ライフサイエンスコーパス: photoinduced electron transfer

1 on oxidation of the phenol by intramolecular photoinduced electron transfer.

2 the associated nanoparticles on the basis of photoinduced electron transfer.

3 ntegrate singlet-singlet energy transfer and photoinduced electron transfer.

4 reas its betaine isomer strongly quenches by photoinduced electron transfer.

5 g (1)DTEc-P-C(60) and precluding significant photoinduced electron transfer.

6 irs cyclobutylpyrimidine dimers by ultrafast photoinduced electron transfer.

7 a decrease in the efficiency of collisional photoinduced electron transfer.

8 n the direction opposite that of the initial photoinduced electron transfer.

9 PY-ATP) was quenched by Fe(III) ions through photoinduced electron transfer.

10 ryl moiety to reduce the process of acceptor photoinduced electron transfer.

11 h dielectric constants (DMF), most likely by photoinduced electron transfer.

12 Photoinduced electron transfer and final regeneration of

13 sized and investigated in order to elucidate photoinduced electron transfer and hole migration mechan

14 ta rule out substrate activation by means of photoinduced electron transfer and instead support a mec

15 The photoinduced electron transfer and intramolecular charge

16 nceptual analogies between bridge effects in photoinduced electron transfer and optical intervalence

17 moiety, distinctly rectify both the forward photoinduced electron transfer and the subsequent charge

18 generated during pyrimidine dimer repair by photoinduced electron transfer, and it has been suggeste

19 flavine to achieve repair through reductive photoinduced electron transfer are presented.

20 earch to be able to study photocatalysis and photoinduced electron transfer as unifying themes that u

21 We studied the photoinduced electron transfer at the H2O/TiO2(110) inte

22 A new aqueous-compatible photoinduced electron transfer based photolabile protect

23 Here, we show that the spontaneity of photoinduced electron transfer between a thioamide and a

24 An efficient photoinduced electron transfer between coumarin and dG s

25 vibrational excitation of the bridge changes photoinduced electron transfer between donor (dimethylan

26 hat after photoexcitation of the donor HBC a photoinduced electron transfer between HBC and PDI can o

27 strate that SF competes with the traditional photoinduced electron transfer between pentacene and C60

28 x)/lambda(em) = 490 nm/510 nm) suggests that photoinduced electron transfer between the catechol and

29 robe fluorescence is achieved through unique photoinduced electron transfer between the naphthalimide

30 relationships are consistent with control of photoinduced electron transfer by Marcus-like excess fre

31 has been established that the first step of photoinduced electron transfer can be fast, of order 100

32 ith cationic fullerene derivatives to create photoinduced electron-transfer cascades that lead to exc

33 cloreversion of the pyrimidine dimer through photoinduced electron transfer catalysis.

34 Cu(I) and PET (photoinduced electron transfer) catalysis are treated se

35 Driving forces for photoinduced electron transfer (DeltaG(ET)) and back ele

36 We show that these sites can be revealed by photoinduced electron transfer dissociation, which produ

37 complex was found to improve the rate of the photoinduced electron transfer due to the favorable stru

38 Supramolecular photoinduced electron transfer dynamics between coumarin

39 gh an efficient photochemical route requires photoinduced electron transfer (ET) from a light harvest

40 dynamics (NAMD) simulation of the ultrafast photoinduced electron transfer (ET) from a PbSe quantum

41 The observed 6-fs photoinduced electron transfer (ET) from the alizarin ch

42 (epsilon(S)) within a protein matrix after a photoinduced electron transfer (ET) reaction.

43 redox changes can be efficiently achieved by photoinduced electron transfer (ET) through a series of

44 Photoinduced electron-transfer (ET) occurs between a neg

45 f this complex with the acid to suppress the photoinduced electron-transfer fluorescent quenching cau

46 The optical sensor is based on a novel PET (photoinduced electron transfer) fluoroionophore immobili

47 Intramolecular photoinduced electron transfer from a hydrazine unit to

48 pairs cyclobutylpyrimidine dimers (CPDs) via photoinduced electron transfer from a reduced flavin ade

49 that employs a photochromic moiety to direct photoinduced electron transfer from an excited state don

