ライフサイエンスコーパス: redox-active

1 ts N-terminal alpha helix domain and hosts a redox-active [2Fe-2S] cluster in its C-terminal cytosoli

2 e [2Fe-2S] clusters of mitoNEET close to the redox-active [2Fe-2S] cluster of anamorsin.

3 the importance of the oxidation state of the redox-active [4Fe4S] cluster in the DNA damage detection

4 se studies demonstrate the promising role of redox-active active ligands in promoting N-N bond cleava

5 exhibit stable operation in the presence of redox active additives.

6 d electron transfer (PCET) over a pathway of redox active amino acids (beta-Y122 --> [beta-W48] --> b

7 ron transfer (PCET) steps along a pathway of redox active amino acids (Y122beta <--> [W48beta?] <-->

8 d electron transfer (PCET) over a pathway of redox active amino acids spanning approximately 35 A and

9 Tyrosine is a conserved redox-active amino acid that plays important roles in he

10 It was shown to contain a redox active and acid labile [2Fe-2S] cluster which is l

11 confirms that the [4Fe-4S]H subsite is also redox active and as such an integral part of the H-clust

12 a facile way for the successful synthesis of redox active and bioengineering of reduced graphene oxid

13 s synthetic approaches to prepare functional redox-active and conjugated homopolymers as well as the

14 k copolymers form phase-separated iron-rich, redox-active and preceramic nanodomains in the solid sta

15 These cubanes are redox-active, and calculations reveal that the Co ions b

16 The Fe horizontal lineNNH2(+) complex is redox-active, and low-temperature spectroscopic data and

17 Diverse organisms secrete redox-active antibiotics, which can be used as extracell

18 e find that Pol delta bound to DNA is indeed redox-active at physiological potentials, generating a D

19 ribe a single-molecule junction comprising a redox-active, atomically precise cobalt chalcogenide clu

20 es of functional ligands based on photo- and redox-active backbones are presented.

21 50 degrees C using catalytic quantities of a redox-active benzoisothiazolone and a copper complex.

22 We demonstrate that incorporation of a redox-active benzoquinoid ligand into a one-dimensional

23 hypothesis of hydrogen atom transfer from a redox-active beta-diketonate ligand in the HAT step.

24 covers a range from -300 to +150 mV, TsdB is redox active between -100 and +300 mV, thus enabling ele

25 Here we report a redox active binary logic gate (RLG) which can store a "

26 shown that pyocyanin can be used as a rapid, redox-active biomarker for identifying Pseudomonas aerug

27 Metalation of the redox-active bridging ligand 2,5-dichloro-3,6-dihydroxy-

28 he use of a chiral amine catalyst, bearing a redox-active carbazole unit, which could rapidly reduce

29 Redox active catechol groups in melanins permit efficien

30 nductive holder as well as an accumulator of redox active centers on the surface of the electrode, an

31 Surface redox-active centres in transition-metal oxides play a k

32 he transition metal cations are the dominant redox-active centres, we find that the oxygen anions nea

33 n of particulate matter (PM) can result from redox-active chemicals, including iron and copper, but t

34 vorable arrangements of light-harvesting and redox-active chromophores in space.

35 EEI prepared with highly dispersed discrete redox-active cluster anions (50 ng of pure approximately

36 -response analysis showed that the amount of redox-active cobalt-species in the film is small, less t

37 hotooxidant with phenyldisulfide acting as a redox-active cocatalyst.

38 butyl azodicarboxylate (DBAD), are effective redox-active cocatalysts in Cu-catalyzed aerobic alcohol

39 , and they are typically used as oxidants or redox-active cocatalysts.

40 al micronutrient manganese (Mn) functions as redox-active cofactor in active sites of enzymes and, th

41 We then show how enzymes tune redox-active cofactors and recruit oxidants to improve t

42 heterocyclic metabolites that often serve as redox-active cofactors.

43 port a promising class of materials based on redox active colloids (RACs) that are inherently modular

44 The Lewis base catalyst was shown to form a redox-active complex with either the boronic esters or t

45 rafine particles (UFP, dp < 0.1-0.2 mum) are redox active components of PM.

46 Redox active components were identified in concentrated

47 However, DEDTC is a redox-active compound and it should be better evaluated

48 methylene blue (MB), a mitochondria-permeant redox-active compound that can act as an alternative ele

49 eight quinones, which are believed to be key redox active compounds within NOM, toward iron species,

50 ectron equivalents limiting the transport of redox-active contaminants.

