ライフサイエンスコーパス: entangled

1 nethiol or DNA) that are not cross-linked or entangled.

2 ty that can be violated if the particles are entangled.

3 ver, following replication they often remain entangled.

4 e gel self-assembled by forming a network of entangled 1D fibrous structures on the micrometer scale.

5 rs of NPCs are dominantly recessed (~80%) or entangled (~20%) at the high Ca(2+) level in contrast to

6 inement unveiled the successful formation of entangled 2D->2D Borromean arrayed structures.

7 indings show that low dimensional spin-orbit entangled 3d-5d interfaces provide an avenue to uncover

8 evel in contrast to authentic populations of entangled (~50%), recessed (~25%), and "plugged" (~25%)

9 e and stress propagation of cross-linked and entangled actin networks at the microscale.

10 ich the magnetic monopoles become long range entangled and an emergent quantum electrodynamics arises

11 ex picture where these mechanisms are highly entangled and can have synergistic and antagonistic effe

12 opy to apply nonlinear microscale strains to entangled and cross-linked actin networks, and measure t

13 um state of matter in which spins are highly entangled and remain disordered down to zero temperature

14 hich charge and spin transport are maximally entangled and simultaneously controlled by an electric f

15 for strange metals, because they are weakly entangled and their QCPs are often interrupted by compet

16 cantly different line widths associated with entangled and unentangled processes.

17 of discorrelated states, show that they are entangled, and study their sensitivity to loss.

18 Here, we demonstrate 16 million genuinely entangled atoms in a solid-state quantum memory prepared

19 lement depth (the minimum number of mutually entangled atoms) of 2,910 +/- 190 out of 3,100 atoms.

20 we provide a first glimpse at what the full "entangled bank" of species looks like.

21 rtial transfer of a phonon, generation of an entangled Bell pair with a fidelity of 84%.

22 ealm to Fourier transform separable and path-entangled biphoton wave functions.

23 ntify conditions bounding the quality of the entangled bonds among the elements of a register.

24 domestic interprovincial trade of China are entangled, but their health impacts have been treated se

25 ristics is achieved by the formation of self-entangled carbon nanotube (CNT) networks in all three di

26 ylation, preventing premature segregation of entangled chromosomes formed during HR repair.

27 ithout feed-forward by fusing small n-photon entangled clusters, if the success probability of each f

28 tite quantum channel is a microwave photonic entangled coherent state between two cavities.

29 opose a way to generate a macroscopic W-type entangled coherent state using quantum memories in circu

30 cessing operations with circuit-QED based on entangled coherent states.

31 erification and single-qubit operations with entangled coherent states.

32 ions between a single artificial atom and an entangled collective state of an atomic array(9) through

33 nteractions between two components create an entangled, complex process difficult to measure, and met

34 n efficiently and reproducibly attain a self-entangled conformation is a compelling biophysical chall

35 anthanide ions necessary for stabilizing the entangled conformation of the synthons to subsequently b

36 rks that are biophysically and biochemically entangled, creating complex three-dimensional (3D) trans

37 ested microscopic theory based on a model of entangled Cu4 tetrahedra.

38 an influence on the quantum effects such as entangled degree and the quantum noise reduction between

39 or vortex modes, spatial modes of light with entangled degrees of freedom, as a basis for encoding in

40 Here we report that a quantum entangled dimerized state or valence bond crystal (VBC)

41 ological and developmental time, are closely entangled during seed development, so their relative con

42 The combination of these two entangled effects leads to partial or complete screening

43 tamatergic, and cholinergic neurons, showing entangled electrically active neural networks.

44 citation of A results in the formation of an entangled electron spin pair D(*+)-A(*-).

