ライフサイエンスコーパス: nanocrystal

1 l characterization and the properties of the nanocrystals.

2 ndgaps similar to Cu(3)VS(4) and Cu(3)VSe(4) nanocrystals.

3 ntrollable plastic reversibility in metallic nanocrystals.

4 further exploration into metal chalcohalide nanocrystals.

5 oles in guiding the shape evolution of metal nanocrystals.

6 reduction of metal ions and the formation of nanocrystals.

7 we substitute micrometer-size particles with nanocrystals.

8 nd kinetics involved in a synthesis of metal nanocrystals.

9 synthesis of random alloy and intermetallic nanocrystals.

10 lifetime with respect to the aspect ratio of nanocrystals.

11 rison to reported performance of Cu(3)VSe(4) nanocrystals.

12 sitionally and architecturally sophisticated nanocrystals.

13 surface, and impacts on the growth of metal nanocrystals.

14 X-ray pump/X-ray probe experiment on protein nanocrystals.

15 the structures of resulting Au-Ag core-shell nanocrystals.

16 eviously reported values among all colloidal nanocrystals.

17 of liposomal sample containing ciprofloxacin nanocrystals.

18 reported orthorhombic cube shaped CsPbBr(3) nanocrystals.

19 rature on the nucleation and growth of metal nanocrystals.

20 in determining the final shape of the metal nanocrystals.

21 echanism involved in the growth of inorganic nanocrystals.

22 ic ligands that densely cover the surface of nanocrystals.

23 characteristics as compared to single-domain nanocrystals.

24 f light amplification in II-VI semiconductor nanocrystals.

25 ent translational and orientational order of nanocrystals.

26 dict synthetic pathways for shape-controlled nanocrystals.

27 different planar defects formed in CsPbBr(3) nanocrystals.

28 n and subsequent attachment and alignment of nanocrystals.

29 and short-ranged orientational alignment of nanocrystals.

30 lid alternative to well established Cd-based nanocrystals.

31 for the improvement of synthesis pathways of nanocrystals.

32 uence-specific morphologies in various metal nanocrystals.

33 d also help in obtaining films of connecting nanocrystals.

34 s of surfactant-stabilized lead chalcohalide nanocrystals.

35 interaction between the ligands of adjacent nanocrystals.

36 twinning nucleation mechanism in HCP rhenium nanocrystals.

37 ow loadings (8-16 ppm) of Pt on shaped ceria nanocrystals.

38 d is further reduced to tetravalent UO(2) as nanocrystals (~1-2 nm) with random orientations inside n

39 te layout accommodates volume changes of the nanocrystals (~25%), which together leads to complete ch

40 cale character of nanocomposites is crucial: nanocrystals (5-50 nm) offer enhanced chemical reactivit

41 ical microscopy for a model dielectric ionic nanocrystal, a silver halide NP.

42 that amylose and amylopectin are composed by nanocrystals, according to the PDF-4+2019 software.

43 l in vitro data demonstrated that these gold nanocrystals act via a novel energy metabolism pathway i

44 Larger nanocrystals adopt the beta-Sn tetragonal structure, whi

45 age of active surface sites remaining on the nanocrystals after DNA passivation.

46 s expected to work for other combinations of nanocrystals and capping agents.

47 extracted cellulose nanoparticles (cellulose nanocrystals and cellulose nanofibrils (CNF)) and natura

48 ions were not seen in chalcogenide and oxide nanocrystals and exclusively observed in perovskite nano

49 Li(x)NiO nanoclusters and polycrystalline Ni nanocrystals and its exceptional activities toward the h

50 olyatomic species ranging from small ions to nanocrystals and large protein complexes.

51 Cellulose nanocrystals and nanofibrils may readily bind drugs, pro

52 Different from the monometallic nanocrystals and other types of structural nanocrystals

53 arts from light absorption by the individual nanocrystals and subsequent excitation of out-of-equilib

54 cleation model suggests that the size of the nanocrystals and the host-guest interfaces are critical

55 coated with thin layers of calcium carbonate nanocrystals and the surface was modified to exhibit oil

56 ities for the structural characterization of nanocrystals and their assemblies using transmission ele

57 The colloidal stability of the Al nanocrystals and their size is determined by the molecul

58 transferrin binding to cadmium chalcogenide nanocrystals and their subsequent delivery into cancer c

59 entals to the insights of crystal growths of nanocrystals and would also help in obtaining films of c

60 tment did not alter the thermal stability of nanocrystals, and BCNCs had high thermal stability like

61 late (BTC(3-) ) ligand reagents, to form MOF nanocrystals, and collect and characterise them on a TEM

62 lected to investigate the formation of rutin nanocrystals, and its incorporation in barley starch pyr

63 tives for studies on drug-induced nephritis, nanocrystals, and local lipid or carbohydrates alteratio

64 osets, thermoplastics, composites, cellulose nanocrystals, and nanofibers.

