ライフサイエンスコーパス: cytochrome c

1 lations of the half reaction of reduction of cytochrome c.

2 tRNA but is regulated by the redox state of cytochrome c.

3 es decorated on multiwalled carbon nanotubes/cytochrome c.

4 tide exchange on Apaf-1 following binding of cytochrome c.

5 a: hydrogen peroxide, mitochondrial DNA, and cytochrome c.

6 induce cell death through direct release of cytochrome c.

7 an enhanced ability to transfer electrons to cytochrome c.

8 c, as compared with those with nondetectable cytochrome c (11% versus 1%; P<0.001).

9 l mortality than patients with nondetectable cytochrome c (6% versus 1%; P<0.001).

10 isotopes at the fundamental distribution of cytochrome c(+8) (m/z approximately 1549) were nearly ba

11 by DESI-MS, were 100% for melittin, 100% for cytochrome c, 90% for myoglobin, and 65% for bovine seru

12 gly, D62-DPPC acyl chains were unaffected by cytochrome c accumulation, while cardiolipin showed majo

13 The resulting cleavage coverage of cytochrome c almost matched data provided by high-resolu

14 mbrane potential loss, increase of cytosolic cytochrome c and Bax levels, decrease of Bcl-2 levels an

15 er resolution images of individual proteins (cytochrome C and BSA) as well as of protein complexes (h

16 e used as a biosensor for directly detecting cytochrome c and carbohydrate antigen 199 in air after t

17 apoptosis, as evidenced by early release of cytochrome c and caspase 3/7 activation.

18 ated Bid at Asp-52 increasing the release of cytochrome c and caspase-3 activation, and thus creating

19 ly activated Bax and increased activities of cytochrome c and caspase-9 and -3 that, in turn, led to

20 Upon binding to cytochrome c and dATP, Apaf-1 oligomerizes into a heptam

21 turing activation of caspase 3/7, release of cytochrome c and loss of cell membrane integrity.

22 Cytochrome c and other apoptotic factors are released fr

23 Cytochrome c and p53-related apoptosis mechanisms were i

24 ures of the formation of the complex between cytochrome c and SET/TAF-Ibeta.

25 accepts electrons with similar efficiency to cytochrome c and that the cell has strategies to coordin

26 of mitochondrial activity by phosphorylated cytochrome c and to develop novel therapeutic approaches

27 (flavoprotein, succinate dehydrogenase, and cytochrome c) and the synthesis and activity of key deni

28 Bax expression, a disturbed distribution of cytochrome c, and cleaved caspase-3 positive staining in

29 how a reduction of mitochondrial components, cytochrome c, and cytochrome b.

30 in blocking apoptosis by reduction of ferric cytochrome c, and gentle tuning of NO concentration in t

31 CRALBP, cytochrome C, and GNB3 showed that the RPE interdigitati

32 apped, translated into a solution containing cytochrome c, and monitored for 3-NBS leakage.

33 esults constitute the molecular mechanism of cytochrome c- and dATP-mediated activation of Apaf-1.

34 y electrons that would normally be passed to cytochrome c are donated directly to O2.

35 gment-elevation AMI patients with detectable cytochrome c, as compared with those with nondetectable

36 The resulting model gives insights into cytochrome c binding, nucleotide exchange and conformati

37 Compared with reduced cytochrome c, oxidized cytochrome c binds to tRNA with a weaker affinity, which

38 novel fluorescence assay, we show here that cytochrome c binds to tRNA with an affinity comparable w

39 a novel and unexpected protein required for cytochrome c biogenesis in this pathogen.

40 1207 are involved in, but not essential for, cytochromes c biogenesis.

41 oss section (CCS), akin to that observed for cytochrome c but proceeding more smoothly.

42 erobic electron acceptors include oxygen and cytochrome c, but an acceptor that can function under an

43 electrons coming from NADH and ubiquinol to cytochrome c, but it is also capable of producing signif

44 Here we mimic phosphorylation of cytochrome c by replacing tyrosine 48 with p-carboxy-met

45 Cytochrome c can acquire peroxidase activity when it bin

46 It was recently shown that cytochrome c can induce pore formation in cardiolipin-co

47 e for the extended lipid anchorage model for cytochrome c/cardiolipin binding.

