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1 ize regime (1-3 nm in diameter, often called nanoclusters).
2 1.25 eV are calculated for the Au25(SH)18(-) nanocluster.
3 y reported four-shell Au133(SC6H4-p-Bu(t))52 nanocluster.
4 of a platinum atom into a molecule-like gold nanocluster.
5 ated by varying cation substitution to these nanoclusters.
6 ls of the frontier orbitals of Au25(SR)18(-) nanoclusters.
7 m earth-abundant phosphorescent metal halide nanoclusters.
8  in situ monitoring of the formation of gold nanoclusters.
9  by the decreased fluorescence of both metal nanoclusters.
10 ureus with and without labeling by gold (Au) nanoclusters.
11  densities of endogenous antigen-loaded CD1d nanoclusters.
12 rface of the target cell and internalized as nanoclusters.
13 sis was employed to characterize the surface nanoclusters.
14 as observed to be transiently trapped in the nanoclusters.
15 otected gold, silver, and bimetal (or alloy) nanoclusters.
16 irs, leading to the unusual stability of the nanoclusters.
17 dynamics and stability of H-Ras lipid-anchor nanoclusters.
18 l-chains are required for forming GPI-anchor nanoclusters.
19 commonly used to test the raft-preference of nanoclusters.
20  KRas leads to formation of higher order Ras nanoclusters.
21 ted with the accumulation of low-order CXCR4 nanoclusters.
22 pid domains and thereby the stability of the nanoclusters.
23  and operation of spatially segregated K-Ras nanoclusters.
24 itting (Ag9:HSA) and red-emitting (Ag14:HSA) nanoclusters.
25  in compromised signal output from H-RasG12V nanoclusters.
26 ly an obligate structural component of K-Ras nanoclusters.
27 ion of a regular array of ice-like hexameric nanoclusters.
28 r CdTe quantum dots, free NIR dyes, and gold nanoclusters.
29  stable, atomically precise, colloidal metal nanoclusters.
30 ctrical conductivity of the entrapped copper nanoclusters.
31 ise to growth of monodisperse, size-tailored nanoclusters.
32 electronic and optical properties of the 58e nanoclusters.
33  imaging revealed that FLS2 and BRI1 form PM nanoclusters.
34 s up to 3 nm, the size regime referred to as nanoclusters.
35  structural polymorphism in these archetypal nanoclusters.
36 easons of the dimensional transition in gold nanoclusters.
37 osphatidylserine, in turn undergoes enhanced nanoclustering.
38 cholesterol restores K-Ras4A but not K-Ras4B nanoclustering.
39 brane to the endomembrane and inhibits their nanoclustering.
40       We report that the giant 246-gold-atom nanocluster (2.2 nm in gold core diameter) protected by
41                                     Although nanoclusters account primarily for the exceptional resis
42 cular dynamics study of a test system-a gold nanocluster adsorbed on free-standing graphene clamped b
43 tmospheric aerosol characterization to cover nanocluster aerosol (NCA) particles and show that a majo
44 ence that can enhance fluorescence of silver nanoclusters (Ag NCs).
45 d across all sub-regions, PSD95 packing into nanoclusters also varied between sub-regions determined
46                We discuss how these hydrated nanoclusters alter the effective solid content and the v
47                 Nanohybrids consisting of Au nanocluster and polythiophene nanowire assemblies exhibi
48 lasma membrane repolarization disrupts K-Ras nanoclustering and inhibits MAPK signaling.
49 anization: in CAV1-deficient cells K-RasG12V nanoclustering and MAPK activation were enhanced, wherea
50 ostulate that caveolae remotely regulate Ras nanoclustering and signal transduction by controlling PM
51 ormation may exhibit so far unrecognized Ras nanoclustering and therefore signaling alterations.
52  achieved by chemical coupling of active CoO nanoclusters and high-index facet Mn3 O4 nano-octahedron
53 ng chemistry for tailoring the structures of nanoclusters and is expected to open new avenues for des
54 nhancement of ORR by the AuNC is specific to nanoclusters and not to plasmonic gold particles.
