ライフサイエンスコーパス: entangled

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

2 ver, following replication they often remain entangled.

3 internal friction effects are intrinsically entangled.

4 leukemia-initiating cells (L-ICs) are deeply entangled.

5 on the types of degrees of freedom that are entangled.

6 d as product states when they are inherently entangled.

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

8 ngled conformations, and an exclusively self-entangled [1]rotaxane were separately prepared and chara

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

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

11 explained by rheological theories describing entangled actin filaments, there is a clear need to exte

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

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

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

15 Although the underlying mechanism is likely entangled and complicated, the data presented indicate t

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

17 hat rapidly and reversibly samples both self-entangled and disentangled conformations, yet favors dis

18 2 particles, and show that the qubits can be entangled and measured so as to violate the Clauser-Horn

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

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

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

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

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

24 conjectures (i.e., the "express train" and "entangled bank" hypotheses) have also been widely discus

25 Darwin's classic image of an "entangled bank" of interdependencies among species has l

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

27 Is it possible to untangle the 'entangled bank'--Darwin's metaphor for the complexity an

28 to obtain an optically tunable delay for EPR entangled beams of light.

29 rves the quantum spatial correlations of the entangled beams.

30 Here we demonstrate the stabilization of an entangled Bell state of a quantum register of two superc

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

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

33 e flow-induced structured phase (FISP), with entangled, branched, and multiconnected micellar bundles

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

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

36 nent (ASY1/HOP1) to find unsynapsed regions, entangled chromosomes can be easily detected.

37 L5-depleted cells exhibit undercondensed and entangled chromosomes.

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

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

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

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

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

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

44 time scales out of equilibrium, can decouple entangled degrees of freedom by visualizing their corres

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

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

47 Thus, diffusion in entangled DNA solutions strongly depends on topology of

48 oil stress and by unknotting or decatenating entangled DNA.

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

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

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

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

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

54 The second is when beads diffuse through entangled F-actin networks, bead radius being less than

55 est activated diffusion between pores in the entangled F-actin networks, in the same spirit as activa

56 networks, frustration can lead to massively entangled ground states, underpinning exotic materials s

57 We take advantage of this property to delay entangled images, making this the first step towards a q

58 ions the cylindrical micelles overlapped and entangled in a fashion similar to polymers in semi-dilut

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

60 perconducting transition temperature (T(c)), entangled in an energy-momentum-dependent manner with th

61 onin is a neuromodulator that is extensively entangled in fundamental aspects of brain function and b

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

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

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

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

66 local changes of basis, three qubits can be entangled in two fundamentally different ways.

67 lsion stabilizes a J(eff) = 1/2 spin-orbital entangled insulating state at low temperatures.

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

69 a highly concentrated state they may become entangled, leading to restricted self-diffusion.

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

71 The use of quantum-mechanically entangled light to illuminate objects can provide substa

72 Entangled light with such high fidelity is sufficient fo

73 conversion is the most widely used source of entangled light, and has been used to implement non-dest

74 At present, entangled-light sources are optically driven with lasers

75 The a.c. operation of the entangled-light-emitting diode (ELED) indicates its pote

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

77 diffusion and forced sliding of adhering or entangled macromolecules, proteins, and biological compl

78 ory tends to rely on superposition-basis and entangled measurements, which require high-fidelity impl

79 bits, quantum feedback and the production of entangled microwave signal pairs.

80 the structural and mechanical regulation of entangled monofunctional UPy-PEG fibrils by cross-linkin

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

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

83 eved by coupling through optical fields, and entangled motion of two ions in separate locations has b

84 ng these led to new problems, reflecting the entangled nature of docking scoring functions.

85 We focus on entangled nematic disclinations in thin twisted nematic

86 fective and "error free" assembly wherein an entangled net of fibers capable of encapsulating solvent

87 Entangled optical photons are now widely used for fundam

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

89 In the absence of Fbh1, chromosomes remain entangled or segregate unevenly during meiosis, and gene

90 We characterize the entangled pair by directly measuring qubit correlations

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

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

93 antum network nodes, obtaining high-fidelity entangled pairs becomes imperative for practical realiza

94 Distilling high-fidelity entangled pairs from lower-fidelity precursors can act a

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

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

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

98 The measurement of correlations between entangled particles can have results at odds with classi

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

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

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

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

103 ancies grow exponentially with the number of entangled particles.

104 to superconductivity and other competing or entangled phases.

105 Tunability of the entangled photon absorption can thus be achieved by util

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

107 as multidirectional frequency conversion and entangled photon generation.

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

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

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

111 Entangled photon pairs generated 'on demand' have signif

112 Proof-of-principle experiments distilling entangled photon pairs have been carried out.

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

114 and probabilistically emit zero or multiple entangled photon pairs in most cycles, fundamentally lim

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

116 We show that the device emits entangled photon pairs under d.c. and a.c. injection, th

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

118 g an electrically driven on-demand source of entangled photon pairs, but so far such a source has not

119 lization of an electrically driven source of entangled photon pairs, consisting of a quantum dot embe

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

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

122 eeding one radian, resulting in polarization-entangled photon pairs.

123 utilizing the spatial characteristics of the entangled photon pairs.

124 locally observed by coincidence recording of entangled photon pairs.

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

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

127 ultrathin biexciton lasers and polarization-entangled photon sources.

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

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

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

131 wn polarization states of single photons and entangled photons are converted into time bins determini

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

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

134 en to depend on the degree of overlap of the entangled photons for the indistinguishable conditions.