48 (CcP)], suggesting both ascorbate (Asc) and cytochrome c (Cc) peroxidase activity.

49 ESI-QTOF-MS technique, formation of glycated cytochrome C containing up to 12 glucose moieties were o

50 In the oxidized state, this tetraheme cytochrome c contains three hemes with axial His/Met lig

51 ria differed primarily at a Raman biomarker, cytochrome c, corresponding to a bacteroid-specific term

52 Biomolecule cytochrome c (Cty c), a small molecule of a chain of ami

53 rving as respiratory electron shuttle, ferri-cytochrome c (cyt c) acts as a peroxidase; i.e., it cata

54 ns and ER stress as shown by increased HSP60/Cytochrome C (Cyt C) and CHOP-ATF3 levels respectively.

55 d, catalytic circuit based on photosystem I, cytochrome c (cyt c) and human sulfite oxidase (hSOX).

56 cribe advancements in sensing technology for cytochrome c (cyt c) detection, at point-of-care (POC) a

57 CRALBP and cytochrome C (Cyt C) immunolabeling revealed that hyperr

58 vine serum albumin (BSA), lysozyme (lyz) and cytochrome c (cyt c) in singular and competitive manner

59 It is well known that cytochrome c (Cyt c) is a crucial death regulator that t

60 Cytochrome c (cyt c) is a small soluble heme protein cha

61 Cytochrome c (Cyt c) is an important biomarker in cell l

62 Cytochrome c (Cyt c) is commonly used as intrinsic bioma

63 cytochrome c synthase (HCCS) is required for cytochrome c (cyt c) maturation and therefore respiratio

64 The multifunctional protein cytochrome c (cyt c) plays key roles in electron transpo

65 has been suggested that the alkaline form of cytochrome c (cyt c) regulates function of this protein

66 s of the spontaneous reversible unfolding of Cytochrome c (Cyt c) under native conditions have led to

67 Globular proteins, such as cytochrome c (cyt c), display an organized native confor

68 Cytochrome c (cyt c), required for electron transport in

69 hieved using redox cofactors namely oxidized cytochrome-c (Cyt-c) and Co-enzyme-Q (Co-Q) immobilized

70 The mesh is functionalized with cytochrome-c (cyt-c) and incorporated as a working elect

71 as an oligopeptide stopper, we have employed cytochrome C (CytC) as a protein stopper to produce the

72 The combined use of cytochrome c (CYTc) loss-of-function mutants and respira

73 tion (MOMP) via BAK and BAX oligomerization, cytochrome c (cytc) release, and caspase activation are

74 polarization of mitochondria, and release of cytochrome c, demonstrating its important role as an ant

75 onality: The phosphomimetic mutation impairs cytochrome c diffusion between respiratory complexes, en

76 after three initial reports of NECD from the cytochrome c dimer complex, no further evidence of the e

77 y 20-fold larger than the previously studied cytochrome c dimer.

78 hrome c indicate that formation of mammalian cytochrome c dimers in vivo would require catalysis.

79 e cofactors (hemes b and copper for CcoN and cytochromes c for CcoO and CcoP) were present within the

80 e detection of apoptosis based on release of cytochrome c from mitochondria in lysates human embryoni

81 Escherichia coli cells harbouring wild-type cytochrome c from Rhodothermus marinus (Rma cyt c) were

82 ution, we enhanced the catalytic function of cytochrome c from Rhodothermus marinus to achieve more t

83 ases are often activated upon the release of cytochrome c from the mitochondria, which is promoted by

84 , which serves as the axial heme ligand when cytochrome c functions as an electron carrier.