45 can produce radical pairs having two quantum entangled electron spins that can act as spin qubits in

46 that although total ionization yields reveal entangled electronic and nuclear dynamics in the bound s

47 eported violation of a Bell inequality using entangled electronic spins in diamonds (Hensen et al., N

48 Generation and manipulation of quantum entangled electrons is an important concept in quantum m

49 cular the difference between independent and entangled emitters, which is at the heart of quantum mec

50 We derive a lower bound for the number of entangled ensembles based on the contrast of the interfe

51 The discovery of the spin-orbit-entangled exciton in antiferromagnetic NiPS(3) introduce

52 Here we show that a spin-orbit-entangled exciton state appears below the Neel temperatu

53 developed a reconstituted in vitro system of entangled F-actin, wherein the steady-state length and t

54 g in ultramicroporosity in solid-state chain-entangled films.

55 ent an ideal test system in the framework of entangled folding.

56 ing method if the quantum gates formulate an entangled gate structure.

57 role of genomic loops in maintaining a less entangled genome.

58 daggerCornupalpatum burmanicum hard tick is entangled in a pennaceous feather.

59 l conformations of curling MT-protofilaments entangled in kinetochore fibrils.

60 Bacteria are entangled in NETs and colocalize with extracellular DNA.

61 irectly impaired by plastics as they can get entangled in ropes and drown or they can ingest plastic

62 utron beam, where individual neutrons can be entangled in spin, trajectory and energy.

63 and photosynthetic electron transfer chains, entangled in the thylakoid membranes.

64 of photon pairs that are high-dimensionally entangled in their orbital angular momentum.

65 ce, charge, spin and orbital excitations are entangled in this material.

66 nealer, which can presumably exploit a fully entangled initial state to better explore the complex en

67 which interacting domains or chromosomes are entangled is not known.

68 Once two quantum subsystems have become entangled, it is no longer possible to ascribe an indepe

69 For this reason, the generation of entangled light in biologically produced fluorescent pro

70 Entangled light sources are considered as core technolog

71 e scaling rules was developed for simulating entangled linear polyethylene melts.

72 strate that the conformation of these highly entangled linear polymers is sensitive to calcium concen

73 We developed entangled link-augmented stretchable tissue-hydrogel (EL

74 ient, which describes the feasibility of the entangled links and paths of the network.

75 The quantum spin liquid is a highly entangled magnetic state characterized by the absence of

76 mpanying protein aggregation are diverse and entangled, making it difficult to investigate the underl

77 appears to derive at least in part from the entangled mesh of cells themselves.

78 ranslate to diverse mechanical properties of entangled microfilaments and their potential application

79 We identify new entangled motifs in proteins that we call complex lassos

80 y discovered, around 4% of proteins form new entangled motifs, called lassos.

81 erting an |N> (x) |0> input into a maximally entangled N00N state (|N> (x) |0> + |0> (x) |N>)/[Formul

82 comb-like monolithic mats, containing highly entangled nanofibers with diameters of 9.2 +/- 3.7 nm, t

83 We focus on entangled nematic disclinations in thin twisted nematic

84 a majestic molecular machine composed of an entangled network of proteins and RNAs that meticulously

85 The entangled network structure of the quantum Internet form

86 eory of entanglement rate maximization in an entangled network structure.

87 del is developed to quantify the dynamics of entangled network structures and entanglement flow in th

88 ibutes, and dynamics of entanglement flow in entangled network structures.

89 llows a compact and efficient routing in the entangled networks of the quantum Internet.

90 ntroduce an unconventional quantum probe, an entangled neutron beam, where individual neutrons can be

91 Our work opens a pathway to a future of entangled neutron scattering in matter.

92 ased on records of when plastics have become entangled on a towed marine sampler.

93 rs of the expression data that are otherwise entangled or masked by noise.

94 ificial atom, which can also be viewed as an entangled pair of single-cavity cat states.

95 t generates a doubly excited, maximally spin entangled pair state.