51 We report a pair of fluorinated, redox-active copper complexes for potential use as (19)F

52 transmetallate with copper ions, leading to redox-active copper complexes that induced lysosomal mem

53 Catalysis is driven by the redox-active copper ion, and in most cases, SODs also ha

54 ate their utility through the ability of one redox-active copper(II)-containing strand to distinguish

55 late), featuring coordinatively unsaturated, redox-active Cr(2+) cation sites, was synthesized and in

56 Notably, Ap44mSe forms redox active Cu complexes that target the lysosome to in

57 micarbazones "hijack" lysosomal Pgp and form redox-active Cu complexes that mediate LMP and potentiat

58 characterization and bioelectrocatalysis of redox-active cyclodextrin-coated nanoparticles.

59 the rate constant of the oxidation of PDI's redox-active Cys residues (Cys(53) and Cys(397)) by hydr

60 at peroxynitrite preferentially oxidizes the redox-active Cys residues of PDI to the corresponding su

61 Furthermore, substitution of the redox active cysteine pair C52 and C57 in the N terminus

62 However, Mia40 has one redox-active cysteine pair, resulting in ambiguity about

63 the small Lewis acidic NiO clusters and the redox-active CZ support, which also stabilizes the small

64 s slowed by more than 50% in the presence of redox-active dissolved organic matter (DOM, 10 mgC L(-1)

65 and that this transition is controlled by a redox active disulfide that responds to the presence of

66 transfer reducing equivalents from FAD to a redox-active disulfide bridge, which further reduces dis

67 (AhpF), catalyzes the rapid reduction of the redox-active disulfide center of the antioxidant protein

68 similar redox potential for their regulatory redox-active disulfides (-310 mV for PpSBPase vs. -290 m

69 r cysteines known to form sulfenic acids and redox-active disulfides.

70 covalent conjugation of fluorescent dye and redox-active dopamine to the QDs, producing fluorescent

71 oting adsorption/activation by making use of redox active dopants such as Mn linked to oxygen vacanci

72 due to the energy splitting between two key redox-active dpi* frontier molecular orbitals (FMOs).

73 between a surface-adsorbed dye and a soluble redox-active electrolyte species in the dye-sensitized s

74 The enhanced conductivity and kinetics of redox-active electrolytes could further induce a sharp c

75 direction has been facilitated by the use of redox-active electrolytes that add faradaic charge stora

76 capacitors increase specific energy by using redox-active electrolytes that are oxidized at the posit

77 Iron is an important redox-active element that is ubiquitous in both engineer

78 of ligand-based reactivity invoked by these redox-active entities will be discussed.

79 ccessful for predicting mechanisms for other redox-active enzymes, such as the one for photosystem II

80 S)-2-methyl-3-hydroxypentanoyl-ACP (6a) with redox-active, epimerase-inactive EryKR6 from module 6 of

81 ctivation of alkyl carboxylic acids as their redox-active ester derivatives, specifically N-hydroxy-t

82 Here we demonstrate the first couplings of redox-active esters (both isolated and derived in situ f

83 Redox-active esters have recently emerged as useful surr

84 of this reaction hinges on the unique use of redox-active esters that allow one to employ such deriva

85 N-hydroxyphthalimide (NHPI) based redox-active esters were found to be convenient starting

86 shifted absorptions that possess long-lived, redox-active excited states that are useful for various

87 anktonic organism to the anode by endogenous redox-active exudates appears to be critical to current

88 Although the redox active {Fe(NO)}(7) moiety can accept and store an

89 s through the control of spatial distance of redox-active Fe4S4 centers using additional linking meta

90 iled charge transport study of an individual redox-active ferrocene-based molecule over a wide range

91 te associated with the electrochemistry of a redox active film tethered to metallic leads and immerse

92 The relationship between these redox-active films and conducting metal organic framewor

93 hotoreceptors may have arisen from ancestral redox-active flavoproteins.

94 of the free ferrous deoxy-NGB, which is the redox active form of the protein in contrast to oxy-NGB.

