ライフサイエンスコーパス: electron acceptor

1 sole carbon source and sulfate as a terminal electron acceptor.

2 ith extracellular iron potentially acting as electron acceptor.

3 on source while TCE or cis-DCE served as the electron acceptor.

4 hydrogenase activity employing an artificial electron acceptor.

5 ic respiration with fumarate as the terminal electron acceptor.

6 ogenase (MBH) where protons are the terminal electron acceptor.

7 r in conjunction with oxygen as the terminal electron acceptor.

8 o the electron transport chain for use as an electron acceptor.

9 de, pH 7.8), for the MnxG type 1 Cu(2+), the electron acceptor.

10 r, and the fluorinated compound was the sole electron acceptor.

11 d dopamine quinone functions as an efficient electron acceptor.

12 marate to succinate, fills this gap as a new electron acceptor.

13 on donor and a C-terminal perylene bis-imide electron acceptor.

14 with a solution containing nutrients and an electron acceptor.

15 d, it uses a cytochrome b-like protein as an electron acceptor.

16 ins have the double role of radical trap and electron acceptor.

17 he oxidation of ammonium with nitrite as the electron acceptor.

18 way for NH(4)(+) oxidation with electrode as electron acceptor.

19 c for pyruvate, which serves as an exogenous electron acceptor.

20 ditions using O2 or NO3(-) as the respective electron acceptor.

21 source, while S4O6(2-) serves as respiratory electron acceptor.

22 through a second heme group to the external electron acceptor.

23 piration processes compete for nitrate as an electron acceptor.

24 biphenyl (236-236-CB)(20 muM) as respiratory electron acceptor.

25 (2)) as an electron donor and fumarate as an electron acceptor.

26 eneral preference for any specific anaerobic electron acceptor.

27 able to respire using oxygen as the terminal electron acceptor.

28 ivity enables E. lenta to use dopamine as an electron acceptor.

29 e carbon source, and elemental sulfur as the electron acceptor.

30 (+0.4 V(SHE)) or Fe(III)-NTA as the terminal electron acceptor.

31 clusters, and that GOR uses ferredoxin as an electron acceptor.

32 id not grow with isethionate as the terminal electron acceptor.

33 nction solar cells with the PCBM film as the electron-acceptor.

34 also during respiration of other solid-phase electron acceptors.

35 ic photovoltaic devices, acting as excellent electron acceptors.

36 ing their dependence on oxygen or nitrate as electron acceptors.

37 ux rate approximates flow to other anaerobic electron acceptors.

38 g bacteria and microorganisms that use other electron acceptors.

39 taics and is inspiring for the design of new electron acceptors.

40 sing strategy for designing high-performance electron acceptors.

41 e corrected for the statistics of having two electron acceptors.

42 ies to coordinate expression of the terminal electron acceptors.

43 oupled to the reduction of sulfate and other electron acceptors.

44 nanowires between the cell and extracellular electron acceptors.

45 TSA-based media supplemented with anaerobic electron acceptors.

46 rformance of hybrid solar cells using ZnO as electron acceptors.

47 acellular insoluble metal oxides as terminal electron acceptors.

48 ygen, nitrate, or both compounds as terminal electron acceptors.

49 oichiometry and the availability of terminal electron acceptors.

50 deficient cells in the absence of exogenous electron acceptors.

51 arding the utilization of organic carbon and electron acceptors.

52 sfer of electrons to insoluble extracellular electron acceptors.

53 toichiometric oxidants into catalytic single-electron acceptors.

54 quantify the effects of the added anaerobic electron acceptors.

55 jugation with viologen moieties which act as electron acceptors.

56 op replacements; the so-called non-fullerene electron acceptors.

57 onal compounds (such as protons) to serve as electron acceptors.

58 le maintaining promiscuity to their multiple electron acceptors.

59 rganic substrates using nitrate or oxygen as electron acceptors.

60 hemotactic behavior toward As(V) and diverse electron acceptors.

61 thieno[3,4-b]thiophene-based small-molecule electron acceptor, 2,2'-((2Z,2'Z)-((6,6'-(5,5,10,10-tetr

62 -C61-butyric acid methyl ester (PCBM) as the electron acceptor (6.12%).