55  is induced between vesicles containing RhoB nanoclusters and plasma membrane protrusions.
56 rials, nanoscale photonic devices, plasmonic nanoclusters and surface-enhanced Raman scattering (SERS
57 tin-1 affect both the number and lifetime of nanoclusters and thus determine the specific Raf effecto
58 K-Ras4A and K-Ras4B plasma membrane binding, nanoclustering, and signal output.
59 c performance of Au25(SPh)18 and Au36(SPh)24 nanoclusters, and on the basis of their crystal structur
60 Pd164-xPtx(CO)72(PPh3)20 (x approximately 7) nanoclusters, and within the recently reported four-shel
61        The development of atomically precise nanoclusters (APNCs) protected by organometallic ligands
62  somatic Nav1.6 channels localized to stable nanoclusters approximately 230 nm in diameter.
63                The aptamer-conjugated silver nanoclusters (Apt@AgNCs) were synthesized and immobilize
64 inated surface gold atoms in the Au22(L(8))6 nanocluster are unprecedented in atom-precise gold nanop
65 ffects of caveolin and cortical actin on Ras nanoclustering are similarly mediated through regulation
66  vacancies in facilitating the nucleation of nanoclusters are a long-standing puzzle, due to the expe
67 rticle tracking revealed that diffusing CD1d nanoclusters are actively arrested by the actin cytoskel
68 s absorption and PLE spectra of the reported nanoclusters are consistent with previously established
69        More than 20,000 Au12, Au13, and Au14 nanoclusters are evaluated.
70 ng vacancies, particularly in-situ while the nanoclusters are forming.
71 m, indicating that the means by which Nav1.6 nanoclusters are maintained in the soma is biologically
72                                           Au nanoclusters are of technological relevance for catalysi
73 hosphorescent emitters based on metal-halide nanoclusters are reported.
74  the dynamics and stability of H-Ras peptide nanoclusters are reversible.
75                    These data identify PSD95 nanoclusters as a basic structural unit, or building blo
76 ddress stability of thiolate-protected metal nanoclusters as a function of the number of metal core a
77  stability of these 'magic-number' colloidal nanoclusters as a function of their atomic-level structu
78 port the application of protein-templated Ag nanoclusters as a luminescent photoswitch for the detect
79                                  Using metal nanoclusters as a photosensitizer for hydrogen generatio
80  toward the application of luminescent metal nanoclusters as potential metal sensors since by tuning
81 e and energetically low structures of BenH2n nanoclusters as predicted using density functional theor
82  for selective self-assembly of molecules or nanoclusters, as well as for the functionalization of th
83 oxylate-ligated indium phosphide magic-sized nanocluster at 0.83 A resolution.
84 phore-tagged apamin and monitored SK channel nanoclustering at the single molecule level by combining
85 microscopy, we show that CD1d molecules form nanoclusters at the cell surface of APCs, and their size
86  and Rab37 vesicles and the formation of LAT nanoclusters at the immunological synapse.
87  The luminescence property of thiolated gold nanoclusters (Au NCs) is thought to involve the Au(I)-th
88 s of progress in synthesizing thiolated gold nanoclusters (Au NCs), the knowledge of their growth mec
89                                         Gold nanoclusters (Au-NCs) have a core size below 2 nm and co
90 e-sensitive incorporation of a gold-thiolate nanocluster, Au133(SR)52, selectively in the bMOF-102/10
91  atomic site and, accordingly, a new bimetal nanocluster, [Au19Cd2(SR)16](-), is produced.
92                    An alkynyl-protected gold nanocluster [Au24(C identical withCPh)14(PPh3)4](SbF6)2
93 characterization of a new DNA-templated gold nanocluster (AuNC) of approximately 1 nm in diameter and
94 steine to conjugate monolayer protected gold nanoclusters (AuNC).
95 noglobulin E (IgE) in human serum using gold nanoclusters (AuNCs) as fluorescent label was developed.