96 Finally, we send one photon from an entangled pair through our double-slit setup and show th

97 The formation of orbitally entangled pairs is predicted to give rise to a shift in

98 ems is the thermally activated rate at which entangled pairs of dislocations become unpinned from eac

99 protocol, which involves the distribution of entangled pairs of optical modes among many quantum memo

100 ness for quantifying the number of genuinely entangled particles based on the collective effect of di

101 quantum communication is the distribution of entangled particles for use in quantum key distribution.

102 satellite Micius that a pair of time-energy-entangled particles probabilistically decorrelate passin

103 This approach relies on sending each of the entangled particles through identical copies of the proc

104 agnostic scheme for multipartite networks of entangled particles, aimed at assessing the quality of t

105 h relies on the detection of only one of two entangled particles.

106 gnetic correlations in systems with strongly entangled phases, such as those believed to emerge in un

107 to superconductivity and other competing or entangled phases.

108 applications such as coherent Raman sensing, entangled photon generation and frequency conversion.

109 as multidirectional frequency conversion and entangled photon generation.

110 In each period, an entangled photon is added to the cluster state formed by

111 Here we demonstrate entangled photon pair generation from a semiconductor qu

112 tosecond delay between the components of the entangled photon pair is demonstrated.

113 Here, we present an entangled photon pair source with high brightness and in

114 To that end, sources of polarization-entangled photon pair states are an important enabling t

115 The generation of high-quality entangled photon pairs has been a long-sought goal in mo

116 So far, the most widely used entangled photon pairs have been generated from spontane

117 l by performing measurements on polarization-entangled photon pairs in a modified entangled quantum k

118 We find the time-bin entangled photon pairs maintain their high degree of ent

119 onductor quantum dots can generate triggered entangled photon pairs through a cascaded radiative deca

120 port the realization of a source of time-bin entangled photon pairs utilizing the biexciton-exciton c

121 Entangled photon pairs were distributed via two bidirect

122 Our source produces entangled photon pairs with a pair collection probabilit

123 For the polarization entangled photon pairs, however, the degree of entanglem

124 Our setup employs hybrid path-polarization entangled photon pairs, which are distributed over an op

125 rces of indistinguishable single photons and entangled photon pairs.

126 locally observed by coincidence recording of entangled photon pairs.

127 aneous parametric down-conversion, after one entangled photon propagates through multiphoton-scatteri

128 s network, where the expensive resource, the entangled photon source at the telecom wavelength and th

129 ultrathin biexciton lasers and polarization-entangled photon sources.

130 lly filtering the ballistic scattering of an entangled photon, we find that its polarization entangle

131 rsion management, enhancing the ratio of the entangled-photon output to the Raman noise.

132 in high dimensions requires large numbers of entangled photons and consequently suffers from low phot

133 in the distribution of entanglement because entangled photons are easy to generate and transmit.

134 Optical quantum states based on entangled photons are essential for solving questions in

135 ort a week-long transmission of polarization-entangled photons from a single InAs/GaAs quantum dot ov

136 Although entangled photons have been produced at telecommunicatio

137 ically generate long strings of polarization-entangled photons in a cluster state by periodic timed e

138 We emphasize that the use of entangled photons in TPA process plays a critical role i

139 ments of the angular Schmidt spectrum of the entangled photons produced by parametric down-conversion

140 and spatial characterization of polarization-entangled photons produced by Spontaneous Parametric Dow

141 genated ethers interact with pairs of 800 nm entangled photons while neither interact with 800 nm cla

142 rrower than for TPA, corresponding to highly entangled photons with a large Schmidt number.

143 e- and four-party setting using polarization-entangled photons, highlighting its potential for realis

144 ate the monogamy violation with polarization-entangled photons, providing a pseudo-density operator q

145 a scheme can be utilised to generate colour-entangled photons.

146 requency convertors, sources of radiation or entangled photons.

147 f a three-spin Ising ring by using a pair of entangled photons.

148 f 7.11 +/- .04 ebits shared by two spatially-entangled photons.

149 genated diethyl ether does not interact with entangled photons.