95 In the presence of LE, TAPTA released a redox-active fragment whose oxidation at an electrode pr

96 ple-charge-state clusters are reminiscent of redox-active fullerenes (e.g., C60(n), where n = +1, 0,

97 PCM may itself contain redox-active functional groups that are capable of oxidi

98 eometry when paired around each Pt, and (ii) redox-active functional groups to enable charge transfer

99 refractive index materials, electroactuated redox-active gels, fibres, films, and nanoporous membran

100 velopment of novel transformations involving redox-active gold catalysts.

101 tic interactions arising from densely packed redox-active groups, only when prepared as thin films.

102 ailed to account for roughly half of NADPH's redox active hydrogen.

103 In this work, a selection of redox-active indenofluorene-extended tetrathiafulvalenes

104 III) was recently recognized as an important redox-active intermediate in Mn biogeochemical cycling.

105 Tethering the redox-active iodophenyl subunit to a tetra-alkylammonium

106 in to facilitate substrate reduction via two redox active iron-sulfur centers.

107 yl-3-thiosemicarbazone (Dp44mT), which forms redox-active iron and copper complexes, effectively indu

108 Our results suggest that redox-active iron-sulfide-containing materials can activ

109 The redox-active label anthraquinone (AQ) was covalently att

110 bate through pro-oxidant chemistry involving redox-active labile iron and H2O2.

111 work, gold electrodes were modified using a redox-active layer based on dipyrromethene complexes wit

112 This new redox-active layer was applied for the construction of t

113 boxylic groups present on the surface of the redox-active layer.

114 eries of rare earth compounds containing the redox-active ligand [{2-(tBuN(O))C6 H4 CH2 }3 N](3-) .

115 that electrocatalytic generation of H2 by a redox-active ligand complex of Al(3+) occurs at -1.16 V

116 Hence, the presence of a redox-active ligand framework, an available coordination

117 A family of neodymium complexes featuring a redox-active ligand in three different oxidation states

118 olecular combination of a molybdenum center, redox-active ligand, and Lewis acid reduces O(2) with pe

119 unprecedented two-electron oxidation of the redox-active ligand, generating a highly rigidified envi

120 ions on the reduction of cobalt complexes of redox active ligands and explored the reactivity of redu

121 l-based electrolyte, consisting of molecular redox-active ligands adsorbed on the surface of magnetic

122 In conclusion, redox-active ligands containing catechol, o-aminophenol

123 ht into main group catalysis and the role of redox-active ligands during catalysis.

124 Redox-active ligands have evolved from being considered

125 Coenzyme Q (Q or ubiquinone) is a redox active lipid composed of a fully substituted benzo

126 ADCK3 is involved in the biosynthesis of the redox active lipid, ubiquinone, and human ADCK3 mutation

127 Q6 (ubiquinone or CoQ6) and a mitochondrial redox-active lipid essential for electron and proton tra

128 devices using patterned ion gels containing redox-active luminophores.

129 ploying a group transfer catalyst based on a redox-active main group element (selenium).

130 The substitution of conventional metals as redox-active material by organic materials offers a prom

131 of pi-bowls opens a new avenue for preparing redox-active materials and potentially improving charge

132 rmation has been related to the formation of redox-active materials produced by electrochemical reduc

133 Designing small-molecule organic redox-active materials, with potential applications in e

134 n bonding and its effect on guest binding in redox-active materials.

135 or increasing the charge storage kinetics of redox-active materials.

136 The presence of redox-active MB was detected electrochemically by differ

137 gen Pseudomonas aeruginosa produces colorful redox-active metabolites called phenazines, which underp

138 centrations as low as 2.6 muM) four distinct redox-active metabolites called phenazines.

139 e results show that modulating extracellular redox-active metabolites can influence the fitness of a

140 acilitating the transfer of electrons to the redox active metal centers where O2 is reduced to water.

141 e presence and absence of oxygen, light, and redox active metal salts, in a conventional oven, microw

142 amework featuring coordinatively unsaturated redox-active metal cation sites, Fe2(dobdc) (dobdc(4-) =

143 lt, we now appreciate that COX relies on its redox-active metal centers (heme a and a3, CuA and CuB)

144 The ability of redox-active metal centers to weaken the bonds in associ

145 nic therapeutic agents through PET utilizing redox-active metal centers.

146 ar assemblies consist of different layers of redox-active metal complexes ([M(mbpy-py)3][PF6]2; M = R

147 e., from mono- to bidirectional, between the redox-active metal complexes and the electrode surface.