65 e.g., semiconductor quantum dots, perovskite nanocrystals, and rare earth doped phosphors), it is sur

66 distinguish intrinsic defects from extrinsic nanocrystals, and the findings pave the way for new desi

67 Nanocrystals are a state-of-matter in the border area be

68 Ultra-small Sn nanocrystals are achieved through our highly non-equilib

69 Furthermore, the small CeO(2):Eu(3+) nanocrystals are combined in a single-step with larger,

70 perty-structure probe reveals that CsPbBr(3) nanocrystals are contributing to the green emission of C

71 work demonstrates that bimetallic core-shell nanocrystals are excellent probes for the local physicoc

72 Here we demonstrated that perovskites nanocrystals are exceptional candidates as photocatalyst

73 the natural chiral organization of cellulose nanocrystals are fabricated.

74 es and related properties of colloidal metal nanocrystals are key to the realization of their vast ap

75 s previously assumed: the c-axes of adjacent nanocrystals are most frequently mis-oriented by 1 degre

76 Semiconductor nanocrystals are promising photocatalysts for a wide ran

77 ning to orthorhombic CsPbBr(3), the obtained nanocrystals are stabilized by 12 facets ({200}, {020},

78 lecules into electronically coupled CsPbI(3) nanocrystal arrays is confirmed via infrared and photoel

79 y of the electronic properties of perovskite nanocrystal arrays is detailed using physically adsorbed

80 Current methods to prepare nanocrystal arrays lack the precision, generalizability,

81 lity are improved by F(4) TCNQ doping of the nanocrystal arrays.

82 or the use of quantum confined semiconductor nanocrystals as photoinitiators, coining the term Quantu

83 Considering the variety of controlled nanocrystals available, our findings open a new avenue f

84 al mechanism for enhancing charge balance in nanocrystal-based electroluminescent devices.

85 ron-hole injection for exciton generation in nanocrystal-based electroluminescent devices.

86 The operation of nanocrystal-based light-emitting diodes relies on the ra

87 uired for the fabrication of device-quality, nanocrystal-based metamaterials [Q.

88 As a proof-of-concept, we have synthesized a nanocrystal-based, dynamically tunable metasurface (an a

89 In this study, bacterial cellulose nanocrystals (BCNCs) were obtained from bacterial cellul

90 s as a feasible approach to enhance specific nanocrystal-biomolecule associations for improving cellu

91 In Ag-CsPbBr(3) nanocrystals, both the plasmon-induced hot electron and

92 hat primary ammonium ions led to six faceted nanocrystals, but tertiary ammonium ions obtained in thi

93 structures of individual colloidal platinum nanocrystals by developing atomic-resolution 3D liquid-c

94 ntal optical properties of halide perovskite nanocrystals by focusing on their linear optical propert

95 r-level understanding of the formation of Al nanocrystals by titanium(IV) isopropoxide-catalyzed deco

96 , which synthesize membrane-bounded magnetic nanocrystals called magnetosomes via a biologically cont

97 n(III), incorporated into ZnAl(2)O(4) spinel nanocrystals can achieve PLQYs of 50% for down-shifting

98 ow that the polar surface structure of oxide nanocrystals can be investigated by applying (17)O and (

99 demonstrated that small truncated-octahedral nanocrystals can self-assemble into a range of superstru

100 k, we utilize a combination of uniform Pd/Pt nanocrystal catalysts and theory to reveal the catalytic

101 Structural relationships in nanocrystal cation exchange are therefore dynamic, and i

102 ious research has focused on factors such as nanocrystal charging, the ratio of ligand length to core

103 leic acid (OA, 1, 2, and 3%, w/w), cellulose nanocrystal (CNC, 0.1, 0.3, and 0.5%, w/w), and 2% chito

104 ns of cellulose nanofibrils (CNF), cellulose nanocrystals (CNC), and kaolin-microfibrillated cellulos

105 ing interactions between rice bran cellulose nanocrystals (CNCs) and lauric arginate (LAE), which is

