL-23 abrogates Myc-induced

11 Co-crystal structure analysis revealed a dual active sit

12 Co-crystal structures of the highest affinity binder rev

13 Co-crystal structures show that vegetable-sourced azetid

14 Co-crystal structures with CeuE showed that the inter-pl

15 Co-crystallization of K(+) and Li(+) ions with gamma-cyc

16 Co-crystallography and molecular dynamics simulation ana

17 Co-culture with CD8(+) T cells upregulates NCC in mouse

18 Co-cultured diatoms also downregulated lipid biosynthesi

19 Co-cultures maintained postprandial glucose concentratio

20 Co-culturing P301S tau-expressing neurons with E4-expres

21 Co-delivery of both autoantigen and dexamethasone increa

22 Co-delivery of both chemotherapy drugs and siRNA from a

23 Co-doped ZnO (ZnCoO) has been considered for these appli

24 Co-doping of strontium and iron into PrBaCo2O5+delta is

25 Co-electroporation with a constitutively active form of

26 Co-evolution of sexually dimorphic reinforcement systems

27 Co-expressing ectopic SoxN with svb rescued diverse dent

28 Co-expressing KCNQ1 with the KCNE2 beta-subunit shows th

29 Co-expression network analyses integrated all data and i

30 Co-expression network analysis also identified gene modu

31 Co-expression network analysis identified three expressi

32 Co-expression network analysis of mRNA with miRNA, lncRN

33 Co-expression network analysis revealed 20 modules of hi

34 Co-expression networks estimated from single transcripto

35 Co-expression of 4-1BB and LAG-3 was seen on a majority

36 Co-expression of ATGL reverses the changes in LD phenoty

37 Co-expression of barttin increased protein abundance and

38 Co-expression of Bordetella nadC with the nadB and nadA

39 Co-expression of both WT and mutant CSPalpha cause a blo

40 Co-expression of cathepsin B and cathepsin B-resistant m

41 Co-expression of CaValpha2delta1 with CaVbeta/CaValpha1

42 Co-expression of Gbetagamma, but not constitutively acti

43 Co-expression of Kras(G12V) and Braf(D631A) in mouse lun

44 Co-expression of the AP-2 alpha subunit enhanced the Nef

45 Co-expression of TLR5 receptor and agonist in Mobilan-in

46 Co-expression with AQP4 facilitated the cell swelling in

47 Co-housing of these mice generated animals that had hybr

48 Co-immunoprecipitation and biochemical fractionation dat

49 Co-immunoprecipitation and proximity ligation assay (Duo

50 Co-immunoprecipitation experiments demonstrated that Cx4

51 Co-immunoprecipitation experiments suggested that these

52 Co-immunoprecipitation studies with epitope-tagged PP1c

53 Co-implantation of 4T1 cells with CYP4A10(high) macropha

54 Co-implantation of CAFs and tumor cells with either inta

55 Co-implantation of M2-like macrophages (MLCs) promoted G

56 Co-incubation of differentiating myoblasts with rIL-15 a

57 Co-incubation with LC managed to prevent these alteratio

58 Co-ligation of SIRPalpha with CD47 abrogates nanocluster

59 Co-localised images of diaphragm after TGF-alpha overexp

60 Co-localization of APE1 with PARP1 on DNA was found capa

61 Co-localization of circuit elements decreases computatio

62 Co-localization of LFABP and cathepsin B was observed in

63 Co-localization of the SIRT2-TPPP/p25 complex on the mic

64 Co-located with this feature, we observed intense Fe and

65 Co-melts based on blends of two different glass-forming

66 Co-morbidity was evaluated using electronic health recor

67 Co-occurrence patterns obtained via network analysis imp

