ライフサイエンスコーパス: semiconductor nanocrystal

1 tonic nature of light amplification in II-VI semiconductor nanocrystals.

2 ntroversial in quantum-confined systems like semiconductor nanocrystals.

3 strating control of electronic impurities in semiconductor nanocrystals.

4 dependent enthalpic destabilization of doped semiconductor nanocrystals.

5 s particles, lipid vesicles, and fluorescent semiconductor nanocrystals.

6 This has stimulated similar efforts to dope semiconductor nanocrystals.

7 both the size and the surface passivants of semiconductor nanocrystals.

8 ical labeling reagents based on high-quality semiconductor nanocrystals.

9 in increasing the triplet characteristics of semiconductor nanocrystals.

10 icial molecules composed of fused core/shell semiconductor nanocrystals.

11 iationless electronic processes in colloidal semiconductor nanocrystals.

12 copper-based, and related copper-containing semiconductor nanocrystals.

13 uantifying the redox properties of colloidal semiconductor nanocrystals.

14 remarkably similar to those of copper-doped semiconductor nanocrystals.

15 ntially identical to that of the Cu(+)-doped semiconductor nanocrystals.

16 ier densities within free-standing colloidal semiconductor nanocrystals.

17 ant additives for the synthesis of colloidal semiconductor nanocrystals.

18 ptical properties of IV-VI, II-VI, and III-V semiconductor nanocrystals.

19 ies of excess delocalized charge carriers in semiconductor nanocrystals.

20 ions to the physical properties of colloidal semiconductor nanocrystals.

21 light on the complex surface chemistries of semiconductor nanocrystals.

22 he photoluminescence emission of these II-VI semiconductor nanocrystals.

23 Research on fluorescent semiconductor nanocrystals (also known as quantum dots o

24 rovskites, and chemically prepared colloidal semiconductor nanocrystals, also commonly referred to as

25 The Qbead system employs fluorescent Qdot semiconductor nanocrystals, also known as quantum dots,

26 The marriage of colloidal semiconductor nanocrystals and functional organic molecu

27 is a general phenomenon during the growth of semiconductor nanocrystals and likely is a signature of

28 , and DNA templates can direct the growth of semiconductor nanocrystals and metal wires.

29 determining the optoelectronic properties of semiconductor nanocrystals and suggest that more detaile

30 media (including magnetic nanoparticles and semiconductor nanocrystals) and render them biocompatibl

31 Using CdSe and PbS semiconductor nanocrystals, and the ultrastable silver n

32 Luminescent semiconductor nanocrystals are a fascinating class of ma

33 Semiconductor nanocrystals are called artificial atoms b

34 As colloidal semiconductor nanocrystals are developed for a wider ran

35 the pressure-dependent optical properties of semiconductor nanocrystals are discussed.

36 Colloidal semiconductor nanocrystals are emerging as a new class o

37 Thin films comprising semiconductor nanocrystals are emerging for applications

38 In this Minireview, colloidal semiconductor nanocrystals are first introduced.

39 Semiconductor nanocrystals are highly active and robust

40 Semiconductor nanocrystals are one of the first examples

41 Semiconductor nanocrystals are promising photocatalysts

42 erovskite (ABX(3) ), II-VI, III-V, and IV-VI semiconductor nanocrystals are then examined.

43 These semiconductor nanocrystals are traditionally synthesized

44 Luminescent quantum dots (QDs)--semiconductor nanocrystals--are a promising alternative

45 y of using colloidal TiO(2) diluted magnetic semiconductor nanocrystals as building blocks for assemb

46 ectric microspheres and colloidal core/shell semiconductor nanocrystals as gain media, have attracted

47 f of concept for the use of quantum confined semiconductor nanocrystals as photoinitiators, coining t

48 Colloidal semiconductor nanocrystals become increasingly important

49 quantum wells were constructed in one II-VI semiconductor nanocrystal by the epitaxial growth of a b

50 ing lanthanide-doped visible-light-absorbing semiconductor nanocrystals by demonstrating selective ca

51 zation-dependent optical properties of these semiconductor nanocrystals can be caused by a thin type

52 We show that these fluorescent semiconductor nanocrystals can be customized to concurre

53 Finally, semiconductor nanocrystals can be made a variety of shap

54 -confinement effects, the emission colour of semiconductor nanocrystals can be modified dramatically

55 Colloidal semiconductor nanocrystals can close these gaps in numer

56 variation of the PL QY during the growth of semiconductor nanocrystals can explain the unpredictable