50 The reaction begins with the photoinduced electron transfer from CsPbX3 NCs to dihalo

51 ransfer mechanism from Hb/AuNCs to Cyt c and photoinduced electron transfer from DNA/AgNCs to the apt

52 gy calculations suggested the possibility of photoinduced electron transfer from excited metal-quinol

53 A photoinduced electron transfer from mesitylene to 2 has

54 Taken together, the data are consistent with photoinduced electron transfer from reduced FAD to subst

55 dynamics of free carrier formation following photoinduced electron transfer from the conjugated polym

56 e site and the 6-4PP, induced by the initial photoinduced electron transfer from the excited flavin c

57 Photoinduced electron transfer from the excited singlet

58 solved spectroscopy experiments demonstrated photoinduced electron transfer from the graphene to the

59 PM labels completely quenched, presumably by photoinduced electron transfer from the neighboring Trp-

60 macrocycle in 2-methyltetrahydrofuran reveal photoinduced electron transfer from the porphyrin first

61 communication was observed through efficient photoinduced electron transfer from the ruthenocene unit

62 uenching of the fluorescence is explained by photoinduced electron transfer from the tertiary amine t

63 An efficient photoinduced electron transfer from the tetraphenylborat

64 Upon excitation at 420 nm, photoinduced electron-transfer from the dimethylaniline

65 Photonic control of photoinduced electron transfer has been demonstrated in

66 s of photocatalysis are discussed, including photoinduced electron transfer, hydrogen atom transfer,

67 Photoinduced electron transfer in a self-assembled singl

68 Photoinduced electron transfer in biological systems, es

69 Since the discovery a decade ago of rapid photoinduced electron transfer in DNA over a distance >4

70 reevaluation of the existing literature for photoinduced electron transfer in DNA.

71 The distance dependence of photoinduced electron transfer in duplex DNA was determi

72 Photoinduced electron transfer in fluorescent proteins f

73 Control measurements of photoinduced electron transfer in O(2)-inactive PSII sho

74 Photoinduced electron transfer in self-assembled single-

75 Photoinduced electron transfer in self-assemblies of por

76 Here we report spectroscopic measurements of photoinduced electron transfer in synthetic DNA that yie

77 The mechanism of this photoinduced electron transfer in the solid state and th

78 ghly efficient energy transfer and ultrafast photoinduced electron transfer in well-defined multichro

79 The photochemical mechanisms examined are photoinduced electron transfer, internal charge transfer

80 the phenomenon of fluorescence quenching by photoinduced electron transfer into the isolated NTD of

81 Redox sensing is mediated by a photoinduced electron transfer intramolecular switch.

82 Density functional theory studies validate a photoinduced electron transfer intramolecular switching

83 Photoinduced electron transfer is central to many biolog

84 (60)) triad molecule in which intramolecular photoinduced electron transfer is controlled by the phot

85 ition of coenzyme to the protein the rate of photoinduced electron transfer is increased.

86 Intramolecular photoinduced electron transfer leading to charge-separat

87 A photoinduced electron transfer leading to the formation

88 sible photonically controlled intramolecular photoinduced electron transfer may eventually be useful

89 The results support a photoinduced electron transfer mechanism for the 1,3-rea

90 e reveal the existence of a new, low-energy, photoinduced electron-transfer mechanism in molecules he

91 to be suitable for the preparation of on/off photoinduced electron transfer modulated fluorescent sen

92 inated conditions, where the primary step of photoinduced electron transfer obeys to Hammett linear f

93 pectra of these hairpins established that no photoinduced electron transfer occurs for a hairpin that

94 ity functional theory, we establish that the photoinduced electron transfer occurs several times fast

95 Indeed, either photoinduced electron transfer or intersystem crossing c

96 ion center complex has been constructed, and photoinduced electron transfer originating in this supra

97 emphasis on differences between thermal and photoinduced electron transfer, oxidative and reductive

98 xchange is an effective model to rationalize photoinduced electron transfer, particularly when molecu

99 Rhodamine Voltage Reporters, or RhoVRs, use photoinduced electron transfer (PeT) as a trigger for vo

100 and theoretical studies points to a role for photoinduced electron transfer (PET) between a highly co

101 uence of the thermodynamic driving force for photoinduced electron transfer (PET) between single-wall

102 , which is mainly governed by changes in the photoinduced electron transfer (PET) driving force betwe

103 SB] complex to its protein inhibitor form by photoinduced electron transfer (PET) from a colloidal Pb

104 ATP fluorescence resulting from an oxidative-photoinduced electron transfer (PET) from the BODIPY-ATP

105 Occurrence of ultrafast photoinduced electron transfer (PET) leading to the form

106 ender ultra-pH response over the H-dimer and photoinduced electron transfer (PeT) mechanisms.