106 Aqueous suspensions of cellulose nanocrystals (CNCs) are known to self-assemble into a ch

107 ed, namely, aqueous dispersions of cellulose nanocrystals (CNCs) that form superstructured, adherent

108 sustainable nanomaterials such as cellulose nanocrystals (CNCs) to be utilized in industrial applica

109 dispersible 'nanocage' composed of cellulose nanocrystals (CNCs), which are magnetically powered by i

110 In response to gold nanocrystals, co-cultured central nervous system cells e

111 Magnetosomes are intracellular magnetic nanocrystals composed of magnetite (Fe(3)O(4)) or greigi

112 We illustrate our approach with a multigrain nanocrystal comprising a Co(3)O(4) nanocube core that ca

113 ciples, we can produce a range of multigrain nanocrystals containing distinct GB defects.

114 materials to date have made exclusive use of nanocrystals containing toxic elements, precluding their

115 NCs crystallinity increased, and the size of nanocrystals decreased with increasing 10 degrees C hydr

116 preparation of clean-surfaced, faceted gold nanocrystals demonstrated robust remyelinating activity

117 those fabricated through inkjet printing of nanocrystal dispersions.

118 solution-phase synthesis of ~4 nm defective nanocrystals (DNCs) composed of copper, aluminum, zinc,

119 ridges are initially inserted between a CdSe nanocrystal donor and anthracene acceptor, the rate of T

120 Metal-oxide nanocrystals doped with aliovalent atoms can exhibit tun

121 -dimensional strain evolution of single gold nanocrystals during a catalytic CO oxidation reaction un

122 rs, and light-emitting diodes) and colloidal nanocrystals (e.g., in liquid crystal displays and futur

123 st of in-situ formed high-quality perovskite nanocrystals embedded in the electron-transport molecula

124 of the heteroepitaxy of colloidal polyhedral nanocrystals enables ordered grain growth and can thereb

125 last five years, such that for heterogeneous nanocrystal ensembles, a single, atomically precise repr

126 nality, the nominally one-dimensional MoS(2) nanocrystals exhibit photoluminescence 50 meV higher in

127 multimetallic random alloy and intermetallic nanocrystals exhibit unique and intriguing physicochemic

128 Untreated CsPbI(3) nanocrystal films are found to be slightly p-type with i

129 onal heterostructures based on van der Waals nanocrystal films produced through the mechanical abrasi

130 to the general strategies for designing such nanocrystals, followed by four typical examples, includi

131 However, to amplify properties and prepare nanocrystals for specific applications, full atomic prec

132 Use of liposomes encapsulating drug nanocrystals for the treatment of diseases like cancer a

133 X-ray patterns, which showed that nanocrystals form the IJS according to the PDF-4 simulat

134 r, mechanistic insight into the DNA-mediated nanocrystal formation remains elusive due to the lack of

135 bbons are capable of guiding fibrous apatite nanocrystal formation.

136 we report the fabrication of precious metal nanocrystals from nuclei and the identification of the d

137 Nanocrystals from the same synthesis batch display what

138 In this study, postsynthesis nanocrystal fusion, aberration-corrected scanning transm

139 structures of periodically repeating bismuth-nanocrystal/germanium-nanowire junctions.

140 lecules in the solution direct the amplified nanocrystal handedness through a discontinuous transitio

141 stal phase of random alloy and intermetallic nanocrystals has been intensively explored in technologi

142 The self-assembly of two sizes of spherical nanocrystals has revealed a surprisingly diverse library

143 f-cell configuration in which 15-nm antimony nanocrystals have a consistently higher Coulombic effici

144 As such, random alloy and intermetallic nanocrystals have attracted extensive attention and inte

145 Cuprous selenide nanocrystals have hallmark attributes, especially tunabl

146 Unlike bulk materials, nanocrystals have size-dependent properties, yet the que

147 As of late, halide perovskite nanocrystals have surged as materials of choice for dopi

148 The Pb(4)S(3)Br(2) nanocrystals herein feature a remarkably narrow size dis

149 Furthermore, oral delivery of gold nanocrystals improved motor functions of cuprizone-treat

150 hastically ordered distribution of plasmonic nanocrystals in a fractal scaffold of high-index semicon

151 plications of random alloy and intermetallic nanocrystals in electrocatalysis, heterogeneous catalysi

152 s has been observed for CsPbBr(3) perovskite nanocrystals in film where nanocrystals were swollen to

153 swollen to get wider and fused with adjacent nanocrystals in self-assembly on film during solvent eva

154 c heterogeneity of ligand-protected platinum nanocrystals in solution, including structural degenerac

155 amphiphilic character of CQDs and cellulose nanocrystals in the organized nematic phase.