57 is presented for the colloidal synthesis of semiconductor nanocrystals capturing the reactions under

58 anic conjugates made with highly luminescent semiconductor nanocrystals (CdSe-ZnS core-shell QDs) and

59 We review the synthesis of semiconductor nanocrystals/colloidal quantum dots in org

60 Colloidal semiconductor nanocrystals combine the physical and chem

61 Nanostructures constructed from metal and semiconductor nanocrystals conjugated to and organized b

62 ights into cation diffusion within colloidal semiconductor nanocrystals, contributing to our fundamen

63 We demonstrate that anisotropic semiconductor nanocrystals display localized surface pla

64 In the particular case of semiconductor nanocrystals (e.g., quantum dots), the mat

65 For semiconductor nanocrystals, efforts to tune ensemble lin

66 , and electronic behaviors of most colloidal semiconductor nanocrystals emerge from materials with li

67 Colloidal semiconductor nanocrystals enable the realization and ex

68 Semiconductor nanocrystals exhibit attractive photophysi

69 de the unambiguous identification that II-VI semiconductor nanocrystals exhibit surface-functionaliza

70 To fully deploy the potential of semiconductor nanocrystal films as low-cost electronic m

71 ive processing method to obtain high-quality semiconductor nanocrystal films.

72 Thus, semiconductor nanocrystal fluorophores offer a more stab

73 Accessing semiconductor nanocrystals free from surface defects is

74 he synthesis of nearly monodisperse CuInS(2) semiconductor nanocrystals (from <2 to 20 nm) was develo

75 The size and shape of semiconductor nanocrystals govern their optical and elec

76 Potentiometric titration of colloidal semiconductor nanocrystals has not been described previo

77 ve polymeric composites photosensitized with semiconductor nanocrystals has yielded data indicating t

78 Colloidal semiconductor nanocrystals have attracted attention for

79 Monodispersed metal and semiconductor nanocrystals have attracted great attentio

80 Colloidal semiconductor nanocrystals have attracted significant in

81 Traditional semiconductor nanocrystals have been widely demonstrated

82 Colloidal semiconductor nanocrystals have emerged as promising act

83 Colloidal copper-doped semiconductor nanocrystals have recently attracted a gre

84 Semiconductor nanocrystals, however, are highly photo-st

85 stals creates novel CdX/ZnO heterostructured semiconductor nanocrystals (HSNCs) with extensive type-I

86 ton, a photogenerated electron-hole pair, in semiconductor nanocrystals in solution.

87 the long-term fate and potential toxicity of semiconductor nanocrystals in vivo.

88 pts developed are likely to be applicable to semiconductor nanocrystals interfaced with molecular chr

89 Inorganic semiconductor nanocrystals interfaced with spin-triplet

90 omena involves the organization of colloidal semiconductor nanocrystals into long-range-ordered super

91 nd compositional origins of midgap states in semiconductor nanocrystals is a longstanding challenge i

92 Doping lanthanide ions into colloidal semiconductor nanocrystals is a promising strategy for c

93 Heteroepitaxy on colloidal semiconductor nanocrystals is an essential strategy for

94 diffusion-based synthesis of doped colloidal semiconductor nanocrystals is demonstrated.

95 The controllable synthesis of semiconductor nanocrystals is important for exploiting t

96 dely studied, but its influence on colloidal semiconductor nanocrystals is still poorly understood.

97 For semiconductor nanocrystals, it was originally proposed t

98 let and triplet characteristics of the donor semiconductor nanocrystal itself.

99 l disadvantage: unlike molecular structures, semiconductor nanocrystals lack a specific chemical form

100 Herein, we report that unlike conventional semiconductor nanocrystals, lead halide perovskite nanoc

101 is represented by colloidal lanthanide-doped semiconductor nanocrystals (LnSNCs).

102 A (nano)crystal-clear view: With doped semiconductor nanocrystals, local chemical events can be

103 Our analysis shows that semiconductor nanocrystals localized at the ITIES should

104 Quasi-one-dimensional (1D) semiconductor nanocrystals manifest linearly polarized e

105 ophysical properties that are of interest in semiconductor nanocrystal materials, such as the ubiquit

106 The ligand chemistry of colloidal semiconductor nanocrystals mediates their solubility, ba

107 to switch between plasmonic and fluorescent semiconductor nanocrystals might lead to their successfu

108 of mouse fibroblast cells as well as single semiconductor nanocrystal molecules.