85 and release of apoptosis-inducing factor and cytochrome c Furthermore, this protection was mediated b

86 Cytochrome C had multiple charges in non-glycated state,

87 Serum cytochrome c had no diagnostic utility for AMI (area und

88 ect electrochemistry and electrocatalysis of cytochrome c immobilized on the MWCNTs-TiN composite mod

89 e basal portion of the RPE, as identified by cytochrome C immunoreactivity, and that the hyporeflecti

90 Mitochondria were preserved as indicated by Cytochrome c immunostaining in the spinal cord, which ma

91 Encapsulation of oxidized horse cytochrome c in 1-decanoyl-rac-glycerol/lauryldimethylam

92 ax pore facilitates future study of releases cytochrome C in atomic detail.

93 e of the cell covered biosensor by releasing Cytochrome C in cytoplasm.

94 The distribution pattern of cytochrome c in individual cells was used as a measure o

95 cytochrome P450 but fully active in reducing cytochrome c In the DeltaGly-141 mutants, the backbone a

96 d had greater amounts of cytosolic mtDNA and cytochrome c, increased apoptosis, and more IL-1beta sec

97 association kinetics for yeast versus equine cytochrome c indicate that formation of mammalian cytoch

98 models of the OMM, is investigated to probe cytochrome c-induced permeability.

99 depicts a low barrier for the permeation of cytochrome C into the Bax C-terminal mouth, with the pat

100 collision cross sections of native-like, 7+ cytochrome c ions increase monotonically from 15.1 to 17

101 How cytochrome C is released from the mitochondria to the cy

102 Specifically, cytochrome c is shown to be translocated into cell nucle

103 decreased activity with cytochrome P450 and cytochrome c It formed a flexible loop, which transientl

104 hanges in mitrochondrial membrane potential, cytochrome c leakage, activation of family of caspases,

105 The glycated species of cytochrome C, lysozyme, and beta-casein formed during gl

106 Cytochrome c [M + 5H](5+) ions present in one conformer

107 (NANOG, MYOD), antibodies, native proteins (cytochrome C), magnetic nanoparticles (MNPs), and nuclei

108 ologous, nucleus-, and mitochondrion-encoded cytochrome c maturase systems.

109 bacteria, including Rhodobacter capsulatus, cytochrome c maturation (Ccm) is carried out by a membra

110 in these PPR proteins resulted in defective cytochrome c maturation and activation of mitochondrial

111 suggesting loss of the entire mitochondrial cytochrome c maturation pathway from Ophioglossum.

112 e, with a low energy barrier, the release of cytochrome C may be readily achieved through energy fluc

113 The Collision Cross Section (CCS) of cytochrome c measured with the TMIMS is in agreement wit

114 ork for understanding the molecular basis of cytochrome c-mediated blocking of SET/TAF-Ibeta, which s

115 Mitochondrial biogenic (cytochrome c, mitochondrial transcription factor A), mor

116 The more extended [M + 7H](7+) cytochrome c monomer presents as two conformers undergoi

117 Cytochrome c nitrite reductases perform a key step in th

118 owed that the information on the chromophore cytochrome c obtained by resonance SIRM at 532 nm excita

119 y, we analyzed Cu delivery to the cbb3 -type cytochrome c oxidase (cbb3 -Cox) of Rhodobacter capsulat

120 Cytochrome c oxidase (CcO) catalyzes the reduction of ox

121 on of the electron transport chain component cytochrome c oxidase (CcO) in cancer progression.

122 Cytochrome c oxidase (CcO) is a transmembrane protein th

123 Cytochrome c oxidase (CcO) is the last electron acceptor

124 The enzyme cytochrome c oxidase (CcO) or complex IV (EC 1.9.3.1) is

125 Cytochrome c oxidase (CcO) reduces oxygen to water and u

126 Proton pumping A-type cytochrome c oxidase (CcO) terminates the respiratory ch

127 Cytochrome c oxidase (CcO), the terminal enzyme in the e

128 T is assumed to rely on photon absorption by cytochrome c oxidase (CCO), the terminal enzyme in the m

129 Biogenesis of cytochrome c oxidase (CcO), the terminal enzyme of the m

130 ctor of the mitochondrial respiratory enzyme cytochrome c oxidase (CcO).