68 Co-occurring competition and facilitation has never been

69 Co-occurring genetic events have been shown to drive car

70 Co-occurring salamanders had similar microbiome structur

71 Co-primary end points were DFS and OS, based on imaging

72 Co-primary endpoints were progression-free survival and

73 Co-primary endpoints were progression-free survival in p

74 Co-registration of ion images to topographic images prov

75 Co-registration of the data cubes from these three hyper

76 Co-registration of the GSK1265744 ion images with immuno

77 Co-segregation of this expression phenotype with the Lan

78 Co-stimulation with CSE, IL-17A and aeroallergens furthe

79 Co-transcriptional R-loops could aggravate such conflict

80 Co-translational insertion and folding is thus spontaneo

81 Co-translational secondary folding of nascent chains ins

82 Co-treatment of phenformin enhances the effect of anti-P

83 Co-trimoxazole prophylaxis reduces mortality among HIV-i

84 atalytic reduction of CO2 -to-CO over ZrPP-1-Co is also proposed.

85 al phase with composition of Al-15at%Ni-15at%Co.

86 ation polymer (CP), 3, prepared from S = 1/2 Co(TPP), 1 (TPP = 5,10,15,20-tetraphenylporphyrin dianio

87 the decay of the asymmetric [Ni(III) (mu-O)2 Co(III) ](2+) core through aromatic hydroxylation reacti

88 how that new clusters of the type M[(mu-OH)2 Co(NH3 )4 ]3 (NO3 )6 (M=Al, Ga) can be synthesized using

89 elation is observed between log(TOF) vs E1/2(Co(III/II)) for the different cobalt complexes (TOF = tu

90 to enable adsorbent of heavy metals (Cd(2+), Co(2+), Cu(2+), Hg(2+), Ni(2+), and Pb(2+)) from aqueous

91 "bottom-up" techniques using Ni(2+), Cu(2+), Co(2+), and hexaaminobenzene.

92 2+), Pb(2+), Hg(2+), Mn(2+), Ni(2+), Zn(2+), Co(2+) and Cd(2+) at room temperature.

93 A novel 3D Co-Nx |P-complex-doped carbon grown on flexible exfoliat

94 radiation sources, including (241)Am and (57)Co radiation.

95 8(eta(6)-iPrC6H4Me)8(dhbq)4(CoTPyP)2][OTf]8 (Co Prism) (dhbq = 2,5-dihydroxy-1,4-benzoquinato, OTf =

96 A Co(III) -catalyzed three-component coupling of C(sp(2) )

97 oxidized Co(IV)2 state may be captured in a Co(III)2(IV)2 cubane.

98 EPR spectrum of 7 suggests the presence of a Co(I) bound to a radical anionic ligand.

99 lective insertion of an alkynylboronate to a Co-B bond of a cobalt boryl complex to form a vinylcobal

100 diamagnetic five-coordinate S-bound adduct, Co(TPP)(S-py-DTDA), 3a.

101 esiding at two oxidation levels above an all-Co(III) resting state.

102 h the reaction between GO (size 240nm) and Co(2+) in basic solution at room temperature.

103 where elongation of the axial Co-CN bond and Co-NIm bond on a 110 fs time scale is followed by corrin

104 coupling between monodomain BiFeO3 films and Co overlayer that is intrinsic (i.e., not dependent on d

105 ce of DNA, the cognate metal ions Ni(II) and Co(II), or the noncognate metal ion Zn(II).

106 s of the ferritin nodes (Zn(II), Ni(II), and Co(II)) and the synthetic dihydroxamate linkers, which y

107 in helix 1 was suppressed in the Ni(II)- and Co(II)-bound RcnR complexes, in particular in the peptid

108 and flows of Ag, Au, Pd, Ru, Dy, La, Nd, and Co in automotive embedded EEE.

109 zation dynamics of thin layers of Fe, Ni and Co driven by picosecond duration pulses of circularly po

110 fect is approximately the same in Fe, Ni and Co, but the optical spin-transfer torque is strongly enh

111 kinetically relevant step on Ni-Co, Ni, and Co clusters, but their specific reaction paths vary.

