ライフサイエンスコーパス: information processing

1 resource for applications, including quantum information processing.

2 mation embedded in the 'bottom-up' stream of information processing.

3 est and for applications in data storage and information processing.

4 ranging from photovoltaic devices to quantum information processing.

5 olically active oligodendrocytes in cortical information processing.

6 hysics, quantum enhanced sensors and quantum information processing.

7 plausible adaptive response to the costs of information processing.

8 polities based on phased growth in scale and information processing.

9 al expectation, has a strong impact on human information processing.

10 ive sensory information is key for efficient information processing.

11 tegration, optical communication and optical information processing.

12 ical work, chemical or nuclear reactions, or information processing.

13 modulate OSN function by impacting olfactory information processing.

14 ctiveness is determined by the efficiency of information processing.

15 ponse [ASSR] and MMN) suggest improvement in information processing.

16 or larger complexes playing roles in genetic information processing.

17 uditory nuclei to allow vestibular and sound information processing.

18 for control of valley pseudospin for quantum information processing.

19 e in functionally distinct streams of visual information processing.

20 between DDA features and pathophysiology of information processing.

21 smission (E/I ratio) is important for proper information processing.

22 nchronised neuronal firing is detrimental to information processing.

23 ndency and functional contribution to visual-information processing.

24 able resource for both classical and quantum information processing.

25 l partner provided the potential for complex information processing.

26 in ways that influence the effectiveness of information processing.

27 as a resource in quantum memory and quantum information processing.

28 ne (ACh) plays an essential role in cortical information processing.

29 l code and poses a fundamental challenge for information processing.

30 lly specialized brain regions enable complex information processing.

31 um dots is a promising candidate for quantum information processing.

32 d spin ensembles for applications in quantum information processing.

33 for sensitive biosensing and on-chip optical information processing.

34 excitations that are of interest for quantum information processing.

35 nd have a key role in gamma oscillations and information processing.

36 utation presents a powerful new paradigm for information processing.

37 w abGCs distinctively contribute to local DG information processing.

38 pocampus and the mPFC at different stages of information processing.

39 cision making by improving the efficiency of information processing.

40 populations have been implicated in tactile information processing.

41 ronal energy demands as well as for neuronal information processing.

42 sory areas to modulate neuronal activity and information processing.

43 mise to be a potential candidate for quantum information processing.

44 f these oscillations, therefore, may enhance information processing.

45 mework to isolate and understand unconscious information processing.

46 the sensory environment in order to improve information processing.

47 s, including executive function and speed of information processing.

48 x operates near a critical point for optimum information processing.

49 their ability to shape temporal dynamics and information processing.

50 eas, suggesting a role in complex multimodal information processing.

51 (MTCs) form parallel output streams of odor information processing.

52 ami are central sensory pathway stations for information processing.

53 ons in areas of imaging, sensing and quantum information processing.

54 microglia that is capable of slowing neural information processing.

55 ing, metrology, optical trapping and quantum information processing.

56 mediate rapid brain plasticity for adaptive information processing.

57 ng agency in socioaffective and motivational information processing.

58 iodic inputs and can enhance the fidelity of information processing.

59 antum states-a promising approach to quantum information processing.

60 l chemosignals, but we poorly understand AOS information processing.

61 , petahertz (PHz) electronics for high-speed information processing.

62 and reconfigurable memristor array for image information processing.

63 ed brain network organization with cognitive information processing.

64 roposed to shape experience-related neuronal information processing.

65 ed networks of networks are involved in such information processing.

66 dendrites in integrating feedback in visual information processing.

67 nciple for neuronal network organization and information processing.

68 ed largely on the study of luminance-defined information processing.

69 y and flexibility and enabling plasticity in information processing.

70 scalable approach towards practical quantum information processing.

71 tional benefit does this diversity confer on information processing?

72 tes are capable of improved forms of genetic information processing?

73 ds, restructures neural circuitry to enhance information processing(1).

74 index that is proposed as a basis for future information processing(1,2).

75 ion creates a path to fault-tolerant quantum information processing(4).

76 l of of these states as resources in quantum information processing(5-8).

77 hetic biology are enabling us to exploit the information-processing abilities of living cells to diag

78 ortant implications for our understanding of information processing across different parts of the neo

79 rimental marker for a generalized deficit in information processing across functional disorders that

80 stigated the time course of low-level visual information processing across saccades by decoding the s

81 y olfactory bulb, the first central stage of information processing along the accessory olfactory pat

82 r, it is impossible to understand individual information processing and acceptance without taking int

83 permitting unfiltered sensory cues to enter information processing and activate sensory representati

84 both social behavior and with domain-general information processing and attention.