131 particular the cytochrome bc1 (complex III)-cytochrome c oxidase (complex IV) supercomplex (termed I

132 present study, we found that the decrease in cytochrome c oxidase (COX) activity was ascribable to a

133 alized respiratory terminal oxidases (RTOs), cytochrome c oxidase (Cox) and cytochrome bd quinol oxid

134 itochondrial protein with essential roles in cytochrome c oxidase (COX) assembly and the regulation o

135 frequently associated with cardiomyopathy is cytochrome c oxidase (COX) deficiency caused by mutation

136 Cytochrome c oxidase (COX) was initially purified more t

137 Copper is required for the activity of cytochrome c oxidase (COX), the terminal electron-accept

138 Cytochrome c oxidase (COX), the terminal enzyme of the m

139 sed mitochondrial iron loading and levels of cytochrome c oxidase (COX), which led to mitochondrial d

140 tes to fail in the assembly of mitochondrial cytochrome c oxidase (COX).

141 ction by measuring H2O2, lipid peroxidation, cytochrome c oxidase activity and mitochondrial ATP.

142 s occur in mild hypoxia, where mitochondrial cytochrome c oxidase activity is unimpaired, suggesting

143 synthase activity was lower (P < 0.0001) and cytochrome c oxidase activity per Mt unit was higher (P

144 Cytochrome c oxidase activity was significantly reduced

145 lls, for example, mitochondrial respiration, cytochrome c oxidase activity, and ATP production.

146 l density, mDNA/nDNA ratio), and functional (cytochrome c oxidase activity, ATP synthesis rate) marke

147 ned AMP-dependent kinase activation improved cytochrome c oxidase activity, rescued the motor phenoty

148 Cytochrome c oxidase activity, uncoupling protein 1 expr

149 itochondrial respiratory chain complex IV or cytochrome c oxidase activity.

150 he respiratory chain by up-regulation of the cytochrome c oxidase activity.

151 tected the activity of mitochondrial enzymes cytochrome c oxidase and aconitase in differentiating NS

152 tected the activity of mitochondrial enzymes cytochrome c oxidase and aconitase.

153 e bc1 complex in the absence of a functional cytochrome c oxidase and identify a supercomplex indepen

154 pression of ATP synthase's catalytic domain, cytochrome c oxidase and its tyrosine phosphorylation, m

155 al fragment of Rcf2 associate with monomeric cytochrome c oxidase and respiratory chain supercomplexe

156 biochemical deconvolution cascade suggested cytochrome c oxidase as the potential target of IPE clas

157 The mitochondrial cytochrome c oxidase assembles in the inner membrane fro

158 Our analyses show that Oms1 participates in cytochrome c oxidase assembly by stabilizing newly synth

159 present in the promoter of the mitochondrial cytochrome c oxidase assembly gene (SCO2), which is crit

160 dicate that KLF6-dependent regulation of the cytochrome c oxidase assembly gene is critical for maint

161 Here we isolate a cytochrome c oxidase assembly intermediate in preparator

162 Cytochrome c oxidase assembly requires the synthesis of

163 the COX1 mRNA is coupled to the assembly of cytochrome c oxidase by a mechanism that involves Mss51.

164 phism fingerprinting of the protein-encoding cytochrome c oxidase ccoN gene.

165 otein synthesis but rather have a problem in cytochrome c oxidase complex (COX) assembly.

166 Deficiencies of cytochrome c oxidase complex IV, which reduces O2 in mit

167 x1, Cox2, and Cox3, comprise the core of the cytochrome c oxidase complex.

168 ociated with electron and proton transfer in cytochrome c oxidase could, in principle, be used to dis

169 th MICOS disassembly, abnormal cristae, mild cytochrome c oxidase defect, and sensitivity to glucose

170 ble reduction of oxygen to bound peroxide at cytochrome c oxidase determining the net flux.