107 lacement of the internal charge transfer and photoinduced electron transfer (PET) modulators on the s

108 Photoinduced electron transfer (PET) occurs from a Ru(II

109 ere we reported the development of the first photoinduced electron transfer (PeT) probe (1) to direct

110 r in the medium is attributable to arrest in photoinduced electron transfer (PET) process.

111 te the electron inoculation to TNT through a photoinduced electron transfer (PET) process.

112 n(2+) cation to the sensor, which inhibits a photoinduced electron transfer (PET) quenching pathway.

113 n(2+) cation to the sensor, which inhibits a photoinduced electron transfer (PET) quenching pathway.

114 QMeNN, whose fluorescence is deactivated by photoinduced electron transfer (PeT) quenching that resu

115 sensors has been attributed to some form of photoinduced electron transfer (PET) quenching, which is

116 crown ether receptor due to reduction of the photoinduced electron transfer (PET) quenching.

117 proach to sensing of carbon dioxide based on photoinduced electron transfer (PET) quenching.

118 cence response, most commonly by suppressing photoinduced electron transfer (PET) quenching.

119 Fluorescent photoinduced electron transfer (PET) sensor molecules ta

120 er(I)-responsive fluorescent probes based on photoinduced electron transfer (PET) switching consisten

121 oltage with high speed and sensitivity using photoinduced electron transfer (PeT) through a conjugate

122 extension to modular switch systems based on photoinduced electron transfer (PET) towards the emulati

123 IR voltage sensitive dyes that make use of a photoinduced electron transfer (PeT) trigger for optical

124 l reconfiguration dynamics of the chain, and photoinduced electron transfer (PET), a contact-based me

125 ate locally excited triplet states by way of photoinduced electron transfer (PeT), followed by recomb

126 Photoinduced electron transfer (PET), which causes pH-de

127 electron affinity material (acceptor) [i.e., photoinduced electron transfer (PET), which we term Chan

128 The dye/enzyme hybrids are composed of a photoinduced electron transfer (PeT)-based fluorescent v

129 2]pseudorotaxane complex with an interrupted photoinduced electron transfer (PET)-coupled fluorescenc

130 are triplet-state quenchers that operate via photoinduced electron transfer (PeT).

131 This deoxygenation is accomplished via a photoinduced electron-transfer (PET) mechanism using car

132 studies have revealed the possibility for a photoinduced electron-transfer (PET) pathway.

133 8-crown-6 derivatives perform as fluorescent photoinduced electron-transfer (PET) sensors with very s

134 Photoinduced electron transfer plays key roles in many a

135 Ultrafast photoinduced electron transfer preceding energy equilibr

136 catalyst system is achieved by a consecutive photoinduced electron transfer process (conPET) and allo

137 dyads is associated with an extremely rapid photoinduced electron-transfer process, k(ET) approximat

138 10(10)-10(11) s(-1), suggesting an efficient photoinduced electron-transfer process.

139 he rates of individual steps in a reversible photoinduced electron-transfer process.

140 Only in the latter case does a cascade of photoinduced electron transfer processes afford the PTZP

141 ies suitable for cascade energy transfer and photoinduced electron transfer processes in appropriate

142 c systems and in chemical systems capable of photoinduced electron transfer processes in general.

143 ical reactions, particularly those involving photoinduced electron transfer processes, establish a su

144 lecules to studies in recent years involving photoinduced electron-transfer processes occurring in na

145 Described here is a previously unreported photoinduced electron-transfer-quenched probe (HMBQ-Nap

146 t absorption spectroscopy to investigate the photoinduced electron transfer rates, which are also ver

147 he effect of the helix dipole in controlling photoinduced electron-transfer rates.