156 Here, a specially designed nanocrystal ink is introduced, "photopatternable emissiv

157 rm for the appendage/immobilization of small nanocrystals inside rendering high-performance catalysts

158 Inorganic semiconductor nanocrystals interfaced with spin-triplet exciton-accept

159 on further development of these bifunctional nanocrystals into a viable platform for investigating ot

160 Self-assembly of nanocrystals into functional materials requires precise

161 omic structure presented on the surface of a nanocrystal is ultimately determined by its geometric sh

162 atomic structure determination of individual nanocrystals is a prerequisite for understanding and pre

163 The bottom-up assembly of colloidal nanocrystals is a versatile methodology to produce compo

164 Controlling which facets are exposed in nanocrystals is crucial to understanding different activ

165 mation from alpha to beta phases of tin (Sn) nanocrystals is investigated in nanocrystals with diamet

166 ole injection mechanism probed at the single-nanocrystal level.

167 r long-range triplet energy transfer between nanocrystal light absorbers and molecular acceptors sugg

168 by colloidal lanthanide-doped semiconductor nanocrystals (LnSNCs).

169 onal nanosheets (high-bandgap domains) to 3D nanocrystals (low-bandgap domains).

170 performed on perovskite cesium lead bromide nanocrystals, maps the lattice response to controlled ex

171 ilised by hydrophobically modified cellulose nanocrystals (MCNCs).

172 of intrinsically chiral lanthanide phosphate nanocrystals, measured via circularly polarized luminesc

173 , and optical images reveal that the bismuth nanocrystal melts during trapping, facilitating tip-to-t

174 of thermally activated photophysics at CdSe nanocrystal-molecule interfaces enables a new paradigm w

175 First, the shape of the substrate nanocrystal must guide the crystallographic orientation

176 Rod-shaped ZnSe nanocrystals (nanorods, NRs) with a Ni(BF(4) )(2) co-cat

177 We investigated whether a nanocrystal (NC) formulation can address these issues an

178 extent and rate of sintering as functions of nanocrystal (NC) size, temperature, and atmosphere.

179 prepare the near-infrared emission CsPbI(3) nanocrystal (NC)-polymer composite thin-film luminescent

180 Copper-based ternary (I-III-VI) chalcogenide nanocrystals (NCs) are compositionally-flexible semicond

181 Fully inorganic lead halide perovskite nanocrystals (NCs) are of interest for photovoltaic and

182 s in the synthesis of lead halide perovskite nanocrystals (NCs) for use in solar cells, light emittin

183 Branched plasmonic nanocrystals (NCs) have attracted much attention due to

184 Recently, lead halide perovskite nanocrystals (NCs) have gained tremendous attention in o

185 Nanocrystals (NCs) of CsPbX(3) , X = Cl, Br, or I, have

186 colloidal synthesis of intrinsically chiral nanocrystals (NCs) of several chiral inorganic compounds

187 been devoted to understanding why colloidal nanocrystals (NCs) self-assemble into such a diverse arr

188 We synthesize AgP(2) nanocrystals (NCs) with a greater than 3-fold reduction

189 ic techniques that yield high quality BaTiO3 nanocrystals (NCs) with well-defined morphologies (e.g.,

190 Lead halide perovskites (LHPs) nanocrystals (NCs), owing to their outstanding photophys

191 le based on the PTEs of plasmonic Cu(2- x)Se nanocrystals (NCs).

192 crystal deformation or connection with other nanocrystals needs a solvent as medium.

193 ial transformation routes between perovskite nanocrystals of different shapes and phases.

194 uilibrium between complexes, monolayers, and nanocrystals of lead bromide, with substantial impact on

195 Finally, we could also prepare nanocrystals of Pb(3)S(2)Cl(2), which proved to be a str

196 of paramount importance for the synthesis of nanocrystals of well-defined sizes and geometries.