171 Fluorophore-labeled cytochrome c oxidase displayed a similar increase when r

172 Proton transfer in cytochrome c oxidase from the cellular inside to the bin

173 Proton transfer in cytochrome c oxidase from the cellular inside to the bin

174 The ba3-type cytochrome c oxidase from Thermus thermophilus is a memb

175 an 844 base pair region of the mitochondrial Cytochrome c oxidase gene, present at approximately 1 pp

176 elevated expression of several mitochondrial cytochrome C oxidase genes, suggesting increased aerobic

177 argeting short (127-314 bp) fragments of the cytochrome c oxidase I (CO1) DNA barcode region were dev

178 Here, metabarcoding of cytochrome c oxidase I (COI) region of mitochondrial DNA

179 in expression of the mitochondrially encoded cytochrome C oxidase I (MTCO1), complex I activity, and

180 techniques based on two mitochondrial genes (cytochrome c oxidase I and 16S rRNA) we prove the existe

181 nd decreased levels of mitochondrial complex cytochrome c oxidase I/IV and lower ATP levels.

182 atomistic molecular dynamics simulations of cytochrome c oxidase in an explicit membrane-solvent env

183 e a is an essential cofactor for function of cytochrome c oxidase in the mitochondrial electron trans

184 on function (Q) of the redox center CuA from cytochrome c oxidase is attained by tuning the accessibi

185 on of the protonation rate at the surface of cytochrome c oxidase is found when the lipid area surrou

186 rmore, a reaction step that in the wild-type cytochrome c oxidase is linked to simultaneous proton up

187 The O-->E intermediate of cytochrome c oxidase is the first redox state in its cat

188 ong with a correlation between the number of cytochrome c oxidase operons and heterotrophic or diazot

189 Defects in mitochondrial cytochrome c oxidase or respiratory chain complex IV (CI

190 unravel the use of the mitochondrial marker cytochrome c oxidase subunit 1 (coxI) as barcode for Lon

191 in a stretch of 22 identical amino acids in cytochrome c oxidase subunit 1 and NADH dehydrogenase su

192 e KRIPP1 knockdown, A/U-tailed mRNA encoding cytochrome c oxidase subunit 1 declined concomitantly wi

193 voltage-dependent anion channel (VDAC), and cytochrome c oxidase subunit 4 (COX IV).

194 Two DNA barcode regions, namely cytochrome c oxidase subunit I (COI) and cytochrome b (c

195 sed on a single mitochondrial locus, such as cytochrome c oxidase subunit I (COI).

196 in the mtDNA [NADH dehydrogenase 6 (ND6) and cytochrome c oxidase subunit I (COI)] or nuclear DNA [ad

197 tures) over a 6-mo period were identified by cytochrome c oxidase subunit I barcoding (>2-mm mobile o

198 For the second objective, mitochondrial cytochrome c oxidase subunit I sequences of 16 individua

199 Pyrosequencing of genetic marker, COI (cytochrome c oxidase subunit I) and subsequent sequence

200 ichiometric imbalance between mitochondrial (cytochrome c oxidase subunits 1 and 2) and nuclear (succ

201 t the unusual sensitivity of skeletal muscle cytochrome c oxidase to sulfide poisoning in ethylmaloni

202 pressions of mediators of energy metabolism (cytochrome c oxidase) and mediators of neuronal activity

203 Conditional deletion of cytochrome c oxidase, the terminal enzyme in the respira

204 , whereas mice deficient in the synthesis of cytochrome c oxidase, which have reduced COX, were prote

205 d inhibition are significantly attenuated in cytochrome c oxidase-deficient mice.

206 ions in individual muscle fibres with 20% of cytochrome c oxidase-deficient myofibres accumulating tw

207 (2+) centres of soluble guanylate cyclase or cytochrome c oxidase.

208 m by association of the bc1 complex with the cytochrome c oxidase.

209 e a biosynthesis and/or transfer to maturing cytochrome c oxidase.

210 ation by potently inhibiting the heme-copper cytochrome c oxidase.

211 tner of Cox17 in transferring copper ions to cytochrome c oxidase.