96 escence (ECL) is detected from dithiolate Au nanoclusters (AuNCs) in aqueous solution under ambient c
97 plate for the synthesis of red-emitting gold nanoclusters (AuNCs) under alkaline conditions.
98 uminescent near-infrared (NIR)-emitting gold nanoclusters (AuNCs) using bovine serum albumin (BSA) as
99             In this study, we generated gold nanoclusters (AuNCs) using inexpensive chicken egg white
100 y slow down renal clearance of few-atom gold nanoclusters (AuNCs) with the same surface ligands but d
101 tudy, we generated protein encapsulated gold nanoclusters (AuNCs@ew) with bright photoluminescence by
102                     Glutathione-capped metal nanoclusters (Aux-GSH NCs) which exhibit molecular-like
103 ry and isolation of a range of new molecular nanoclusters based on [Mo(2)O(2)S(2)](2+)-based building
104              This study describes a novel Au nanocluster-based fluorescent sensor for label-free, sep
105  dynamics, which are critical for developing nanocluster-based photonic devices.
106 cluster probe, termed methyladenine-specific NanoCluster Beacon (maNCB), which can detect single m(6)
107 VP-AuNPs) and fluorescent BSA-protected gold nanoclusters (BSA-AuNCs) were used as an IFE absorber/fl
108 g of the bovine serum albumin-protected Au25 nanoclusters (BSAGNCs).
109 dylserine is a common constituent of all Ras nanoclusters but is only an obligate structural componen
110 e ability to control the atomic structure of nanoclusters by systematically varying the gas-phase for
111               In addition, these chiral gold nanoclusters can downregulate TET1 and TET2 mRNA express
112 nd that the saturated polymeric forms of the nanoclusters cannot retain molecular hydrogen, in contra
113 locking effect of the thiolate ligands in Au nanocluster catalysis.
114 ervation of a body-centered cubic (bcc) gold nanocluster composed of 38 gold atoms protected by 20 ad
115 to the preparation of arrays or ensembles of nanoclusters containing a dominant or single isomer, thu
116 is and structure determination of a new Au22 nanocluster coordinated by six bidentate diphosphine lig
117 a cyclohexanethiolate-capped [Au23(SR)16](-) nanocluster (counterion: tetraoctylammonium, TOA(+)).
118 dope single atoms of Ag or Cu into hollow Au nanoclusters, creating precise alloy nanoparticles atom-
119 ch was developed for the synthesis of copper nanoclusters (Cu NCs) and used as a fluorescent probe fo
120                         A polyhydrido copper nanocluster, [Cu20H11{Se2P(OiPr)2}9] (2H), which exhibit
121 l diagnosis of label-free fluorescent copper nanoclusters (CuNCs) are demonstrated.
122 uding bovine serum albumin (BSA) template Cu nanoclusters (CuNCs@BSA) and single-walled carbon nanotu
123 oll-like receptor 7/8 agonist R848 increases nanocluster density and iNKT cell activation.
124                                              Nanoclustering dictates downstream effector recruitment,
125 ation of the polymer in acidic solution, the nanoclusters dissociated into primary ~5 nm Au nanospher
126 ers (Hb/AuNCs) and aptamer-stabilized silver nanoclusters (DNA/AgNCs) for analysis of Cyt c are prese
127 thesis of the enzyme DNase 1 stabilized gold nanoclusters (DNase 1:AuNCs) with core size consisting o
128 ering from the generation of p-LAT and p-SLP nanoclusters driving TCR signal amplification and divers
129                          In consequence, Ras nanoclusters engage in remote lipid-mediated communicati
130                            The ultrasmall Au nanocluster enhanced photoabsorption and conductivity ef
131     Supported sub-monolayers of [Mo3S13](2-) nanoclusters exhibited excellent HER activity and stabil
132       It is found that CSH can etch the Au25 nanoclusters, exhibiting the potent etching activity.
133                                         This nanocluster exhibits a threefold rotationally symmetrica
134                      Specifically, the Au246 nanocluster exhibits multiple excitonic peaks in transie
135 20 and Au18(SR)14 nanoclusters, forms a "4e" nanocluster family, which illustrates a trend of shrinka
136 ano-based materials, as well as their use as nanocluster fillers, in nanocomposites, mouthwashes, med
137 o varied between sub-regions determined from nanocluster fluorescence intensity.