112 oth systems, incorporating Cu(II) as well as Co(II) redox centers, exhibited highest sensitivity towa

113 nance hybrid repeat unit best formulated as [Co(TPP)](0.5+) hemication (Co(2.5+)) bound to a dithiadi

114 Four clusters were identified: (1) Pb, As, Co, Cd and Cr; (2) Cu and Al; (3) Fe and (4) Zn.

115 er the diseasome are available on the web at Co=MorNet: bioinformatics.mit.bme.hu/UKBNetworks.

116 ial direction, where elongation of the axial Co-CN bond and Co-NIm bond on a 110 fs time scale is fol

117 enges associated with using Experience-based Co-design in this setting.

118 Experience-based Co-design incorporating: 150h of nonparticipant observat

119 Experience-based Co-design is a useful approach for encouraging collabora

120 The bioinspired Co-salophen-IL complex has been synthesized and immobili

121 he diamagnetic six-coordinate purple N-bound Co(III)(TPP)(N-py-DTDA(-))(O horizontal lineSMe2) comple

122 de,hydroxide clusters to NU-1000 followed by Co(II) ion deposition, yielding a series of NU-1000-supp

123 s trial provides no clear evidence that Care Co-ordinators (largely nursing staff) using an oral heal

124 of oxidic cobalt oxygen-evolving catalysts (Co-OECs).

125 crystals and the incorporation of catalytic Co nanoparticles was the spontaneous formation of graphi

126 ination of twenty-nine elements (Ag, As, Ce, Co, Cs, Cu, Eu, Fe, Ga, Gd, La, Lu, Mn, Mo, Nb, Nd, Ni,

127 ts and, here, we study a highly active Co3O4/Co(OH)2 biphasic electrocatalyst on Si by means of opera

128 trolling Se as well as vanadium (V), cobalt (Co), nickel (Ni), zinc (Zn), and aluminum (Al) concentra

129 liquid tagged cobalt-salophen metal complex (Co-salophen-IL) immobilized on electrochemically reduced

130 ate development of tetrahedrally coordinated Co(2+) forming at the expense of metallic Co((0)).

131 toward their neocortical target by corridor (Co) neurons that act as axonal guideposts.

132 s a localized, antiferromagnetically coupled Co(IV)2 dimer.

133 y used pyridine and quinolone classes for Cp*Co(III) -catalyzed C(sp(3) )-H functionalization and the

134 vide mechanistic insight into a series of Cp*Co(III)- and Cp*Rh(III)-catalyzed directed C-H bond func

135 A mild, oxidant-free, and selective Cp*Co(III) -catalyzed amidation of thioamides with robust d

136 und in the concentrations of Ag, As, Ba, Cu, Co, Fe, K, Mg, Mn, Mo, Na, Ni, Se, Sb, U and Th (p<0.05,

137 trace elements and heavy metals (Cd, Cr, Cu, Co, Al, Zn, As, Pb and Fe) in 22 varieties of cooked ric

138 hloroethane affords bright green diamagnetic Co(III)(TPP)(N-py-DTDA(-)), 3b, with multiple MLCT bands

139 nance Raman spectrum of 2 reveals a diatomic Co-O vibration band at 770 cm(-1), which provides the co

140 ckage Bayes Factor approach for Differential Co-expression Analysis (BFDCA) for DC analysis.

141 ade 1, 2, or 3a follicular lymphoma; Eastern Co-operative Oncology Group performance statuses of 0-2;

142 rs) in high-income Organization for Economic Co-operation and Development countries.

143 EU candidate, and Organisation for Economic Co-operation and Development countries.

144 the average of the Organisation for Economic Co-operation and Development; ever-increasing transfer o

145 ng activity also for the hydrogen evolution (Co-N-C) and carbon dioxide reduction (Fe-N-C and Mn-N-C)

146 Among the systems examined, Co/CeO2 (111) exhibits the best performance and Cu/CeO2

147 Dissolution of CP 3 in DMSO favors Co-S bond heterolysis, yielding the diamagnetic six-coor

148 ase SmCo rod-shaped grains and soft-phase Fe(Co) equiaxed grains with a high fraction ( approximately

149 omposition of MClx or M(NO3)x (where M = Fe, Co, Ni, Cu, or Zn) to form uniform, amorphous films of m

150 (III) )(mu-O)2 (M(III) )'](2+) (M=Ni; M'=Fe, Co, Ni and M=M'=Co) complexes with beta-diketiminate lig

151 lytically active M-N x moieties (M = Mn, Fe, Co, Ni, Cu).