212 ated MT-CO2, the mtDNA-encoded subunit II of cytochrome c oxidase; and (3) reduced spare respiratory

213 ol-cytochrome c reductase; cyt. bc1) and IV (cytochrome c oxidase; CytcO).

214 Muscle studies showed global cytochrome-c oxidase deficiency in all patients tested a

215 the oxidation state of mitochondrial enzyme cytochrome-c-oxidase (oxCCO) have the potential to yield

216 Cytochrome c oxidases of facultative members of the comm

217 cbb3-type cytochrome c oxidases, which catalyze the terminal step

218 Compared with reduced cytochrome c, oxidized cytochrome c binds to tRNA with a

219 Ubiquinol cytochrome c oxidoreductase (bc1 complex) serves as an i

220 es the Rieske iron-sulfur protein subunit of cytochrome c oxidoreductase (complex III of the electron

221 e, the flexible pore may selectively aid the cytochrome C passage.

222 ndrial respiration via the energy-conserving cytochrome c pathway in both strains, the mutant was una

223 idopsis (especially after restriction of the cytochrome c pathway) but cannot compensate for the lack

224 re, we report the 1.5-A crystal structure of cytochrome c peroxidase (CCP) compound I (CmpI) using da

225 A member of class I heme peroxidases [TcAPx-cytochrome c peroxidase (CcP)], suggesting both ascorbat

226 Microbial cytochrome c peroxidases (Ccp) have been studied for 75

227 Although cytochrome c phosphorylation-in particular, at tyrosine

228 The resulting oxygenation of cardiolipin by cytochrome c provides an early signal for the onset of a

229 When the vesicle-associated cytochrome c Raman spectrum is compared with a spectrum

230 Cytochrome c recognizes the tertiary structural features

231 ytochrome bc1 :aa3 consists of a menaquinone:cytochrome c reductase (bc1 ) and a cytochrome aa3 -type

232 In this work, cytochrome c reductase (CcR) biofunctionalized self asse

233 c stimuli and increases the NO synthesis and cytochrome c reductase activities of eNOS, thereby enhan

234 fide bond cross-link caused a >/=95% loss of cytochrome c reductase activity that was reversible with

235 cient to explain the stimulation of both the cytochrome c reductase and NO synthase activities of eNO

236 function of the subunit b of the menaquinone:cytochrome c reductase.

237 tween mitochondrial complexes III (ubiquinol-cytochrome c reductase; cyt. bc1) and IV (cytochrome c o

238 tRNA binding both facilitates cytochrome c reduction and inhibits the peroxidase activ

239 Superoxide generation was measured by cytochrome C reduction in the presence and absence of N-

240 ene (SCO2), which is critical for preventing cytochrome c release and activation of the intrinsic apo

241 Bid interaction at mitochondria, suppressing cytochrome c release and apoptosis.

242 chondrial outer membrane (MOM), which causes cytochrome c release and apoptosis.

243 7 and mitochondrial translocation of Bax and cytochrome c release but not c-Jun N-terminal kinase act

244 lium to ketamine resulted in apoptosis, with cytochrome c release from mitochondria and significant s

245 against the accumulation and toxicity (i.e. cytochrome c release from mitochondria) of intracellular

246 trinsic apoptosis inducer, c-FLIP suppressed cytochrome c release from mitochondria.

247 Rifampicin also inhibited cytochrome c release from the mitochondria and caspase 3

248 ther confirmed by mitochondrial swelling and cytochrome c release induced by Ca(2+) overload.

249 process that correlates with LFG blockage of cytochrome c release to the cytosol and caspase activati

250 respiration, and ATP production and induced cytochrome c release, although the lack or inactivation

251 e oxygen species generation, Bax activation, cytochrome C release, and apoptosis.

252 o the MOM bypasses the need for Mff to evoke cytochrome c release, and occludes the effect of SENP3 o

253 tage-thresholds of mPT opening inferred from cytochrome c release, but intact cells showed no differe

254 reactive oxygen species (ROS) production and cytochrome c release, indicating that lumican-induced di

255 fragmentation, mitochondrial depolarization, cytochrome c release, reactive oxygen species generation

256 K homo-oligomer formation thereby preventing cytochrome c release-mediated mitochondrial dysfunction.

257 ndrial translocation of BAX and BAX-mediated cytochrome c release.