63 Specifically, molecular chromophores (C), electron acceptors (A) and electron donors (D) were self

64 design of a photoanode that incorporates an electron acceptor, a sensitizer, an electron donor, and

65 In fact, proton transfer enhances the electron acceptor ability of dioxygen.

66 As an electron acceptor, acetate, propionate, and butyrate rea

67 ution with Mn eventually becoming a terminal electron acceptor after depletion of O2 and NO3(-).

68 n faced with no direct physical access to an electron acceptor, allowing it to reduce metals at dista

69 irement can be fulfilled with an alternative electron acceptor, alpha-ketobutyrate, which provides ce

70 ion with integration of a light absorber, an electron acceptor, an electron donor, and a catalyst in

71 idase activity using molecular oxygen as the electron acceptor and a small increase in dehydrogenase

72 r cells (OSCs) based on fluorinated ITIC-Th1 electron acceptor and a wide-bandgap polymer donor FTAZ

73 e electron donor, a cyanoacrylic acid as the electron acceptor and anchoring group, and a novel tetra

74 pi-bridge and the cyanoacrylic group as the electron acceptor and anchoring unit, we selected three

75 namics of DNA hairpins possessing a stilbene electron acceptor and donor along with a modified guanin

76 lecular charge-transfer cocrystals formed by electron acceptor and donor molecules that exhibit ferro

77 Electron acceptor and donor molecules yield significant

78 or photocatalytic systems uses oxygen as the electron acceptor and explores a wide range of electron

79 The addition of a reversible electron acceptor and mediator, methyl viologen (MV(2+))

80 In MFCs, oxygen serves as a cathodic electron acceptor and oxygen reduction kinetics played a

81 trifying organisms use nitrate as a terminal electron acceptor and reduce it stepwise to nitrogen gas

82 are connected to a naphthalene diimide (NDI) electron acceptor and tetraalkylphenyldiamine (TAPD) pla

83 ating group, cyclopenta[c]thiophen-4,6-dione electron acceptor and various pi-linkers including (hete

84 ral groundwater containing various competing electron acceptors and 0.3-0.4 mM trichloroethene, trich

85 Humic substances (HSs) are important electron acceptors and donors in soils and aquifers.

86 n membrane-bound protein complexes acting as electron acceptors and donors.

87 reducers that use C1-methylated compounds as electron acceptors and formate or hydrogen as electron d

88 r long-range electron transport to insoluble electron acceptors and interspecies electron transfer.

89 tions, such as cross-feeding and exchange of electron acceptors and small molecules, that modify the

90 gens can transfer electrons to extracellular electron acceptors and thus have a wide range of applica

91 In contrast to boranes, which act as electron acceptors and thus Lewis acids, they are electr

92 ns such as electron and energy transfer with electron-acceptors and -donors.

93 denitrification with NO2(-) as the terminal electron acceptor) and the hydroxylamine (NH2OH) pathway

94 ing acetate anaerobically with Mn(3+) as the electron acceptor, and confirmed this phenotype in other

95 These nanoribbons are exceptional electron acceptors, and organic photovoltaics fabricated

96 Electron acceptors are important components of pi-conjug

97 We find that electron acceptors are limiting for producing aspartate,

98 ent work identifies host-derived respiratory electron acceptors as a critical resource driving a post

99 ot only eliminates aeration or supplement of electron acceptors as in contemporary bioremediation but

100 mmunity, suitable energy and carbon sources, electron acceptors, as well as nutrients.

101 nalty is associated with respiring insoluble electron acceptors at micron distances, which has import

102 were differentially expressed in response to electron acceptor availability or nitrosative stress.

103 Here, we show that a gradient of electron acceptor availability through the depth of the

104 of Desulfovibrio to natural fluctuations in electron acceptor availability was evaluated by studying

105 pill remediation, but it is often limited by electron acceptor availability.

106 emonstrated changes consistent with terminal electron acceptor availability.

107 ells, where C60 bisadducts have found use as electron acceptors, because these adducts currently requ

108 reviously cultivated with fumarate or PCE as electron acceptor, but not for TCE.