150 al space spanned by vector vortex modes with entangled polarisation and orbital angular momentum degr

151 in-situ neutron spin echo measurements on an entangled polydimethylsiloxane melt under shear and demo

152 constraints, which lead to an early onset of entangled polymer dynamics.

153 bly has the dynamical structure of a loosely entangled polymer.

154 uniformly dispersed in high molecular weight entangled polymers.

155 ights on the selection of mechanisms in self-entangled protein folding while, at the same time, the p

156 Complex lassos, namely self-entangled protein structures characterized by a covalent

157 The KnotProt 2.0 database classifies all entangled proteins, represents their complexity in the f

158 tion methods for the spatial distribution of entangled quantum information.

159 ization-entangled photon pairs in a modified entangled quantum key distribution system, followed by a

160 n instrumentation and technologies utilizing entangled quantum light.

161 odel determine the equilibrium states of the entangled quantum networks and characterize the stabilit

162 Entangled quantum networks are a fundamental of any glob

163 ntum entanglement is a building block of the entangled quantum networks of the quantum Internet.

164 However, so far, integrated entangled quantum sources have been limited to qubits (D

165 L, electron spins collectively form a highly entangled quantum state that gives rise to the fractiona

166 Space-like separation of entangled quantum states is a central concept in fundame

167 ) has led to the belief that they are highly entangled quantum states(5).

168 nt the creation of a (100 x 100)-dimensional entangled quantum system, using spatial modes of photons

169 Entangled quantum systems have properties that have fund

170 nce of the violation of Bell inequalities by entangled quantum systems.

171 y attainable if the sender and receiver have entangled quantum systems.

172 articular, that two spatially separated, but entangled, quantum systems can be correlated in a way th

173 used to generate several bi- and multiphoton entangled qubits, with direct applications for quantum c

174 Here we demonstrate on-chip generation of entangled qudit states, where the photons are created in

175 least one hundred dimensions, formed by two entangled qudits with D = 10.

176 However, recently a family of entangled resources known as graph states has emerged as

177 re topologically complex assemblies of three entangled rings where no two rings are interlinked in a

178 olutions of high molecular weight DNA in the entangled semi-dilute concentration regime were investig

179 it is, owing to its downconverter's emitting entangled signal and idler beams.

180 To achieve this goal, a source of robust entangled single-photon pairs is required.

181 om triplet resonating valence bonds to Kondo-entangled singlet pairs at the QCP, causes a jump in the

182 ulting from the superradiant emission of two entangled SiV centers.

183 y comprise intimately harmful, distinct, and entangled societal systems of self-serving domination an

184 , super-resolution imaging, high-dimensional entangled source, etc.

185 or-acceptor system can be used to produce an entangled spin qubit (radical) pair in a pure initial si

186 A hairpins generates high-yield, long-lived, entangled spin qubit pairs at 85 K, and time-resolved an

187 This effect depends on the long-lived, entangled spin-order of parahydrogen and an exchange rea

188 version of Bell's inequality for this novel entangled state and find that it is violated by 15 stand

189 r, equally fascinating is how such a quantum entangled state breaks up due to perturbation.

190 eralded generation of two copies of a remote entangled state is demonstrated through single-photon-me

191 -generation framework, where the form of the entangled state is independent of the physical process u

192 It is assumed that a three CV-qudit entangled state is initially prepared in three jointed c

193 pen question of whether every pure bipartite entangled state is self-testable.