148 at the same time, hyperaccumulation of this redox-active metal in biological fluids and tissues is a

149 The deoxyribozymes do not require redox-active metal ions and function with a combination

150 oxometalates (POMs) are discrete clusters of redox-active metal oxides, many of which can be linked t

151 Iron is a redox-active metal required as a cofactor in multiple me

152 hase detection of an M(H2 O2 ) adduct with a redox-active metal, cobalt(II), is described.

153 A redox-active metal-organic composite material shows impr

154 A redox-active metal-organic framework, Fe2(dobpdc) (dobpd

155 The combination of Lewis acid and multiple redox active metals facilitates this four electron conve

156 Redox-active metals (e.g., Cu and Ni) are also capable o

157 lyzed radical DNA cleavage reactions require redox-active metals and lead to mixtures of products.

158 Accordingly, we explored the mutual effects redox-active metals and PAHs have on oxidative stress, a

159 Redox-active metals in the brain mediate numerous bioche

160 ic redox-active organic molecules instead of redox-active metals represents a new and promising direc

161 s, including low abundance and high costs of redox-active metals, expensive separators, active materi

162 iolin and demonstrated that it is reversibly redox-active (midpoint potential -474.5 mV), indicating

163 )) on the reduction of uranyl (U(VI)) by the redox-active mineral mackinawite (FeS).

164 Redox-active minerals are ubiquitous in the environment

165 itself and low-molecular-weight analogues of redox-active moieties can reduce the lifetime of photoch

166 foundational evidence that catalysts bearing redox-active moieties may be used to synthesize high mol

167 open structures for rapid ion transport, and redox-active moieties that enable faradaic (pseudocapaci

168 rated that this coating adds hydrophilicity, redox-active moieties, and additional mesoporosity, whic

169 y by internal electron transfer from another redox-active moiety elsewhere within the molecule.

170 and provide a direct handle on the t2g-based redox-active molecular orbital.

171 o-physical characteristics (e.g., a dye or a redox-active molecule).

172 ed poly-(3-hexylthiophene) films and a model redox-active molecule, ferrocenedimethanol.

173 dients which will allow detecting indirectly redox-active molecules due to a modulation of the fluore

174 Although redox-active molecules often display multiple redox stat

175 Phenazines are a class of redox-active molecules produced by diverse bacteria and

176 Our results illustrate how redox-active molecules that are, in themselves, non-magn

177 underlying electrode system is accessible to redox-active molecules through the hydrophilic polymeric

178 Organic rechargeable batteries, composed of redox-active molecules, are emerging as candidates for t

179 he more general principle that extracellular redox-active molecules, such as phenazines, can broaden

180 ial, stability, and solubility in low-weight redox-active molecules.

181 This paper concerns the development of a redox-active monolayer and its application for the const

182 time scales is theoretically investigated on redox active monolayers by linear sweep voltammetry (LSV

183 erns the development of genosensors based on redox-active monolayers incorporating (dipyrromethene)2C

184 ic oligomers comprising strongly interacting redox-active monomer units represent an unknown, yet hig

185 surface reactivity and optical properties of redox active nanoparticles of cerium oxide, or nanoceria

186 al covalent organic cage consisting of three redox-active naphthalene-1,4:5,8-bis(dicarboximide) (NDI

187 attribute of a particular microbial strain, redox-active natural products likely play fundamental, u

188 Furthermore, we show that the redox-active nature of 1,2,4,5-tetrazines can be exploit

189 sharing of unpaired electrons among adjacent redox-active NDI subunit(s) within both molecules.

190 of nitroxyl (HNO), a biologically relevant, redox-active nitric oxide derivative.

191 actor ligands: Hemilabile, MN2S2 ligands and redox-active, nitrosyl ligands, whose interplay guides t

192 iscussed include: NCN(3-), OCO(3-), CCC(3-), redox active NNN(3-), NNN(3-), redox active ONO(3-), ONO

193 on of electrons and protons, the role of the redox-active, noninnocent NO ligand in electron uptake,

194 3-), CCC(3-), redox active NNN(3-), NNN(3-), redox active ONO(3-), ONO(3-), and SNS(3-).