109 OXPHOS requires O(2) as the final electron acceptor, but O(2) supply is sufficient in most

110 ands samples were amended with nutrients and electron acceptors, but oil sands bitumen was the only o

111 ation pathway between the electron donor and electron acceptor by force-induced cleavage of the coval

112 nor ferrocene (Fc, donor(2)) and the primary electron-acceptor C(60)-fullerene (C(60), acceptor(1)) a

113 is inhibited, suggesting that an alternative electron acceptor can substitute for respiration to supp

114 to use both oxygen and metals as respiratory electron acceptors can be leveraged to address salient c

115 ectron transfer from substrate to non-native electron acceptors can differentially modify photolumine

116 exposed to a large excess of the sacrificial electron-acceptor ceric ammonium nitrate at pH 1, copiou

117 Thus Osm1/fumarate is a new electron acceptor couple in the mitochondrial intermembr

118 iring populations generating their metabolic electron acceptors (DCE and VC), their survival requires

119 ogenic response to phenazines resulting from electron acceptor-dependent inhibition of ECM production

120 ily chemoorganotrophs that utilize different electron acceptors depending on geochemical conditions.

121 y coupling a N-doped carbon framework (MHCF, electron acceptors) derived from MOFs with higher-Fermi-

122 jugated macrocycle comprised of two U-shaped electron-acceptors (dibenzo[a,j]phenazine) and two elect

123 d with lactate, chromate, and various native electron acceptors diverged to have very different Cr(VI

124 itive and base can be crucial to generate an electron acceptor-donor pair that can facilitate electro

125 achieved via direct charge transfer with an electron acceptor/donor (i.e., charge transfer doping) o

126 ersion based on molecular excited states and electron acceptors/donors on the surfaces of transparent

127 phylococcus aureus uses oxygen as a terminal electron acceptor during respiration.

128 lar oxygen and 1,4-benzoquinone can serve as electron acceptors during the photocatalytic polymerizat

129 f electron donors (e.g., organic carbon) and electron acceptors (e.g., O2 and NO3(-)).

130 of naphthalene diimide and perylene diimide electron acceptors end-capped with two guanine electron

131 ermediate layer in tandem solar cells, as an electron acceptor, etc.

132 The electron acceptor F4TCNQ p-dopes aggregates "nanowires"

133 All tested electron acceptors facilitated methane bioconversion to

134 f the 3D molecular structure of nonfullerene electron acceptors, facilitating observation of dramatic

135 howed that, following photoexcitation of the electron acceptor, fast electron transfer occurs initial

136 contains binding sites for NADH, the primary electron acceptor FMN, and seven iron-sulfur clusters th

137 . testosteroni could use nitrate as the sole electron acceptor for anaerobic growth.

138 izing enzymes (SOEs), which interact with an electron acceptor for catalytic turnover.

139 film formation in its capacity as a terminal electron acceptor for cellular respiration.

140 back to ubiquinone, which also serves as an electron acceptor for dihydroorotate dehydrogenase (DHOD

141 use nitrite as a nitrogen source or terminal electron acceptor for growth.

142 The effectiveness of new a electron acceptor for organic solar cells is demonstrate

143 nstrating that this substrate was used as an electron acceptor for organobromine respiration.

144 ore nitrate (NO(3) (-) ) and to use it as an electron acceptor for respiration in the absence of ligh

145 ing groups was synthesized as a nonfullerene electron acceptor for solution-processed bulk heterojunc

146 As(V), suggesting that As(V) is a preferred electron acceptor for the indigenous community.

147 A wide-spread electron acceptor for the latter is sulfate.

148 ms are known to use Mn(IV) oxide (MnO(2)) as electron acceptor for the oxidation of organic compounds

149 highlights the necessity of ubiquinone as an electron acceptor for tumour growth.

150 eroid core are transiently converted into an electron acceptor for two reductive steps carried out by

151 rates signified the role of iron as terminal electron acceptors for anaerobic C degradation in the mi

152 enables C2 sulfonates to be used as terminal electron acceptors for anaerobic respiration in sulfate-

153 iration in proliferating cells is to provide electron acceptors for aspartate synthesis.

154 phic microorganisms can use diverse terminal electron acceptors for cell respiration, including carbo

155 In the last 10 years, migration to insoluble electron acceptors for EET has been shown to be nonrando

156 Prokaryotes have aerobic and anaerobic electron acceptors for oxidative folding of periplasmic

157 il bacteria to transport electrons to remote electron acceptors for respiration and energy sharing.

158 marine sediment is shaped by energy-yielding electron acceptors for respiration that are depleted in

159 ies use energetically favourable alternative electron acceptors for respiration.