194 onstructed density matrix indicates that the entangled state is subject to decoherence originating fr

195 s' energy splittings, to produce a maximally entangled state of one (40)Ca(+) qubit and one (43)Ca(+)

196 ic quantum logic gate to generate a 'hybrid' entangled state of two trapped-ion qubits held in differ

197 Here we report the creation of a many-atom entangled state on an OLC transition, and use it to demo

198 itrary quantum error on an encoded two-qubit entangled state via quantum non-demolition parity measur

199 t measurements herald the distillation of an entangled state with increased fidelity that is availabl

200 rce is distributing a genuinely multipartite entangled state, even in the presence of untrusted parti

201 A unique solution is the teleportation of an entangled state, i.e., entanglement swapping, representi

202 eral iridium oxide systems, the spin-orbital entangled state, identified by the effective angular mom

203 controlling a single phase parameter in the entangled state, the correlated detection statistics can

204 entally characterizing a 100,000-dimensional entangled state.

205 photon prepares several thousand atoms in an entangled state.

206 re unavailable, and may serve as a source of entangled states and coherent matter waves for a wide ra

207 wards a quantum network for high-dimensional entangled states and provides a test bed for fundamental

208 onstrate the creation of three-dimensionally entangled states and show how to incrementally increase

209 Multipartite entangled states are a fundamental resource for a wide r

210 operations to transfer both single-spin and entangled states back and forth in the array without mov

211 Increasing the complexity of entangled states by expanding their dimensionality allow

212 W-type entangled states can be used as quantum channels for, e.

213 These spin-orbit entangled states can host exotic quantum phases such as

214 -Horne-Shimony-Holt)-type Bell inequality on entangled states composed of different ion species.

215 ex quantum networks where high-dimensionally entangled states could be distributed over distant photo

216 e metamaterial can be used to distill highly entangled states from less entangled states.

217 Non-Gaussian entangled states have been produced in small ensembles o

218 Here, we directly generate polarization-entangled states in an AlGaAs waveguide, aided by the PM

219 tial for generation of metrologically useful entangled states in optical transitions, which could per

220 nown qubit state through continuous-variable entangled states in superconducting circuits.

221 l experiments, and post-selected or heralded entangled states involving pairs of photons, single phot

222 al crystalline states (TCSs) are short-range entangled states jointly protected by onsite and crystal

223 Bipartite entangled states of identical particles have been genera

224 Metrologically useful entangled states of large atomic ensembles have been exp

225 ovide a tunable gate that helps discriminate entangled states of light generated by four-wave mixing

226 Quantum metrology exploits entangled states of particles to improve sensing precisi

227 Preparing large-scale multi-partite entangled states of quantum bits in each physical form s

228 protocol could be applied to arbitrary spin-entangled states of spatially separated atoms.

229 However, the distribution of such entangled states over large distances was thought to be

230 ation of generating, storing, and processing entangled states should enable the exploration of multip

231 the generation of a vast class of maximally entangled states suitable for measurements with a Heisen

232 The existence of noisy entangled states that are undistillable but nevertheless

233 Dicke states are multiparty entangled states where a single excitation is delocalize

234 al states whilst reaching a maximum for pure entangled states with full Schmidt rank.

235 ing excitonic quantum matter and large-scale entangled states, a better understanding of high-tempera

236 bitrary pairs of modes and prepare multimode entangled states, all using only two control lines.

237 ion platform with which to control frequency-entangled states, capable of performing deterministic hi

238 nal schemes for generation of all tripartite entangled states, essentially the GHZ state and the W st

239 wever, can be overcome by exploiting quantum entangled states, such as spin-squeezed states(2).

240 -and-amplitude characterizations of discrete entangled states.

241 to distill highly entangled states from less entangled states.

242 ity of a family of two-qubit (pure or mixed) entangled states.

243 tors on each mode of two classes of two-mode entangled states.

244 i-qubit logic operations and the creation of entangled states.

245 exponential complexity of ergodic many-body entangled states.

246 Quantum-mechanically correlated (entangled) states of many particles are of interest in q

247 Our demonstration of an entangled steady state of two qubits represents a step t

248 nterpenetrate each other, in a complex fully entangled structure.

249 erformance and low-complexity routing in the entangled structure.

250 ate the results of the model through various entangled structures and quantify the dynamics.