109 etail the synthesis of different families of semiconductor nanocrystals, namely elemental group IV co

110 The initial formation of semiconductor nanocrystals/nanoclusters, that is, nuclea

111 A series of highly efficient semiconductor nanocrystal (NC) photocatalysts have been

112 These doped nanocrystals, mainly self-doped semiconductor nanocrystals (NCs) and extrinsically-doped

113 spective, we examine energy transfer between semiconductor nanocrystals (NCs) and pi-conjugated molec

114 Pb-based semiconductor nanocrystals (NCs) are versatile building

115 Colloidal semiconductor nanocrystals (NCs) are widely studied as b

116 g electron-hole exchange interaction (EI) in semiconductor nanocrystals (NCs) gives rise to a large (

117 Colloidal semiconductor nanocrystals (NCs) have emerged as promisi

118 The application of semiconductor nanocrystals (NCs) in optoelectronic devic

119 Semiconductor nanocrystals (NCs) interfaced with molecul

120 Mid-gap luminescence in copper (Cu(+))-doped semiconductor nanocrystals (NCs) involves recombination

121 design and synthesis of narrow-gap colloidal semiconductor nanocrystals (NCs) is an important step to

122 for measuring redox potentials of colloidal semiconductor nanocrystals (NCs) is described.

123 A unique ability of semiconductor nanocrystals (NCs) is the generation and a

124 Photon upconversion employing semiconductor nanocrystals (NCs) makes use of their larg

125 Semiconductor nanocrystals (NCs) offer prospective use a

126 and understanding of dynamics of excitons in semiconductor nanocrystals (NCs) or quantum dots (QDs).

127 he field of visible-range emitting colloidal semiconductor nanocrystals (NCs) owing to their exceptio

128 Colloidal semiconductor nanocrystals (NCs) provide convenient "bui

129 Quantifying stimulated emission in semiconductor nanocrystals (NCs) remains challenging due

130 ave been developed in recent years to render semiconductor nanocrystals (NCs) stable in water and bio

131 Many optoelectronic processes in colloidal semiconductor nanocrystals (NCs) suffer an efficiency de

132 Inorganic semiconductor nanocrystals (NCs) with bright, stable, an

133 The properties of colloidal quantum-confined semiconductor nanocrystals (NCs), including zero-dimensi

134 For colloidal semiconductor nanocrystals (NCs), replacement of insulat

135 onstrate the electrochemical capture of CdSe semiconductor nanocrystals (NCs), with thiophene-termina

136 rust in the field of colloidal ligand-capped semiconductor nanocrystals (NCs).

137 lity of the PL properties of the as-prepared semiconductor nanocrystals observed previously.

138 ied out on CdSe and CdTe core and core-shell semiconductor nanocrystals of spherical shape.

139 Colloidal semiconductor nanocrystals offer a unique opportunity to

140 Semiconductor nanocrystals offer an enormous diversity o

141 Electronically doped colloidal semiconductor nanocrystals offer valuable opportunities

142 ameworks for understanding the adsorption of semiconductor nanocrystals on surfaces, paying particula

143 dent optical properties of II-VI zinc-blende semiconductor nanocrystals on the basis of ligand-exchan

144 s related to the generation of dielectric or semiconductor nanocrystals on the surface of the electro

145 Semiconductor nanocrystal optical and charge transport p

146 ere a protease sensing nanoplatform based on semiconductor nanocrystals or quantum dots (QDs) and bio

147 properties and the potential applications of semiconductor nanocrystals, or colloidal quantum dots, d

148 eration (MEG) is a process that can occur in semiconductor nanocrystals, or quantum dots (QDs), where

149 y is negative in some prototypical colloidal semiconductor nanocrystals, or quantum dots with organic

150 nt label and immobilization support, such as semiconductor nanocrystals, porous noble metals, graphen

151 roblem is mitigated through the inclusion of semiconductor nanocrystals possessing a relatively narro

152 We find that semiconductor nanocrystals prepared as colloids can be m

153 , and fluorescence quantum yield curves from semiconductor nanocrystal probes as a function of temper

154 Plasmonic doped semiconductor nanocrystals promise exciting opportunitie

155 Semiconductor nanocrystals provide a mechanism to conver

156 The surface chemistry of colloidal semiconductor nanocrystals (QDs) profoundly influences t

157 eduction or oxidation reactions at colloidal semiconductor nanocrystal quantum dot (QD) surfaces are

158 Semiconductor nanocrystal quantum dots (NQDs) comprise a

159 ndamental physics and chemistry of colloidal semiconductor nanocrystal quantum dots (QDs) have been c