258 ic interference with cristae remodelling and cytochrome c release.

259 XIAP occurs independently of Drp1-regulated cytochrome c release.

260 spases activation, Bcl-xL sequestration, and cytochrome c release.

261 both Drp1 binding to Mff and stress-induced cytochrome c release.

262 not lead to cerebral caspase-3 activation or cytochrome-c release.

263 biochemical characterization, uncovered how cytochrome c releases the autoinhibition of Apaf-1 throu

264 At multivariable analysis, cytochrome c remained a significant independent predicto

265 ns of the inner mitochondrial membrane where cytochrome c resides.

266 The observation that tRNA binds to cytochrome c revealed a previously unexpected mode of ap

267 Cytochrome c serum concentrations do not have diagnostic

268 We prospectively assessed cytochrome c serum levels at hospital presentation in 2

269 pathological changes and increased levels of cytochrome c, Smac/DIABLO and AIF in the cytosol while t

270 ubunits: the catalytic CcoN subunit, the two cytochrome c subunits (CcoO and CcoP) involved in electr

271 ccurs due to mutations in the human gene for cytochrome c that results in enhanced mitochondrial apop

272 nted, display remodelled cristae and release cytochrome c, thereby driving apoptosis.

273 imilar to the previously reported results on cytochrome c, these fragment ions form near residues kno

274 Rather than inert passing of the cytochrome C through a rigid pore, the flexible pore may

275 insight in atomic detail into the release of cytochrome C through Bax oligomeric pores.

276 r binding affinity of rebaudioside A towards cytochrome c, thus supporting their host-guest relations

277 on distance of 11 nm, and delivering reduced cytochrome c to complex IV.

278 occurs through the release of mitochondrial cytochrome c to the cytosol, where it promotes activatio

279 ranslocates to the mitochondria and oxidizes cytochrome c to yield H2O2, which in turn initiates cell

280 these findings provide new insights into the cytochrome c-tRNA interaction and apoptotic regulation.

281 have been studied only for the formation of cytochrome c-type hemoproteins.

282 obilities of single multiply charged ions of cytochrome c, ubiquitin, myoglobin, and bovine serum alb

283 reactivity of the reduced FMN domain toward cytochrome c; (v) response to calmodulin binding; and (v

284 Direct electron transfer of cytochrome c was achieved on the CNT film electrode.

285 A muFFE separation of myoglobin and cytochrome c was also demonstrated on a 3D-printed devic

286 g 753 AMI patients in the prognostic cohort, cytochrome c was detectable in 280 (37%) patients.

287 The direct electron transfer by cytochrome c was further supported by HOMO-LUMO calculat

288 s compound is a non-competitive inhibitor of cytochrome c When tested in cellular assays, ADDA 5 dose

289 the SH3 domain, dihydrofolate reductase, and cytochrome c, where the transparent window vibrational p

290 tion and inhibits the peroxidase activity of cytochrome c, which is involved in its release from mito

291 ICR MS are explored with a tryptic digest of cytochrome c with both ECD and IRMPD as fragmentation mo

292 on proceeds through selective interaction of cytochrome c with cardiolipin, resulting in protein unfo

293 To verify selective interactions of cytochrome c with cardiolipin, these experiments were re

294 In this work, the interaction of cytochrome c with cardiolipin-containing phospholipid ve

295 effects of confinement on the interaction of cytochrome c with cardiolipin.

296 ion of a domain-swapped dimer of yeast iso-1-cytochrome c with the detergents, CYMAL-5, CYMAL-6, and

297 nerated by enzymatic digestion of the equine cytochrome c with trypsin.

298 different proteins (Trp-cage, myoglobin, and cytochrome c) with folding time constants that differ by

299 Reduction of cytochrome C would change the ionic state of the cells m

300 that only a modest deformation of monomeric cytochrome c would suffice to form the hydrocarbon bindi