138 ize to the plasma membrane and be arrayed in nanoclusters for biological activity.
139  role played by the thiolate ligands on Au25 nanoclusters for CO oxidation.
140 sful application of an aptamer bioconjugated nanoclusters for the detection of apoptosis based on rel
141 sis reveals that the thiolate ligands on the nanocluster form local tetramers by intracluster interac
142 bout the evolutionary paths of molecular and nanocluster formation and its relation to laser plume hy
143 dynamic development leading to molecular and nanocluster formation remain one of the most important t
144 cability of the "critical nucleus" of CNT to nanocluster formation systems such as the Ir(0)n one stu
145 spatial organization is also modified by Ras nanocluster formation.
146 an effective template for fluorescent silver nanoclusters formation without any chemical modification
147  together with the Au24(SR)20 and Au18(SR)14 nanoclusters, forms a "4e" nanocluster family, which ill
148  the structure determination of a large gold nanocluster formulated as Au130(p-MBT)50, where p-MBT is
149 eport the crystal structure of an ultrasmall nanocluster formulated as Au20(TBBT)16 (TBBT = SPh-t-Bu)
150 talytic application of thermally robust gold nanoclusters formulated as Au99(SPh)42.
151                                          The nanoclusters grow with an extremely low growth rate thro
152 e red emitting glutathione stabilized copper nanoclusters (GSH-CuNCs).
153                                      The bcc nanocluster has a distinct HOMO-LUMO gap of ca. 1.5 eV,
154                           The Au30 (S-Adm)18 nanocluster has an anomalous solubility (it is only solu
155                                  Magic-sized nanoclusters have been implicated as mechanistically rel
156 ion spatial mapping shows that different Ras nanoclusters have distinct lipid compositions, indicatin
157 e assays based on hemoglobin-stabilized gold nanoclusters (Hb/AuNCs) and aptamer-stabilized silver na
158                 The lipid composition of Ras nanoclusters, however, has not previously been investiga
159 ng human serum albumin (HSA) stabilized gold nanoclusters (HSA-AuNCs) as fluorescent probe.
160  between two thiolate-protected 28-gold-atom nanoclusters, i.e. Au28(S-c-C6H11)20 (where -c-C6H11 = c
161 currently focuses on thiolate-protected gold nanoclusters, important progress has also been achieved
162 ncentrations of vacancies in Y-Ti-O-enriched nanoclusters in a nanostructured ferritic alloy using a
163 h implications for the symmetry of rafts and nanoclusters in cell membranes, which have similar repor
164 ollowing the emergence of conformer-specific nanoclusters in the plasma membrane of mammalian cells,
165 s show that the (100) surface breaks up into nanoclusters in the presence of CO2 at 20 Torr and above
166 talyst (supported thiomolybdate [Mo3S13](2-) nanoclusters) in which most sulfur atoms in the structur
167 ng into the [Au23(SR)16](-) (R = cyclohexyl) nanocluster, in which two neighboring surface Au atomic
168 d that antioxidant (glutathione) chiral gold nanoclusters induce a decrease of 5-hydroxymethylcytosin
169                                 The BSA-gold nanoclusters/ionic liquid (BSA-AuNCs/IL) was used as a s
170  ZrOCo(II) group coupled to an iridium oxide nanocluster (IrO(x)) was assembled on an SBA-15 silica m
171                            The kernel of the nanocluster is a Marks decahedron of Au79, which is the
172                                          The nanocluster is constructed in a four-shell manner, with
173 ferent doping modes when the [Au23(SR)16](-) nanocluster is doped with different metals (Cu, Ag), inc
174                                    This Au24 nanocluster is highly emissive in the near-infrared regi
175                             This synthesized nanocluster is the only silver nanoparticle that has a v
176 ogenation of the aldehyde group catalyzed by nanoclusters is a surprise because conventional nanogold
177 hway of terminal alkynes by "ligand-on" gold nanoclusters is identified, which should follow a deprot
178  a single crystal containing uranyl peroxide nanoclusters is reported for pyrophosphate-functionalize
179 ing complexes on the plasma membrane, termed nanocluster, is augmented.