152 ndant transition metals that include Mn, Fe, Co, Ni, Cu, early transition metals (Ti, V, Cr, Zr, Nb a

153 bimetallic nanocrystals (PdM, M = V, Mn, Fe, Co, Ni, Zn, Sn, and potentially extendable to other meta

154 rresponding structural isomers, with the Fe, Co, and Ni variants showing more than double the selecti

155 Co, MnAl/Fe-Co, MnBi/Fe-Co, and BaFe12O19/Fe-Co composites for characterization of their sigma s and

156 Ultrafast spincrossover is studied in Fe-Co Prussian blue analogues using a dissipative quantum-m

157 We synthesized Sm2Co7/Fe-Co, MnAl/Fe-Co, MnBi/Fe-Co, and BaFe12O19/Fe-Co composites for chara

158 ynthesized Sm2Co7/Fe-Co, MnAl/Fe-Co, MnBi/Fe-Co, and BaFe12O19/Fe-Co composites for characterization

159 We synthesized Sm2Co7/Fe-Co, MnAl/Fe-Co, MnBi/Fe-Co, and BaFe12O19/Fe-Co composit

160 igands, and kinetic studies show that the Fe/Co heterobimetallic species activates C-H bonds much mor

161 The spin on a ferromagnetic Co surface can interact with the asymmetric orbital on a

162 Finally, Co-inhibition of CXCR4 and CXCR2 is more effective in re

163 can serve as suitable radical precursors for Co(II)-based metalloradical catalysis (MRC).

164 These complexes have formal Co(-I) oxidation states, representing the only coordinat

165 highly associated for COPD in Weighted Gene Co-Expression Network Analysis (WGCNA) was enriched for

166 tes that undergo diene insertion to generate Co-pi-allyl species.

167 urements supporting the hypothesis that Co-H-Co contributes to the spin polarization of the conductio

168 ensity mapping reveals the formation of Co-H-Co, in agreement with theoretical predictions.

169 tic nature of ZnCoO by the formation of Co-H-Co.

170 k (MOF) to produce stable and safe-to-handle Co(III) materials featuring terminal Co(III)-halogen bon

171 , Mn, Mo, Ni, Se, Th and U), common heather (Co, K, Mg, Na, V), sage (Ag, Cd, Cu), and bearberry (Ba,

172 st formulated as [Co(TPP)](0.5+) hemication (Co(2.5+)) bound to a dithiadiazolide hemianion (py-DTDA(

173 ctronic structure of primarily heterogeneous Co, Ni, and Mn based water oxidation catalysts are revie

174 spersed Re/Co/gamma-Al2O3 catalyst with high Co surface area per gram of catalyst was exposed to indu

175 HMG Co-A reductase negatively regulates eNOS, and the PLD2-d

176 scued by cholesterol supplementation and HMG Co-A reductase inhibition.

177 ree cholesterol, causing upregulation of HMG Co-A reductase, the rate-limiting enzyme in cholesterol

178 along and against current flow direction in Co/Pt double stack wires with Ta capping.

179 croscopy to the interpretation of the GMI in Co-rich microwires.

180 ditions and giant magneto-impedance (GMI) in Co-rich melt-extracted microwires is key to optimizing t

181 ced leakage current caused by the increasing Co concentration.

182 es we introduce CLIC, CLustering by Inferred Co-expression.