160 provide an outlook for future innovations in electron acceptors for use in organic photovoltaics.

161 naphthalene-1,8:4,5-bis(dicarboximide) (NDI) electron acceptor (GEAn-ANI-NDI, 1).

162 teins that facilitate the use of alternative electron acceptors generally increased in the presence o

163 e metal oxides or electrodes act as terminal electron acceptors, generating electrical current from a

164 -2,5-dihydrofuran ring, giving access to new electron-acceptor groups and dipolar fluorophores displa

165 mined molecules contained electron-donor and electron-acceptor groups interacting via a pi-conjugated

166 DIPYs bearing multiple electron-donating and electron-acceptor groups were synthesized regioselective

167 vatives (4a-i) containing electron-donor and electron-acceptor groups with remarkable photophysical a

168 owever occur in appropriate cases, where the electron acceptor has a reduction potential near the oxi

169 conditions were observed, making alternative electron acceptors important to support AOM in sulfate-r

170 nergy by reducing organohalogens as terminal electron acceptor in a process termed organohalide respi

171 Complex I functions as the initial electron acceptor in aerobic respiratory chains of most

172 Complex I functions as an initial electron acceptor in aerobic respiratory chains that red

173 as found that, by adding biochar as the sole electron acceptor in an anaerobic environment, CH(4) was

174 ain enzyme promoting growth on nitrate as an electron acceptor in anaerobic environments.

175 Fumarate, an electron acceptor in anaerobic respiration of Escherichi

176 n the ratio of electron donor to chlorinated electron acceptor in continuously stirred tank reactors

177 We use a rigid, conjugated macrocycle as the electron acceptor in devices to obtain high photocurrent

178 indings show that NO(3) (-) is the preferred electron acceptor in foraminifera from the OMZ, where th

179 with molecular O(2) serving as the terminal electron acceptor in mitochondrial oxidative phosphoryla

180 embranes can benefit cells when the terminal electron acceptor in respiration is limiting.

181 erent wastewaters and can act as a competing electron acceptor in the anode.

182 Cytochrome c oxidase (CcO) is the last electron acceptor in the respiratory chain.

183 ted currents were activated by extracellular electron acceptors in a concentration- and type-specific

184 notrophic communities due to availability of electron acceptors in association with varying degrees o

185 s with composition, and investigated them as electron acceptors in BHJ solar cells.

186 e past decade, fullerenes are widely used as electron acceptors in highly efficient bulk-heterojuncti

187 se of iron(III)-bearing minerals as terminal electron acceptors in permafrost environments, and thus

188 e relative proportion of electron donors and electron acceptors in the system.

189 ion involved CO acting as a Lewis acid (four-electron acceptor), in sharp contrast to CO activation m

190 ither formate as electron donor or oxygen as electron acceptor, in combination with an acceptor/donor

191 The aerobic electron acceptors include oxygen and cytochrome c, but

192 s is often limited by competition with other electron acceptors including microorganisms and poor acc

193 We show that inflammation-derived electron acceptors induce a complete, oxidative TCA cycl

194 herally substituted with naphthalene diimide electron acceptors installed via imidation of site-speci

195 is due to a stereospecific electron-donor - electron-acceptor interaction of diastereomeric macrocyc

196 ion between a strong electron donor and weak electron acceptor into the same polymer chain is a usefu

197 -ylidene)malononitrile to yield a fused-ring electron acceptor (IOIC2) for organic solar cells (OSCs)

198 le-respiring bacteria biofilms because their electron acceptor is always accessible.

199 hotoheterotrophically on succinate unless an electron acceptor is provided or H2 production is permit

200 ate is scarce in the gut, the source of this electron acceptor is unclear.

201 ation strategy in the design of nonfullerene electron acceptors is proposed, with the design and synt

202 l C71 butyric acid methyl ester (PC71 BM) as electron acceptors is reported.

203 te turnover in solution, using an artificial electron acceptor, is kinetically limited by diffusional

204 robially mediated reoxidation of alternative electron acceptors like sulfide and by providing degrada

205 n use either nitrate or oxygen as a terminal electron acceptor making them ideally suited to thrive a

206 ribes the development of a new small-bandgap electron-acceptor material ATT-2, which shows a strong N

207 ron donor TrxR from Escherichia coli and the electron acceptor methionine sulfoxide reductase, also f

208 donor-acceptor pairs comprising a molecular electron acceptor, methylviologen (MV), and morphology-c

209 ther the addition of Mars relevant anaerobic electron acceptors might enhance growth.