135 Entangled photons generated by spontaneous parametric do

136 Although entangled photons have been produced at telecommunicatio

137 d by the frequency-time uncertainty, whereas entangled photons have independent temporal and spectral

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

139 The amount of absorption of entangled photons is also seen to depend on the degree o

140 ty to do spectroscopy with a small number of entangled photons is an important development in the are

141 a nonlinear optical material as a sensor for entangled photons offers great possibilities for applica

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

143 Entangled photons provide an important tool for secure q

144 We implement this scheme via two entangled photons shared across the polarisation modes o

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

146 requency convertors, sources of radiation or entangled photons.

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

148 al digital logic, requires a large number of entangled photons.

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

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

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

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

153 the topological structure of highly branched entangled polymers, with industrial-level complexity, to

154 uniformly dispersed in high molecular weight entangled polymers.

155 tress versus strain behavior while squeezing entangled polystyrene films to large strains.

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

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

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

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

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

161 Entangled quantum systems have properties that have fund

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

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

164 hy of a solid-state spin-photon-polarization-entangled qubit pair, using a single electron-charged in

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

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

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

168 ever, neurons in these structures often have entangled representations, whereby single neurons encode

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

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

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

172 mer generation on the cross-section for both entangled (sigmaE) and random (deltaE) two-photon absorp

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

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

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

176 pair of neighbouring quantum spins forms an entangled spin singlet (valence bonds) and these singlet

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

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

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

180 uitable for general quantum computation; the entangled state has a fidelity of 0.76(3), where the unc

181 trical signal and by storing one half of the entangled state in the mechanical oscillator.

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

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

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

185 sembles is created by coherent mapping of an entangled state of light.

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

187 basis fidelity of 94.3 +/- 0.2%; and a path-entangled state of two photons with fidelity of >92%.

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

189 g any physical platform that can prepare the entangled state prescribed here.

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

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

192 xperiment, we deterministically generate the entangled state, and measure both qubits in a single-sho

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

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

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

196 (unentangled) system with that of a 10-qubit entangled state, realized by nuclei in a highly symmetri

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

198 photon prepares several thousand atoms in an entangled state.

199 ntraction in length upon capture of the self-entangled state.

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

201 al systems capable of generating and storing entangled states among multiple quantum memories, and ef

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

203 nts, coherent control, and the generation of entangled states and describe some of the challenges tha

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

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

206 Entangled states are a key resource in fundamental quant

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

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

209 Quantum entangled states can be very delicate and easily perturb

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

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

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

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

214 In superconducting devices, two-qubit entangled states have been demonstrated and used to show

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

216 demonstrated for diverse bipartite systems, entangled states have not been achieved for interconnect

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

218 equences could be used to generate maximally entangled states in such molecules.

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

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

221 the experimental creation and measurement of entangled states is of crucial importance for various ph

222 Bipartite entangled states of identical particles have been genera

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

224 ch experiments may lead to the generation of entangled states of larger-scale mechanical oscillators,

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

228 The coherent control of quantum-entangled states of trapped ions has led to significant

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 existence of noisy entangled states that are undistillable but nevertheless

232 quantum uncertainty relations to detect the entangled states that span the Hilbert space of interest

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

234 interaction allows the generation of highly entangled states with concurrence up to 94 per cent.

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

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 to distill highly entangled states from less entangled states.

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

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

241 uch lower effective friction than disordered entangled states.

242 o perform interqubit operations and generate entangled states.

243 n the membrane-forming polymer blocks are in entangled states.

244 m that prevents the formation of macroscopic entangled states.

245 l-state fidelity for preparing long-distance entangled states.

246 -and-amplitude characterizations of discrete entangled states.

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

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

249 Indeed, concurrently with this work, an entangled steady state of two superconducting qubits was

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

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

252 the sensitivity to an applied field for the entangled system and show that this spin-based approach

253 rmation from each subsystem to the composite entangled system.

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

255 Entangled systems display correlations that are stronger

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

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

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

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

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

261 it) codes, which map a one-qubit state to an entangled three-qubit state; they can correct any single

262 o beams of light can be quantum mechanically entangled through correlations of their phase and intens

263 show that mitotic chromatin is heavily self-entangled through experiments in which topoisomerase (to

264 te, in which electrons in two reservoirs are entangled through their interaction with a single locali

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

266 brium, wormlike micelles can transition from entangled to branched and multiconnected structures with

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

268 ed by a straight body segment but with curly entangled top, we have created gecko-foot-mimetic dry ad

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

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

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

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

273 icture in which Fc moves through networks of entangled tubular and irregular vesicles, only some of w

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

275 Entangled two-photon absorption (ETPA) experiments and t

276 version (SPDC) have been used to investigate entangled two-photon absorption (ETPA) in multiannulene

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 like the two-qubit case, where all maximally entangled two-qubit states are equivalent up to local ch

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 rence or vacuum twin beams that are strongly entangled when projected onto a large range of different

284 in a superposition of alive and dead states entangled with a radioactive nucleus).

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

286 Each signal sent out is entangled with an ancilla, which is retained.

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

288 By contrast middle layer molecules remain entangled with capsule layers preventing their release w

289 nearly 100% efficiency, and they are readily entangled with each other through the Coulomb interactio

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

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

292 , because electron-electron interactions are entangled with local environment of assembled atoms.

293 n these systems do not order, but are highly entangled with one another over long ranges.

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

295 f single atoms or atomic ensembles have been entangled with spontaneously emitted light.

296 , no more than 14 ion-based qubits have been entangled with the ion-trap approach, so there is a clea

297 es from a percolated network of defect lines entangled with the particles in three dimensions.

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