183 [(13-TMC)Co(IV)(O)](2+) (2) by irradiating [Co(II)(13-TMC)(CF3SO3)](+) (1) in the presence of [Ru(II

184 oS2 monolayer sheets decorated with isolated Co atoms that bond covalently to sulfur vacancies on the

185 e valence assignment of the cubane as [Mn(IV)Co(III)3].

186 ssive result ranks among the best from known Co-based OER catalysts under the same conditions.

187 M(III) )'](2+) (M=Ni; M'=Fe, Co, Ni and M=M'=Co) complexes with beta-diketiminate ligands in electrop

188 Meanwhile, Co-doping in FeOOH nanostructures constitutes a desirabl

189 ies with a series of metal/ceria(111) (metal=Co, Ni, Cu; ceria=CeO2 ) surfaces indicate that metal-ox

190 ed Co(2+) forming at the expense of metallic Co((0)).

191 2 (CoxNi4-xO4-dpk) series as the first mixed Co/Ni-cubane WOCs.

192 ements (Li, Be, B, Mg, Al, P, K, Ca, Cr, Mn, Co, Ni, Cu, Zn, As, Se, Sr, Mo, Cd, Sn, Sb, Ba, Hg, Pb,

193 textural features of spherical MoS2 and MoS2/Co particles.

194 The double-shelled NC@Co-NGC nanocages well integrate the high activity of Co-

195 La and 17 other elements (Na, K, V, Ni, Co, Cu, Zn, Ga, As, Se, Mo, Cd, Sn, Sb, Ba, W, and Pb),

196 as the sole kinetically relevant step on Ni-Co, Ni, and Co clusters, but their specific reaction pat

197 the possibility of existence of nonmagnetic Co in the earth's core under high pressure.

198 e related to the population of the Fe(3+) -O-Co(3+) bonds, while the suppressed ferroelectric polariz

199 he formation of high-energy interfacial Mn-O-Co species and high oxidation state CoO, from which elec

200 ncies that are created local to the observed Co-S-Mo interfacial sites.

201 ncement upon comparison of the activities of Co Prism and CoTPyP, respectively.

202 anocages well integrate the high activity of Co-NGC shells into the robust NC hollow framework with e

203 Further characterization of Co-MFU-4l by X-ray absorption spectroscopy provided evid

204 e, tris-pyrazolylborate-like coordination of Co(II).

205 The coordination of Co-Nx active centers hybridized with that of neighboring

206 re about 1.2-1.4 times the normal density of Co.

207 y were applied for solid phase extraction of Co(II) as an example of heavy metals.

208 ron density mapping reveals the formation of Co-H-Co, in agreement with theoretical predictions.

209 magnetic nature of ZnCoO by the formation of Co-H-Co.

210 t 400 nm were achieved with incorporation of Co oxygen evolution catalysts.

211 ivities can be understood by the increase of Co(4+) sites relative to Co(3+) and by the shift of acti

212 lend strong credence to the intermediacy of Co(IV)-O species in cobalt-catalysed oxidation of organi

213 experiments that support the intervention of Co-hydride intermediates that undergo diene insertion to

214 ded under mild conditions in the presence of Co(OAc)2.4H2O as the catalyst with AgNO2 utilized as the

215 d intense Fe and Mn mobilization, removal of Co, Ni and Zn and found evidence for the concurrent rele

216 Reoxidation of Co((0)) is more pronounced close to the outlet of the re

217 Fischer-Tropsch synthesis (FTS), the size of Co nanoparticles (NPs) dictates to a high degree catalys

218 of small Co NPs is followed by spreading of Co oxide that leads to the formation of CoxAlyOz phases.

219 of 7 in pyridine leads to the isolation of [Co(I)2(bis-(OMe)salophen)Na2Py4][Na(cryptand)]2, 8.

220 A new, effective catalytic system based on Co(acac)2 has been developed for [6 + 2] cycloaddition o

221 roscopy indicate that methane dissociates on Co/CeO2 (111) at temperatures as low as 300 K-generating

222 n Co(2+) /CeO2 (111), and to only 0.05 eV on Co(0) /CeO2-x (111).