210 Coupling of silica gel to pi-electron acceptor modified silica gel showed the best cl

211 sisting of a polychlorotriphenylmethyl (PTM) electron-acceptor moiety linked to an electron-donor fer

212 n of l-lactate by competing with the primary electron acceptor: molecular oxygen.

213 We explore 27 small, organic, electron-acceptor molecules that are shown to tune the o

214 electrochemical series of 12 different guest electron-acceptor molecules with varied reduction potent

215 The ability to use O(2) as a terminal electron acceptor must have been subsequently acquired b

216 reduce OAA to malate, thus regenerating the electron acceptor NADP.

217 Their ability to use alternative electron acceptors-nitrate (NO(3) (-)) or oxygen (O(2))-

218 these two processes compete for their common electron acceptor, nitrite.

219 from the electron-donor phenolate toward the electron-acceptor nitroarene moiety.

220 ibitors showed that CYTc acts as the in vivo electron acceptor of d-LDH.

221 DPI) and oxidized glutathione, the preferred electron acceptor of GR.

222 esting that ubiquinone could be an intrinsic electron acceptor of the reduced mitoNEET [2Fe-2S] clust

223 lution showed that TsdB acts as an effective electron acceptor of TsdA in vitro when TsdA and TsdB or

224 ratory electron transport chain to insoluble electron acceptors on the exterior of the cell.

225 millisecond time scales are unable to reduce electron acceptors on the surface or in solution.

226 yclization also varies with growth phase and electron acceptor or donor limitation.

227 under conditions of varying electron donor, electron acceptor or enzyme limitation.

228 addition of any sacrificial electron donor, electron acceptor or stoichiometric additives.

229 acterial biofilms that lack direct access to electron acceptors or donors.

230 lake systems and potentially use alternative electron acceptors or fermentation to remain active unde

231 rew photoheterotrophically on malate without electron acceptors or H2 production.

232 microbes can access solid-phase materials as electron-acceptors or -donors via extracellular electron

233 They catalyze the reduction of the terminal electron acceptor, oxygen, and utilize the Gibbs free en

234 propyl macrocyclic oligosaccharides, and pai-electron acceptor/pai-electron donor phases.

235 donor pi-extended tetrathiafulvalene and an electron-acceptor perylene-bisimide were self-organized

236 yi subpopulations, even when other competing electron acceptor processes are absent.

237 Due to the considerably increased electron-acceptor properties of the phosphoryl-bridged b

238 cular electron donor interacts with multiple electron acceptors, quantum coherence can enhance the el

239 tential (Em) of [Formula: see text], the one-electron acceptor quinone of Photosystem II (PSII), prov

240 een coupled to sulphate reduction, but other electron acceptors remain feasible.

241 we report that use of nitrite as a terminal electron acceptor requires nitrite reductase (nrfA) as a

242 d facilitate the use of oxygen as a terminal electron acceptor, respectively.

243 Substitution of Tyr145 by less-efficient electron acceptors resulted in highly photostable mutant

244 rimethylamine-N-oxide (TMAO) as the terminal electron acceptor revealed: (i) the induction of torCAD,

245 esumably the formal potential of the primary electron acceptor(s) for the community.

246 es of the D-de loop of the D2 protein on the electron acceptor side of the photosystem.

247 from Sinorhizobium meliloti and its cognate electron acceptor SorU.

248 ubstrate concentration in the absence of any electron acceptors stabilizes the open conformation as t

249 ously less overlap of the band edge with the electron acceptor states in solution, which means a lowe

250 be surface, thus controlling rigorously SWNT-electron acceptor stoichiometry and organization.

251 4,4-Diphenyl-2-azabuta-1,3-dienes with two electron-acceptor substituents at C(1) undergo thermal 1

252 Electron-acceptor-substituted aryl azides and alpha-diaz

253 creased as a function of nitrate dose due to electron-acceptor substrate competition, and nitrate-ind

254 The effect of electron acceptors such as 7,7,8,8-tetracyanoquinodimeth

255 Fe(III)-reducing bacteria (FeRB) to terminal electron acceptors such as Fe(III) minerals.

256 ions enhance electron transport to insoluble electron acceptors such as Fe(III) oxides or electrodes.