197 Nanocrystals offer new possibilities by combining the na

198 ials exposing nonpolar facets, polar-faceted nanocrystals often exhibit unexpected and interesting pr

199 triplet energy transfer across the inorganic nanocrystal/organic molecule interface remain poorly und

200 ulations to study the self-assembly of these nanocrystals over a broad range of ligand lengths and so

201 colloidal and photophysical stability to the nanocrystals over a broad range of solvent conditions an

202 ysical and structural characteristics of the nanocrystals over a period extending to 1.5 years under

203 nontoxic and stable bismuth-based perovskite nanocrystals (PeNCs) with applications for photocatalyti

204 nk is introduced, "photopatternable emissive nanocrystals" (PENs), which satisfies these requirements

205 Herein, we introduce the research area of nanocrystal photocatalysts, review their studies as Quan

206 entation of LSPR in all-inorganic perovskite nanocrystals (PNCs) is particularly important considerin

207 Cesium-based perovskite nanocrystals (PNCs) possess alluring optical and electro

208 ovskite quantum dots (PQDs) or more broadly, nanocrystals possess advantageous features for solution-

209 The latter are regulated by the nanocrystal precursor that is the most stable at the rea

210 The assembly of the nanocrystal precursors as ordered close-packed superlatt

211 We learn that having only one of the two nanocrystal precursors dissolving and diffusing toward t

212 Electroluminescence of colloidal nanocrystals promises a new generation of high-performan

213 properties, yet the question remains whether nanocrystal properties can be analyzed, understood, and

214 considered in any discussion of fundamental nanocrystal properties or applications.

215 Semiconductor nanocrystals provide a mechanism to convert absorbed pho

216 Lead halide perovskite colloidal nanocrystals provide an interesting proving ground: ther

217 w the tunable preparation of cuprous sulfide nanocrystals ranging in internal structures from single-

218 hape-controlled synthesis of monodisperse Al nanocrystals remains an open challenge, limiting their u

219 ons are electrically generated in individual nanocrystals-remains unanswered.

220 inical studies, clean-surfaced, faceted gold nanocrystals represent a novel remyelinating therapeutic

221 It was found that confined nanocrystals require cavities slightly larger than the u

222 Chemical design of multicomponent nanocrystals requires atomic-level understanding of reac

223 re scientists to explore atomic precision in nanocrystal research further.

224 ormation from CO(2) and that electrochemical nanocrystal scrambling is an avenue toward creating such

225 beta-Sn tetragonal structure, while smaller nanocrystals show stability with the alpha-Sn diamond cu

226 Importantly, these 12 faceted nanocrystals showed wide area self-assembly in most of t

227 a detailed analysis of the role of effective nanocrystal size ratio, as well as softness expressed as

228 The ongoing interest in colloidal nanocrystal solids for electronic and photonic devices n

229 Unfortunately, colloidal nanocrystal solids generally possess very low thermal co

230 esses, we develop electrically-pumped single-nanocrystal spectroscopy.

231 py, we show that sufficiently small antimony nanocrystals spontaneously form uniform voids on the rem

232 Copper-deficient nanocrystals spontaneously undergo twinning to a multi-d

233 hanced and phase became stable, but ultimate nanocrystals still retained the hexahedron cube or plate

234 The ultrasound treated rutin (UTR) nanocrystal strands had <820 nm in diameter but shorter

235 c nanocrystals and other types of structural nanocrystals such as core-shell and heterostructured nan

236 To date, at least 15 distinct binary nanocrystal superlattice (BNSL) structures have been ide

237 g strategy is reported to grow 2D Janus gold nanocrystal superlattice sheets with nanocube morphology

238 s guidance for the design and fabrication of nanocrystal superlattices with enhanced structural contr

239 in ordered mesoporous graphene derived from nanocrystal superlattices.

240 The nanocrystal surface ligands play a crucial role in the t

241 rption spectroscopy in acetonitrile and with nanocrystals suspended in water, are reported.

242 , no antitumoral drug has been marketed as a nanocrystal suspension until now.

243 orm, has been selected to develop injectable nanocrystal suspensions designed to be transferred to th

244 In this context, organic nanocrystal suspensions for pharmaceutical use have been

245 The progress in nanocrystal syntheses and surface engineering has opened

246 vance towards a mechanistic understanding of nanocrystal synthesis.

247 uted to the morphological evolution of Au-Ag nanocrystals synthesized with different DNA sequences.

248 sion can be extended to other multicomponent nanocrystal systems (metal alloy, mixed oxide, and chalc

249 t (CQD) microcrystals on organized cellulose nanocrystals templates at the liquid-air interface.