195 operativity, or lack thereof, between Cu and redox-active organic cocatalysts in aerobic oxidation re

196 Cooperative catalysis between Cu(II) and redox-active organic cocatalysts is a key feature of imp

197 The use of metal-free, inexpensive redox-active organic materials represents a promising di

198 demonstrate the stability and performance of redox-active organic molecules in alkaline flow batterie

199 The use of pi-aromatic redox-active organic molecules instead of redox-active m

200 We report an alkaline flow battery based on redox-active organic molecules that are composed entirel

201 When oligomeric redox-active organics (RAOs) were paired with microporou

202 new class of easily prepared, versatile, and redox-active oxido clusters that should contribute to an

203 By using propargyl groups to protect the redox-active para-quinone during synthesis and assembly

204 Treatment with the redox-active pharmaceutic N-acetylcysteine lowers gastri

205 of simultaneous spatial imaging of multiple redox-active phenazine metabolites produced by Pseudomon

206 nced FDN derivatives by covalently linking a redox-active photostabilizer (Trolox) directly onto FDN

207 frameworks with the intrinsic properties of redox-active pi-bowls, has been prepared.

208 In our search for novel main-group-based redox-active platforms for solar fuel production, we hav

209 tial as well as higher levels of exposure to redox-active PM in developing areas of the world.

210 Selective P coordination of a redox-active PNO ligand to Au(I) followed by homoleptic

211 sing CNTR as a template and surface attached redox-active polymer as a reducing agent.

212 level due to self-charge injection into the redox active polymeric system.

213 These redox-active polymers are strongly bound to electrode su

214 These insoluble, redox-active polymers have potential utility for the ads

215 Electronic delocalization in redox-active polymers may be disrupted by the heterogene

216 oad-reaching method to access a class of new redox-active polymers which contain varied and dense fun

217 cause membranes function as barriers, highly redox-active powerhouses such as chloroplasts, peroxisom

218 Furthermore, it is likely that a redox-active precipitate formed in the ZVI-amended bioca

219 Several cytoplasmic and membrane-associated redox-active protein genes were differentially regulated

220 portance and identity of hopping Y.'s within redox active proteins proposed to protect them from unco

221 redoxin, peroxiredoxins, and other validated redox active proteins.

222 in engineering approaches aimed at designing redox-active proteins for diverse biotechnological appli

223 tion of reduction potentials, E degrees , of redox-active proteins has been implemented in the CHARMM

224 ing in gene mutations, altered expression of redox-active proteins, iron metabolism, and DNA repair,

225 le role for CtpD in the metallation of these redox-active proteins.

226 esent an electrochemical sensing platform of redox-active pyocyanin using transparent carbon ultramic

227 Coordination of a redox-active pyridine aminophenol ligand to Ru(II) follo

228 Iron complexes bound by redox-active pyridine dialdimine (PDAI) ligands catalyze

229 highly reduced uranium complexes bearing the redox-active pyridine(diimine) ligand, (Mes)PDI(Me) ((Me

230 ced uranium(IV) complexes bearing trianionic redox-active pyridine(diimine) ligands, [Cp(P)U((Mes)PDI

231 Coordination of FeCl3 to the redox-active pyridine-aminophenol ligand NNO(H2) in the

232 This yields redox-active QD platforms that can be used to track pH c

233 c, but in complex I the binding site for its redox-active quinone headgroup is approximately 20 A abo

234 The analogue, H2B-Q, consists of the redox-active quinone segment found in ubiquinone, 2,3-di

235 An innovative flow electrode comprising redox-active quinones to enhance the effectiveness of wa

236 s are based on the concentration gradient of redox-active reactants; the increased entropy is transfo

237 lts illustrate a new mode of sensors wherein redox active recognition units are voltage-activated to

238 adding photoactive, catalytically active, or redox-active recognition sites, or even charges and dipo

239 The eDMA allows for the detection of redox-active reporter molecules irrespective of their el

240 iomolecules modified via the attachment of a redox-active "reporter." Here we survey a large set of p

241 s to this generalization are the presence of redox-active residues (such a triphenylamine or pyrene).

242 rin arrays, and proteins with closely packed redox-active residues.

243 R) spectroscopies all confirm the capture of redox-active rotaxanes within the mesoscale hexagonal ch

244 Four redox-active rotaxanes, which drove a cyclobis(paraquat-

245 tion in meta-selective processes) and form a redox active ruthenium species, to enable site-selective

246 nduction in A. nidulans by another microbial redox-active secondary metabolite, gliotoxin, also requi

247 alysis as a generic platform to target other redox-active side chains for native conjugation.