148 ion, 2J, in a radical ion pair produced by a photoinduced electron transfer reaction can provide a di

149 the radical pair (T)[AQDS(3-*) Trp(*)] by a photoinduced electron transfer reaction from tryptophan

150 ) with zinc(II) ions allowed us to study the photoinduced electron-transfer reaction (3)Zncyt c(6) +

151 The unimolecular rate constant for the photoinduced electron-transfer reaction 3Zncyt/pc(II) --

152 the range of 2.5-20.0 mM) on the kinetics of photoinduced electron-transfer reaction 3Zncyt/pc(II) --

153 (in the range 2.5-100 mM) on the kinetics of photoinduced electron-transfer reaction 3Zncyt/pc(II)-->

154 Laser flash photolysis is used to study the photoinduced electron-transfer reaction cyt(III)//pc(II)

155 A novel, photoinduced electron-transfer reaction mechanism involv

156 gates, and sequence defined polymers through photoinduced electron transfer reactions are also invest

157 ount of the fundamentals and applications of photoinduced electron transfer reactions in polymer synt

158 diffusion free, rate constant of bimolecular photoinduced electron transfer reactions, fluorescence q

159 nces between radical ion pairs produced from photoinduced electron transfer reactions.

160 findings on the involvement of exciplexes in photoinduced electron transfer reactions.

161 the charge-separated excited state formed in photoinduced electron transfer reactions.

162 The dynamics of bimolecular photoinduced electron-transfer reactions has been invest

163 In this paper, we have investigated the photoinduced electron-transfer reactions of zinc-substit

164 s the synthesis, photophysical behavior, and photoinduced electron-transfer reactivity of multichromo

165 ence quenching was attributed to significant photoinduced electron transfer, resulting in nonradiativ

166 photoactivated living polymerization, named photoinduced electron transfer-reversible addition-fragm

167 By developing cytocompatible PET-RAFT (photoinduced electron transfer-reversible addition-fragm

168 e (ZnTPP)) were able to selectively activate photoinduced electron transfer-reversible addition-fragm

169 Fluorescent photoinduced electron-transfer sensors were made from p-

170 duction to the principle of fluorescent PET (photoinduced electron transfer) sensors and switches, th

171 We prepared a series of potential PET (photoinduced electron transfer) sensors on the basis of

172 (tau = 41 ps), whose excited state decays by photoinduced electron transfer (tau = 830 ps) to yield B

173 Following photoinduced electron transfer, the rate of charge recom

174 The photoinduced electron-transfer thermodynamics of the der

175 ely oxidize guanine were used to investigate photoinduced electron transfer through the DNA pi-stack

176 We report the use of photoinduced electron transfer to drive reductive cleava

177 ion implicate a photoredox pathway involving photoinduced electron transfer to generate a key radical

178 ation of the porphyrin moiety is followed by photoinduced electron transfer to give a DHP-P(*)(+)-C(6

179 Photoinduced electron transfer to N-alkoxypyridiniums, w

180 lly quantitatively quenched due to ultrafast photoinduced electron transfer to polyviologen.

181 Photoinduced electron transfer to the fullerene excited

182 [Fe(II)cyt b562] folding can be triggered by photoinduced electron transfer to unfolded Fe(III)cyt b5

183 The folding reaction was triggered by photoinduced electron transfer to unfolded Fe(III)cyt c

184 a unified design, based on the principle of photoinduced electron transfer, to access a panel of hig

185 osition 2, which are generated via oxidative photoinduced electron transfer, undergo anomalous fragme

186 clobutane pyrimidine dimers in DNA or RNA by photoinduced electron transfer using longer wavelength U

187 The thermodynamics of photoinduced electron transfer were expected to become i

188 interactions between Pc and BQ, and exhibits photoinduced electron transfer with a lifetime of 40 ps

189 e porphyrin moiety of DHI-P-C(60) results in photoinduced electron transfer with a time constant of 2

190 hyrin gives DTEo-(1)P-C(60), which undergoes photoinduced electron transfer with a time constant of 2

191 f the porphyrin of BT-P-C(60) is followed by photoinduced electron transfer with a time constant of 5

192 zed" excited state of the complex reacts via photoinduced electron transfer with a variety of viologe

193 ellandrene and 4-methoxystyrene catalyzed by photoinduced electron transfer with tris(4-methoxyphenyl

194 Under basic conditions, photoinduced electron transfer yielding a hydroxysulfura