180            The Co metal and oxides remain as nanoclusters (less than 5 nm) thus active in subsequent
181 and 1.51 V vs RHE) potentials of these metal nanoclusters make them suitable for driving the water-sp
182                                          The nanocluster material is expected to find wide applicatio
183         The unique structure of the bcc gold nanocluster may be promising in catalytic applications.
184 materials such as metal nanoparticles, metal nanoclusters, metal oxide nanoparticles, metal and carbo
185 d-pulsed laser irradiation and magnetic gold nanoclusters (MGNCs) as the etching agents is described.
186 and suggests that ion channel topography and nanoclustering might be under the control of second mess
187 ver, the observation that TCRs assemble into nanoclusters might allow for homotropic allostery, in wh
188 )12(TPP)4, an atomically precise tetravalent nanocluster (NC) (BDT, 1,3-benzenedithiol; TPP, tripheny
189 -shaped, charge-neutral, diplatinum-doped Ag nanocluster (NC) of [Pt2Ag23Cl7(PPh3)10].
190 ure determination of a large box-shaped Ag67 nanocluster (NC) protected by a mixed shell of thiolate
191                    Atomically precise copper nanoclusters (NCs) are of immense interest for a variety
192                                     Au or Ag nanoclusters (NCs) of various sizes and dimensions were
193 c ligands to attain atomically precise metal nanoclusters (NCs).
194 t has yet to be explored for the noble metal nanoclusters (NCs).
195 ties derived from the integrated Au25 (SG)18 nanoclusters (NCs).
196 ous synthesis and assembly of Au, Pt, and Pd nanoclusters (NCs; with sizes </=3 nm) into mesoscale st
197 rgent monolayer-protected gold quantum dots (nanoclusters, NCs) composed of 25 Au atoms by utilizing
198 eading to a self-assembled superparamagnetic nanocluster network with T2 signal enhancement propertie
199                           Monodisperse ceria nanoclusters now permit investigation of their propertie
200                       Understanding how gold nanoclusters nucleate from Au(I)SR complexes necessitate
201 ture of ultra-stable Au144(SR)60 magic-sized nanoclusters obtained from atomic pair distribution func
202 ce is precovered with atomic oxygen, no such nanoclustering occurs.
203                          Formation of larger nanoclusters occurs in the absence of interactions betwe
204 ll as mathematical modeling, we investigated nanoclustering of H-ras helix alpha4 and hypervariable r
205                                              Nanoclustering of K-Ras, related to nonraft membrane dom
206 via a processing route that creates distinct nanoclusters of atoms that pin grain boundaries within t
207 of osteopontin is their ability to sequester nanoclusters of calcium phosphate to form a core-shell s
208                                              Nanoclusters of FcgammaRI, but not FcgammaRII, are const
209  for the generation of cholesterol-dependent nanoclusters of GPI-anchored proteins mediated by membra
210 gammaRII, are constitutively associated with nanoclusters of SIRPalpha, within 62 +/- 5 nm, mediated
211 one as a new tool for customized creation of nanoclusters of zinc peroxide.
212  III-nitride nanowires decorated with Ru sub-nanoclusters offer controlled surface charge properties
213 ing nanoconjugates showed slight increase in nanoclusters on the cell surface with time.
214 GTPases form transient, spatially segregated nanoclusters on the plasma membrane that are essential f
215 is able to self-assemble into colloidal gold nanoclusters or membranes in a controlled and reversible
216 e isomer, thus enabling the investigation of nanocluster (or nanoparticle) properties as a function o
217 atomically precise, thiolate-protected metal nanoclusters, our understanding of the driving forces fo
218 wed diversity characterised by the number of nanoclusters per synapse.