223 e methane activation barrier from 1.07 eV on Co(0001) to 0.87 eV on Co(2+) /CeO2 (111), and to only 0

224 rrier from 1.07 eV on Co(0001) to 0.87 eV on Co(2+) /CeO2 (111), and to only 0.05 eV on Co(0) /CeO2-x

225 e rate exhibits a first-order dependence on [Co] and [AcOH], but no dependence on [O2] or [Fc*].

226 Only Co had an I/O abundance ratio >1 but its indoor sources

227 o the benchmark Pt/C catalyst, the optimized Co@C-800 (carbonized at 800 degrees C) exhibited high ox

228 Moreover, the optimized Co@C-800 also showed enhanced electrocatalytic activity

229 h 5 mm, but at this level Mn(2+), Ni(2+), or Co(2+) can be growth-inhibitory, and magnesium fluoride

230 2 generation from the Co(III)-hydride and/or Co(II)-hydride species.

231 d on dipyrromethene complexes with Cu(II) or Co(II) and a dipodal anion receptor functionalized with

232 tallaisoxazolin-5-ones containing Ir, Rh, or Co are investigated using density functional theory.

233 en a cobalt coordination site and to oxidize Co(II) to Co(III), as evidenced by operando X-ray absorp

234 contained both near-zerovalent and oxidized Co species, in addition to reduced and oxygenated P spec

235 This doubly oxidized Co(IV)2 state may be captured in a Co(III)2(IV)2 cubane.

236 Terminal cobalt(IV)-oxo (Co(IV)-O) species have been implicated as key intermedia

237 ed to a single population in Peatlands Park, Co.

238 In particular, Co-like neurons participate in specific nuclei of the be

239 e cobalt(III) dihydride boryl 4-Me-((iPr)PNP)Co(H)2BPin (1) and the air-stable cobalt(II) bis(pivalat

240 able cobalt(II) bis(pivalate) 4-Me-((iPr)PNP)Co(O2C(t)Bu)2 (2) compounds were effective and exhibited

241 h-BN films grown on unpolished and polished Co foils.

242 Reported herein are two new polymorphic Co-MOFs (CTGU-5 and -6) that can be selectively crystall

243 Here, a highly dispersed Re/Co/gamma-Al2O3 catalyst with high Co surface area per gr

244 solution in equilibrium with the respective [Co(I)(salophen)M] complexes.

245 al arrays at the atomic scale for the S-Mo-S(Co) 2D- layers that conform the spherically shaped catal

246 ce on the catalytic properties of the S-Mo-S(Co) system.

247 These maps showed Co NPs to be predominantly present within the intestine

248 We propose that reoxidation of small Co NPs is followed by spreading of Co oxide that leads t

249 within 20 fs after photoexciting a low-spin Co(3+) ion by an iron-to-cobalt charge transfer.

250 been validated by reconstructing two stacked Co-Ni-Ga single crystals, and by comparison with a grain

251 Moreover, a higher-ordered structure, Co-Ni-Cu-O, was found to follow the behavior of lower or

252 etiminate-supported cobalt(I) complex L(tBu) Co with O2 gives a rare example of a side-on dioxygen co

253 sive evidence for the presence of a terminal Co-O bond.

254 -handle Co(III) materials featuring terminal Co(III)-halogen bonds.

255 anisotropy (VCMA) in Au/[DEME](+) [TFSI](-) /Co field-effect transistor heterostructures is addressed

256 We unexpectedly found that Co neurons contribute to striatal-like projection neuron

257 measurements supporting the hypothesis that Co-H-Co contributes to the spin polarization of the cond

258 The Co metal and oxides remain as nanoclusters (less than 5

259 The Co-OECs are active when residing at two oxidation levels

260 perando X-ray absorption spectroscopy at the Co K-edge.