251 Currently the database contains >2000 entangled structures, and it regularly self-updates base

252 we go one step further and search for links-entangled structures, more complex than knots, which con

253 on about proteins which form knots and other entangled structures.

254 As a consequence of this, each entangled subsystem experiences a loss of coherence foll

255 rossing points in the resulting spin-orbital entangled surface band structure, thereby stabilising su

256 rmation from each subsystem to the composite entangled system.

257 sity matrix of a high-dimensional two-photon entangled system.

258 favourably with optimized conventional (non-entangled) systems.

259 toids and the ensuing aggregation of polymer-entangled tactoids into larger structures, obtaining var

260 ied model binding sites allow one to isolate entangled terms in molecular energy functions.

261 opological order), whereas others are weakly entangled (that is, have symmetry-protected trivial orde

262 Some of the topological phases are highly entangled (that is, have topological order), whereas oth

263 ecific values), and composite systems can be entangled (they cannot be decomposed into their subsyste

264 Such gates help generate maximally entangled three-qubit Greenberger-Horne-Zeilinger and W

265 ion, we show that the clocks necessarily get entangled through time dilation effect, which eventually

266 r polymerization the carbon materials become entangled to form an interconnected conducting network c

267 ecessary components for investigating highly entangled topological states, and our observations provi

268 ies exhibit rapid formation of a bound, spin-entangled triplet-pair state TT.

269 ularly significant manifestation is the spin-entangled triplet-pair state, which mediates the spin-co

270 on to reveal the photophysical properties of entangled triplet-pair states.

271 ropic magnetoresistance highlight the large, entangled tunabilities of the ordinary charge and spin-d

272 Here we report a theoretical study of entangled two-photon absorption (ETPA) in organic chromo

273 ce selectively excited by the process of the entangled two-photon absorption is reported.

274 radiative line width, which we relate to the entangled two-photon density of states using a quantum e

275 Entangled two-photon microscopy offers nonlinear imaging

276 ions, classical two-photon spectroscopy, and entangled two-photon spectroscopy.

277 e demonstrate the generation of polarization-entangled two-photon state through spontaneous four-wave

278 and reconfigurable optics to generate a path-entangled two-qubit state and analyse its entanglement.

279 h the decision to suppress decoherence on an entangled two-qubit state is delayed until after the dec

280 We further elaborate entangled vascular networks from space-filling mathemati

281 tanding of superradiant emission by atoms in entangled W-states we examine the quantum statistical pr

282 entanglements of the fibers resulting in an entangled water-filled network.

283 molecule that readily becomes topologically entangled whenever it has to be opened for translation,

284 tem's ground state is not necessarily highly entangled, which is usually considered a hallmark of ult

285 e find this financial network to be strongly entangled while also having a modular structure that con

286 ll inequality has been observed for a system entangled with a superposition of coherent states, known

287 nteract with its past copy, but is initially entangled with another qubit.

288 g sociocultural component that is intimately entangled with biological sex and challenging to model i

289 ich particular sources of uncertainty become entangled with cause-effect details within and across se

290 ven by hydrophobic interactions, they become entangled with each other.

291 able measurement on a distant quantum system entangled with it.

292 that the dynamo self-accelerates and becomes entangled with kinetic instabilities as magnetization in

293 difficult, as timing on this scale is deeply entangled with other behaviors.

294 itutional isomers of porphyrins, is strongly entangled with spectral and photophysical parameters.

295 chiral assemblies of gold nanoparticles are entangled with the cells' cytoskeletal fibres.

296 dependent of intelligence-and, hence, may be entangled with the health inequalities reflecting differ

297 vaccination clusters manage to become highly entangled with undecided clusters in the main online net

298 noncrystal nanospheric vancomycin aggregates entangled with uromodulin explained the vancomycin-assoc

299 tion that the emitted photon polarization is entangled with valley pseudospin.

300 in these oncogene-expressing cells was more entangled, with increased width of the fibers compared w