219  We report a new method to identify metallic nanoclusters (polyoxometalate structures) in solution at
220 m the previously reported Au30 S(S-(t) Bu)18 nanocluster protected by 18 tert-butylthiolate ligands a
221 re spatially organised into single and multi-nanocluster PSDs.
222 talytic activity of the resulting bimetallic nanocluster, PtAu24(SC6H13)18, for the hydrogen producti
223        Herein, we report ultrasmall platinum nanoclusters (PtNCs) encapsulated in amine-functionalize
224         Although the structure of individual nanoclusters remained relatively conserved across all su
225 ance of signals favors activation, FcgammaRI nanoclusters reorganize into periodically spaced concent
226                             The [Mo3S13](2-) nanoclusters reported herein demonstrated excellent turn
227                               Somatic Nav1.6 nanoclusters represent a new, to our knowledge, type of
228               Ultra-small, magic-sized metal nanoclusters represent an important new class of materia
229                 The molecule-like bimetallic nanocluster represents a class of catalysts that bridge
230            The H-bonding networks within the nanoclusters resemble the resonance structures of polycy
231 ts show that mutations in Ras can affect its nanoclustering response and thus allosterically effector
232 ls, we found that conformers impart distinct nanoclustering responses depending on the cytoplasmic le
233 s depending on the cytoplasmic levels of the nanocluster scaffold galectin-1.
234 Co-ligation of SIRPalpha with CD47 abrogates nanocluster segregation.
235 hatidylserine spatiotemporal dynamics, K-Ras nanoclusters set up the plasma membrane as a biological
236 ber of metal core atoms and thiolates on the nanocluster shell.
237 ations from Au103 and Au102 include (i) both nanoclusters show similar HOMO-LUMO gap energy (i.e., Eg
238          The optical spectrum of Au99(SPh)42 nanoclusters shows absorption peaks at ~920 nm (1.35 eV)
239  a nucleation inhibitor and Au size-selected nanoclusters (SSNCs) as catalytic particles for which th
240 to-core binding energy that appears to drive nanocluster stabilization.
241                            The nucleation of nanoclusters starts from the O-enriched solute clusterin
242 ates a ligand-based strategy for controlling nanocluster structure and also provides a method for the
243 face motif is observed for the first time in nanocluster structures.
244 ers, particularly 17, were used to stabilize nanoclusters such as Pd/Au for the catalytic asymmetric
245 PPh3)10(C identical withCPh)5X2 (X = Br, Cl) nanoclusters supported on oxides for the semihydrogenati
246                                        Multi-nanocluster synapses were frequently found in the CA3 an
247 lyst leads to the in situ formation of Rh(I) nanoclusters that catalyze stereoselective tautomerizati
248 osphorylated K-Ras reorganizes into distinct nanoclusters that retune the signal output.
249 gions revealed they comprised discrete PSD95 nanoclusters that were spatially organised into single a
250                              In these hybrid nanoclusters, the relative stoichiometry, size, shape, a
251 wn to be associated with the Y-Ti-O-enriched nanoclusters, the roles of vacancies in facilitating the
252 of monodisperse [Cd54Se32(SePh)48(dmf)4](4-) nanoclusters; the second is a unique porous CdSe crystal
253 HC injecting electron density into the metal nanocluster thus lowering the barrier for bromobenzene a
254 ds to segregation of FcgammaRI and SIRPalpha nanoclusters to be 197 +/- 3 nm apart.
255 , Ca(2+) membrane territories, and signaling nanoclusters to modulate T cell signaling and function.
256 re of the phenomenon ensures eruption of the nanoclusters towards a much colder region, giving rise t
257 trated, based on the self-organization of Ag nanoclusters under an electric field.