257 sfer of electrons to insoluble extracellular electron acceptors such as graphene oxide or electrodes

258 n filaments or pili to respire extracellular electron acceptors such as iron oxides and uranium and t

259 to dinitrogen gas (N(2)) using intracellular electron acceptors such as nitrite (NO(2)(-)) or nitric

260 emical factors including the availability of electron acceptors such as sulfate, the composition of o

261 dithienothiophene (IDTT)-based postfullerene electron acceptors, such as ITIC (2,2'-[[6,6,12,12-tetra

262 er a strong electron donor (TTF) or a strong electron acceptor (TCNQ) and demonstrate that adsorbed l

263 e-substituted truxene 1 was reacted with the electron acceptors tetracyanoethylene (TCNE) and 7,7,8,8

264 with the results for related the tetracyano electron acceptors tetracyanoethylene (TCNE), 7,7,8,8-te

265 turn increases metabolism of the respiratory electron acceptor tetrathionate by Yersinia.

266 a photosystem I-based photocathode using an electron acceptor that enables photocurrent generation u

267 mples of helical molecular semiconductors as electron acceptors that are on par with fullerene deriva

268 This study aims to clarify the potential electron acceptors that could support the process.

269 With PCE as an alternative electron acceptor, the PCB-respiring Dehalococcoides wer

270 her than abrupt transitions between terminal electron acceptors, there is substantial overlap in time

271 As excellent electron acceptor, these quinone species covalently bond

272 By providing a terminal electron acceptor, this rusty carbon sink is effectively

273 pe conjugated polymers are used as efficient electron acceptor to demonstrate high-performance all-po

274 or to stabilize the aminyl radical and sigma-electron acceptor to destabilize the aminyl radical cati

275 It is proposed that Pt functions as an electron acceptor to facilitate charge separation, while

276 ed tetracholorethene (PCE) as an alternative electron acceptor to grow sufficient biomass of strain J

277 was adsorbed on the surface of the QDs as an electron acceptor to quench the RTP emission.

278 g, behaving both as an electron donor and an electron acceptor to react with different surface-termin

279 ultures with glucose and a suitable terminal electron acceptor to stimulate respiratory metabolism is

280 774, which can use nitrate as an alternative electron acceptor to sulfate.

281 r in conjunction with oxygen as the terminal electron acceptor to support gut colonization.

282 lations, indicated that while the binding of electron acceptors to 1 does lead to decreases in g(max)

283 reducing the bioavailability of respiratory electron acceptors to Enterobacteriaceae in the lumen of

284 hed that specific organisms provide terminal electron acceptors to partner species that result in a s

285 an reduce nitrate and nitrite as alternative electron acceptors to sulfate to support growth.

286 ), which acts as a molecular redox mediator (electron acceptor) to the C-Dots (the photosensitizer, i

287 A cluster type of electron acceptor, TPB, bearing four alpha-perylenediimi

288 ay for electrons linking FMN to the terminal electron acceptor, ubiquinone, which is bound in a tunne

289 hich isoindigo was used as the central unit (electron acceptor unit A), triphenylamine as the end cap

290 I-[(6,5) SWNT] superstructures feature a PDI electron acceptor unit positioned at 3 nm intervals alon

291 imately and exclusively involved in specific electron acceptor utilization pathways.

292 the Mo center are transferred to an external electron acceptor via a heme domain, which can adopt two

293 romiscuity of thioredoxins toward downstream electron acceptors was maintained during evolution.

294 C61-butyric acid methyl ester (PC60BM) as an electron acceptor, we observed an increase in average po

295 fact that graphene oxide (GO) can act as an electron acceptor, we used iron(II) and glucose as co-re

296 replacing the commonly used fullerene-based electron acceptor with a perylene diimide-based polymer

297 n be exploited to construct triptycene-based electron acceptors with fine-tuned adjustment of electro

298 ctron donors with low ionization energies or electron acceptors with high electron affinities usually

299 gy gaps of circa 1.2 eV and behave as strong electron acceptors with lowest unoccupied molecular orbi

300 e, this shows that CoFe2O4 NPs are efficient electron acceptors with the CdSe.