261 number of sites at the interface between the Co and Mo atoms on the MoS2 basal surface and we ascribe

262 gy transfer or paramagnetic quenching by the Co(II) species and (2) excited-state electron transfer t

263 n printed carbon electrode (SPE) to form the Co-salophen-IL/ERGO/SPE nonenzymatic biosensor.

264 nometallic pathway of H2 generation from the Co(III)-hydride and/or Co(II)-hydride species.

265 and an ellipticity of 0.35 degrees from the Co-based array.

266 atoms with respect to the Co lattice in the Co-NGC structure is a vital rate-determining step to ach

267 ugh fine-tuned edge-site environments of the Co centers.

268 The major part of the Co film has the usual density and magnetic moment.

269 adicals 1 and 2 involves coordination of the Co(II) ion by a py-DTDA ring sulfur atom, orbitally favo

270 xidized MOF causes homolytic cleavage of the Co(III)-halogen bonds, reduction to Co(II), and concomit

271 c potential, with complete conversion of the Co(OH)2 and partial conversion of the spinel Co3O4 phase

272 A significant part of the CHx formed on the Co(0) /CeO2-x (111) catalyst recombines to yield ethane

273 Specifically, the Co-doped iron oxy-hydroxides (Co0.54Fe0.46OOH) show the

274 tivates C-H bonds much more rapidly than the Co/Co homobimetallic analogue.

275 It is believed that the Co concentration dependent magnetic properties are relat

276 dox-active, and calculations reveal that the Co ions behave as the reservoir for electrons, but their

277 We demonstrate that the Co(III)2(IV)2 cubane may be electrochemically generated

278 ated hollow-site C atoms with respect to the Co lattice in the Co-NGC structure is a vital rate-deter

279 a bond metathesis reaction, during which the Co inserts into the C-H bond while the oxygen abstracts

280 It affords either the [Co(I)((R)salophen)K] complexes or the [Co(II)2(bis-salop

281 the [Co(I)((R)salophen)K] complexes or the [Co(II)2(bis-salophen)M2] (M = Li, Na) dimers that are pr

282 Moreover, we present the [Co(II)xNi4-x(dpy{OH}O)4(OAc)2(H2O)2](ClO4)2 (CoxNi4-xO4-

283 der photocatalytic conditions show that the {Co(II)4O4} core undergoes oxidation to Co(III) or higher

284 eneration of a mononuclear non-haem [(13-TMC)Co(IV)(O)](2+) (2) by irradiating [Co(II)(13-TMC)(CF3SO3

285 t coordination site and to oxidize Co(II) to Co(III), as evidenced by operando X-ray absorption spect

286 the {Co(II)4O4} core undergoes oxidation to Co(III) or higher valent states, which recover rather sl

287 g clinically significant tissue reactions to Co, Cr and Ti by analysing viable peri-prosthetic tissue

288 e of the Co(III)-halogen bonds, reduction to Co(II), and concomitant release of elemental halogens.

289 by the increase of Co(4+) sites relative to Co(3+) and by the shift of active oxygen 2p states.

290 -up, catalyst design should be restricted to Co NPs larger than 5.3 nm.

291 alent states, which recover rather slowly to Co(II).

292 s and (2) excited-state electron transfer to Co(III) species.

293 a highly active and reusable solid Zr12-TPDC-Co catalyst for the hydrogenation of nitroarenes, nitril

294 itatively oxidize coordinatively unsaturated Co(II) ions in a robust azolate metal-organic framework

295 An oxygen adatom and a vicinal Co-atom form a metal-oxygen site-pair that cleaves the C

296 Tungsten carbide cobalt (WC-Co) matrix nanocomposites reinforced with varying amount

297 , chemistry, and mechanical properties of WC-Co.

298 Weighted Co-expression Networks Analysis provided support to idea

299 ng D P , D B , D I and D M values occur when Co atoms are present in the MoS2 laminates, which promot

300 Each of these complexes, with Co(III/II) reduction potentials that span nearly 400 mV,

301 and with faster rates than is observed with Co(salophen) alone.