258 -shaped Au25(PPh3)10(C identical withCPh)5X2 nanoclusters under conditions similar to the catalytic r
259 u25(SR)18(-) (R = H, CH3, CH2CH3, CH2CH2CH3) nanoclusters upon photoexcitation are discussed using ti
260       Here we show such interplays in a Ag55 nanocluster using real-time time-dependent density funct
261 tability and decomposition pathways of LiBH4 nanoclusters using grand-canonical free-energy minimizat
262 track the seeded growth of atom-precise gold nanoclusters using mass spectrometry, revealing that the
263            However, the PL of these quenched nanoclusters was completely restored in the presence of
264 e intermediacy of heterogeneous catalysis by nanoclusters was confirmed by mercury poisoning, tempera
265  peroxidase-like catalytic activity of these nanoclusters was exploited for colorimetric detection of
266                      The average size of Ras nanoclusters was reported to be independent of protein e
267                      The fluorescence of the nanoclusters was strongly quenched by bilirubin in a con
268                         These changes in Ras nanoclustering were phenocopied by the down-regulation o
269                                              Nanoclusters were crystallized as cubic crystals (</=0.5
270                       Two nanometer sized Au nanoclusters were supported on mesoporous SiO2, packed i
271                                           Ag nanoclusters were synthesized using the circulatory prot
272              The ceria-supported Au99(SPh)42 nanoclusters were utilized as a catalyst for chemoselect
273                  These substructures, called nanoclusters, were proposed to be crucial for high-fidel
274 eveal a host of new structures for water-ice nanoclusters when adsorbed on an atomically flat Cu surf
275 ently discovered icosahedral Au133(p-TBBT)52 nanocluster (where p-TBBT = 4-tert-butylbenzenethiolate)
276 elaxation of Au144(SR)60(q) ligand-protected nanoclusters, where SR = SC6H13 and q = -1, 0, +1, and +
277 ons in the number/size of emissive graphenic nanoclusters wherein multiscale modelling captures essen
278  we can eliminate completely all icosahedral nanoclusters, which are commonly found under other condi
279     Ras proteins are organized into membrane nanoclusters, which are necessary for Ras-MAPK signaling
280 catalyst (or "a cocktail of catalysts") into nanoclusters, which in turn catalyze and control the ste
281 een the stabilities of lipid domains and Ras nanoclusters, which is supported by our finding that C60
282 y the treatment with glutathione chiral gold nanoclusters, which may inhibit the activity of TET prot
283                                The generated nanoclusters, which were mainly composed of chicken oval
284              The product of reaction of this nanocluster with 1 equiv of water has also been structur
285 nd crystal structure determination of a gold nanocluster with 103 gold atoms protected by 2 sulfidos
286      We report the X-ray structure of a gold nanocluster with 30 gold atoms protected by 18 1-adamant
287 mainly through the side entry.Doping a metal nanocluster with heteroatoms dramatically changes its pr
288 s necessitates the structural elucidation of nanoclusters with decreasing size.
289 egated to sort subsets of phospholipids into nanoclusters with defined lipid compositions that determ
290 e set of nanoparticles can be used to create nanoclusters with different chiroptical activities.
291 cally inhibited intermediate phase, (LiBH4)n nanoclusters with n </= 12 are predicted to decompose in
292                         We consider (LiBH4)n nanoclusters with n = 2 to 12 as reactants, while the po
293 s expected to open new avenues for designing nanoclusters with novel surface structures using differe
294                     Atomically precise metal nanoclusters with tailored surface structures are import
295  report a family of atomically precise ceria nanoclusters with ultra-small dimensions up to 1.6 nm (
296 on for the future exploration of other metal nanoclusters with well-controlled numbers of metal atoms
297  homogeneously decorated with palladium (Pd) nanoclusters with well-defined shape and size (2.3 +/- 0
298 phage surfaces but are organized in discrete nanoclusters, with a mean radius of 71 +/- 11 nm, 60 +/-
299 x microstructures containing numerous Y-Ti-O nanoclusters within grains and along grain boundaries.
300 -poor liquid phases, nucleation of amorphous nanoclusters within the metal-rich liquid phase, followe

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