160 The use of semiconductor nanocrystal quantum dots (QDs) in optoelec

161 nce quantum yield (PLQY) CdSe-core CdS-shell semiconductor nanocrystal quantum dots (QDs) to covalent

162 Semiconductor nanocrystal quantum dots (QDs), owing to t

163 how that the optical properties of colloidal semiconductor nanocrystal quantum dots can be tuned by a

164 fundamental optical properties of colloidal semiconductor nanocrystal quantum dots were obscured by

165 fer fluorescent beads (TransFluoSpheres) and semiconductor nanocrystal quantum dots, that can be exci

166 g and fundamental understanding of colloidal semiconductor nanocrystals (quantum dots) are advancing

167 The use of semiconductor nanocrystals (quantum dots) as fluorescent

168 Fluorescent semiconductor nanocrystals (quantum dots) have the poten

169 re, we use the unique spectral properties of semiconductor nanocrystals (quantum dots) to extend the

170 at permit strong interactions with colloidal semiconductor nanocrystals (quantum dots, QDs) and gold

171 trong and stable interactions with colloidal semiconductor nanocrystals (quantum dots, QDs) and rende

172 we use the stochastic luminescence of single semiconductor nanocrystals (quantum dots, QDs) to detect

173 Semiconductor nanocrystals, quantum dots (QDs), offer co

174 lized a self-assembled biosensor composed of semiconductor nanocrystals, quantum dots, carrying a con

175 ent optical properties of highly luminescent semiconductor nanocrystals render them ideal fluorophore

176 anoparticles like polystyrene nanoparticles, semiconductor nanocrystals (SC NC), and noble metal part

177 Semiconductor nanocrystal solids are attractive material

178 eneck limiting the widespread application of semiconductor nanocrystal solids is their poor conductiv

179 ge positions of lead sulfide (PbS) colloidal semiconductor nanocrystals, specifically quantum dots (Q

180 ights into the design and functioning of new semiconductor nanocrystal structures under high-pressure

181 omposed of conjugated polymers and inorganic semiconductor nanocrystals such as quantum dots (QDs) an

182 which are commonly used as the solvents for semiconductor nanocrystal synthesis, is not entirely ine

183 ic coat on the surface of colloidal CdSe/ZnS semiconductor nanocrystals synthesized from hydrophobic

184 Hydrophilic functional semiconductor nanocrystals that are also compact provide

185 ere we report ternary core/shell CdZnSe/ZnSe semiconductor nanocrystals that individually exhibit con

186 introducing dopants inside the size-confined semiconductor nanocrystals, the controlled dopant-host l

187 tization of surface-anchored organic dyes on semiconductor nanocrystals through energy transfer mecha

188 olloidal transition-metal-doped chalcogenide semiconductor nanocrystals (TM2+:CdSe, TM2+:CdS, etc.) h

189 let and triplet energy transfer from excited semiconductor nanocrystals to attached dye molecules rem

190 cs, and solar energy conversion, interfacing semiconductor nanocrystals to bulk materials is a key in

191 The optical properties of semiconductor nanocrystals under static and dynamic anis

192 cyclotron motion of free charge carriers in semiconductor nanocrystals using an external magnetic fi

193 report narrow-band absorption enhancement of semiconductor nanocrystals via Forster resonance energy

194 on in the synthesis of colloidal group II-VI semiconductor nanocrystals was studied using 1H, 13C, an

195 ligands, generation-3 (G3) dendrons, on each semiconductor nanocrystal were globally cross-linked thr

196 Semiconductor nanocrystals were prepared for use as fluo

197 ups and (2) reducing the PL quantum yield of semiconductor nanocrystals, which was achieved through s

198 h wavefunction leakage out of the core/shell semiconductor nanocrystals, while the charge/energy tran

199 ctures of metals and can also be achieved in semiconductor nanocrystals with appreciable free carrier

200 to controllably investigate the reactions of semiconductor nanocrystals with LCTEM, because of the hi

201 ic study on the doping of CdS/ZnS core/shell semiconductor nanocrystals with Mn based on a three-step

202 Semiconductor nanocrystals with narrow and tunable fluor

203 mpurity doping has been widely used to endow semiconductor nanocrystals with novel optical, electroni

204 that combine the light-harvesting ability of semiconductor nanocrystals with the catalytic activity o

205 evement of LSPRs by free carrier doping of a semiconductor nanocrystal would allow active on-chip con

206 ectroelectrochemical experiments on wide-gap semiconductor nanocrystals (ZnSe and Mn(2+)-doped ZnSe)