250 ultrasmall and monodisperse colloidal PtP(2) nanocrystals that achieve H(2)O(2) production at near ze

251 ironments(12) has resulted in platinum-based nanocrystals that enable very high ORR activities in aci

252 the composites with Pd (average size: 2 nm) nanocrystals, the material shows outstanding catalytic a

253 Unlike single-electron devices comprising nanocrystals, these cluster-based devices can be fabrica

254 how superior PV performance in comparison to nanocrystal thin-films.

255 stals and exclusively observed in perovskite nanocrystals, this would add new fundamentals to the ins

256 ng during triplet exciton transfer from CdSe nanocrystals to anthracene is reported here.

257 Acknowledging the inclination of nanocrystals to form defect structures, we first outline

258 unable, highly luminescent halide perovskite nanocrystals to illustrate the role of carrier diffusion

259 direct photochemical electron delivery from nanocrystals to MoFe protein is able to support the mult

260 trate the capabilities of these bifunctional nanocrystals to monitor chemical reactions for the eluci

261 ctroscopy shows direct triplet transfer from nanocrystals to naphthalene; nonetheless, this "direct"

262 sheet T7-Pt{100} specificity drives cubic Pt nanocrystals to self-assemble into large-area, long-rang

263 atomistic spin model of elongated magnetite nanocrystals to specifically address the role of facetin

264 Hole transfer from nanocrystals to tetracene is energetically favoured, and

265 Gold nanocrystal treatment of oligodendrocyte precursor cells

266 These nanocrystals undergo a reversible, photoinduced orthorho

267 s with the ex situ oxidative etching of gold nanocrystals using FeCl(3) provides further insight into

268 s(o-phenylenedioxy)cyclotriphosphazene (TPP) nanocrystals, was synthesized.

269 le size and particle loading using colloidal nanocrystals, we reveal the opposite process as a novel

270 tals such as core-shell and heterostructured nanocrystals, well-defined multimetallic random alloy an

271 While perovskite nanocrystals were broadly confined to only nanocubes, th

272 e transport layers, where a large density of nanocrystals were embedded, limiting the efficiency of s

273 bBr(3) perovskite nanocrystals in film where nanocrystals were swollen to get wider and fused with ad

274 achieved by chemical conversion reactions on nanocrystals, which are first self-assembled in nanocomp

275 eformable layer of ligands that envelops the nanocrystals, which contributes significantly to the ove

276 Bright lead halide perovskite nanocrystals, which have been extensively studied in the

277 f providing structural support for plasmonic nanocrystals, which serve as nanoheaters, and reducing t

278 synthesis scheme to Pb(4)S(3)I(2) colloidal nanocrystals, whose structure matches the one that has b

279 le method for the synthesis of Ru octahedral nanocrystals with an fcc structure and an edge length of

280 an effective method for the synthesis of Ru nanocrystals with an fcc structure and well-defined {111

281 we were able to isolate methane hydrate (MH) nanocrystals with an sI structure encapsulated inside MO

282 ess in leveraging capping agents to generate nanocrystals with complex structures and/or enhance thei

283 The successful synthesis of noble-metal nanocrystals with controlled shapes offers many opportun

284 t progress in the development of noble-metal nanocrystals with controlled shapes, in addition to thei

285 More importantly, the final products are nanocrystals with controlled size and shape that can be

286 The predictive synthesis of metal nanocrystals with desired structures relies on the preci

287 of tin (Sn) nanocrystals is investigated in nanocrystals with diameters ranging from 6.1 to 1.6 nm.

288 ll-controlled colloidal system consisting of nanocrystals with different aspect ratios, halide compos

289 used to control the evolution of seeds into nanocrystals with diverse but well-controlled shapes.

290 loped to form random alloy and intermetallic nanocrystals with enhanced performance.

291 an be engineered to produce anisotropic gold nanocrystals with high chiroptical activity through the

292 Bifunctional nanocrystals with integrated plasmonic and catalytic act

293 roadly confined to only nanocubes, these new nanocrystals with intense emission would certainly provi

294 Connecting nanocrystals with removal of interface ligand barriers i

295 chemically functionalizing non-toxic silicon nanocrystals with triplet-accepting anthracene ligands.

296 Nanocrystals with twinned domains exhibit markedly alter

297 el systems comprising lead halide perovskite nanocrystals with very low surface trap densities as the

298 mine as a halide precursor, different shaped nanocrystals without compromising the photoluminescence

299 nduced by electrical biasing of mixed-halide nanocrystals without the injection of charge carriers.

300 fraction and electron tomography of a single nanocrystal, X-ray powder diffraction, and density funct