248 ly(ferrocenylsilane) backbone of alternating redox-active, silane-bridged ferrocene units and tetraal

249 Here, we evaluated the role of PDI and redox-active sites of PDI in thrombosis by generating mi

250 Results provide further evidence that redox-active sites on soil surfaces drive ground-level N

251 earch on oxidoreductases containing multiple redox-active sites.

252 ulfide isomerase (PDI) has two distinct CGHC redox-active sites; however, the contribution of these s

253 They secrete a wealth of redox-active small molecule secondary metabolites, which

254 Nitric oxide (NO), a gaseous, redox-active small molecule, is gradually becoming estab

255 system, where a 70 muL droplet containing a redox active species (ferrocyanide) is sandwiched betwee

256 r electrodes with kinetic selectivity toward redox active species and help guide synthetic approaches

257 The presence of non-redox active species at EEI has been shown to strongly i

258 oxygenase, which catalyzes the production of redox active species from NEFA.

259 Cyclic voltammetry with a number of redox active species such as phenols, as well as impedan

260 e of 0.1-0.5 V (vs Ag/AgCl), confirming that redox active species were present in the cell suspension

261 c efficiency due to the high permeability of redox-active species across the battery's membrane.

262 be relevant only for high concentrations of redox-active species and at long experimental time scale

263 It is also unclear which redox-active species are most important for HOOH formati

264 que promises wide applicability in detecting redox-active species from diverse biological samples.

265 ion gels containing embedded small-molecule redox-active species is reported.

266 xplored possibly due to the lack of suitable redox-active species that are easily varied in size, rem

267 is supported on a surface, the diffusion of redox-active species to the electrode is partially block

268 than the sum of the rates of the individual redox-active species.

269 chanism of ROS generation, we tested several redox-active substances, such as 9,10-phenanthrenequinon

270 molecules were designed to contain a pair of redox-active substituents, quinone and hydroquinone grou

271 A redox-active supercooled liquid is obtained by forming a

272 ggest exercise endurance can be augmented by redox-active supplements, either reduced thiol donors or

273 Redox-active support materials can help reduce the noble

274 The high purity, low content of redox-active surface functional groups and intrinsic hyd

275 These results highlight the ability of redox-active tetraoxolene ligands to support the formati

276 rate that both eumelanin and pheomelanin are redox-active, they can rapidly (sec-min) and repeatedly

277 itatively measure the charge associated with redox-active thin films interposed between the generator

278 and H2 oxidation has been developed using a redox active thiosemicarbazone and its zinc complex as s

279 cause tumor suppressor protein p53 is also a redox active transcription factor that regulates cellula

280 regulator, SurR, is among a handful of known redox-active transcriptional regulators.

281 ocysteine reacts with native catalase and/or redox-active transition metal ions to generate thiyl rad

282 , fine particulate matter (PM2.5) containing redox-active transition metals, quinones, and secondary

283 When the two redox-active triarylamine moieties are connected to the

284 opping typically involves spatially arranged redox-active tryptophan or tyrosine residues.

285 t (API), acetaminophen (ACM) which itself is redox active, typical of many APIs.

286 Chains of redox-active tyrosine and tryptophan residues can transp

287 myoglobin, where both the distal Cu and the redox-active tyrosine residue present in CcO are modelle

288 (RT) occurs by a specific pathway involving redox active tyrosines (Y122 left arrow over right arrow

289 Redox-active tyrosines (Ys) play essential roles in enzy

290 the relative conformational dispositions of redox-active units in macrocycles are key to achieving h

291 e (PMDI) and naphthalene diimide (NDI)-based redox-active units.

292 ilms of the resulting material indicate that redox-active viologen subunits located on the rotaxane c

293 A redox-active viologen unit at the heart of a dumbbell-sh

294 that inhibit the production of pyocyanin, a redox-active virulence factor produced by P. aeruginosa.

295 from photosensitive [Ru(bpy)3](2+) units to redox-active WD-POM units, leading to efficient hydrogen

296 of the QDs does, however, make the QDs more redox-active with respect to a small-molecule photooxida

297 a dozen potential reporters that are, first, redox active within the potential window over which thio

298 When the metal ion is redox active, XAS provides a sensitive measure of oxidat

299 Class Ia RNRs require four redox active Y's, a stable Y radical (Y.) in the beta su

300 provide new tools for mechanistic studies on redox-active Ys in proteins and on functional and aberra