85 lications ranging from optics and sensing to information processing and catalysis.

86 t midrange time-scale regulation of cortical information processing and consistent goal-directed beha

87 of the "neurocomputational cost" of sensory information processing and decision making in the optima

88 plications in data encryption, data storage, information processing and displays.

89 wth in polity scale, then by improvements in information processing and economic systems, and then by

90 ., learning and memory (L&M)] and VaD (i.e., information processing and executive functioning).

91 ility of these lasers in trapped ion quantum information processing and for probing weak coherent opt

92 efect ensembles with applications to quantum information processing and fundamental studies of many-b

93 fundamental relationship between arousal and information processing and indicates that pupil size can

94 OCs to explore scrambling, bounds on quantum information processing and investigation of black hole a

95 cations in linear matrix operations, quantum information processing and microwave photonics, and exam

96 hat in flies control auditory and vestibular information processing and motor coordination, as do MHB

97 nductors are versatile platforms for quantum information processing and nanoscale sensing, where spin

98 refully controlled by inhibition to regulate information processing and network excitability.

99 tablishing important ingredients for quantum information processing and quantum metrology.

100 great demand for applications in all-optical information processing and quantum optics.

101 l systems offer new opportunities in quantum information processing and quantum sensing.

102 ngle networks to derive insights into neural information processing and rather suggest that computati

103 amonds open up new possibilities for quantum information processing and sensing.

104 its and spin ensembles to be used in quantum information processing and storage.

105 regulation of cellular processes and genetic information processing and up-regulation of some metabol

106 nitive vulnerability on sustained attention, information processing and visual-motor performance, par

107 apy produces long-term impairment in memory, information processing, and attention that contribute to

108 ate pathways contribute critically to visual information processing, and both midbrain and forebrain

109 rise functionally distinct pathways for odor information processing, and suggest that the reformattin

110 ed as a key site for cognitive and affective information processing, and the anteroventral bed nuclei

111 attention and memory interact to facilitate information processing, and thus a more integrative appr

112 genides (TMDs) hold great promise for future information processing applications utilizing a combinat

113 spintronic devices for classical and quantum information-processing applications.

114 nons(4) and will lead to quantum sensors and information-processing approaches(5) that use chip-scale

115 y correlate in a dissociable manner with the information-processing architecture of the subnetworks t

116 d photonics is a robust platform for quantum information processing, architectures for photonic quant

117 oundation of current computation and digital information processing, are reaching final limits in pro

118 rior olfactory nucleus (AON) as an olfactory information processing area sends extensive projections

119 We point out that fundamental limits to information processing arise at thermodynamic equilibriu

120 Answers to this question often frame information processing as a competition between cognitio

121 y drive hypothesis that recognizes efficient information processing as a driving force in signal evol

122 cialized inhibitory interactions that govern information processing at the earliest stages of olfacto

123 gest that mechanisms of categorization shape information processing at the earliest stages of the vis

124 e of the algebra to demonstrate the parallel information processing at the level of the ensemble.

125 ic resonance images and the Adult Memory and Information Processing Battery in 145 unilateral refract

126 eshold for societies, beyond which growth in information processing becomes paramount, and an Informa

127 mber and a given effector that is key to the information processing, but the change in the distributi

128 Information processing by brain circuits depends on Ca(2

129 and feeling (mood), functions that depend on information processing by brain cortical cell microcircu

130 Information processing by the nervous system depends on

131 humans, monkeys, and rodents to propose that information processing can be understood as 'social' or

132 mocracy are based on the premise that social information processing can improve group beliefs.

133 uccess of animals with extraordinary sensory information processing capabilities that allow them to s

134 pus arm nervous systems have great arm-local information processing capabilities, raising the possibi

135 this striking phenomenon and its underlying information processing capabilities, we built a mathemat

136 rtical somatostatin interneurons can restore information processing capabilities.

137 Dendritic integration can expand the information-processing capabilities of neurons.

138 ue or alternatively compensating for limited information processing capacity by fixating on a segment

139 Compensating for limited information processing capacity or poor sensitivity by d

140 system pathways and up-regulation of genetic information processing, carbohydrate metabolism, lipid m

141 s detrimental or beneficial to the cognitive information processing carried out in the parahippocampa

142 e is essential if it plays a role in genetic information processing, cell envelope maintenance or ene

143 The information processing characteristics of PTM systems ar

144 the assumption that oligotrophy favors lower information-processing costs whereas copiotrophy favors

145 To decipher dynamic brain information processing, current genetically encoded calc

146 discuss how they inform our understanding of information processing deficits as vulnerability markers

147 t a role for feedforward parietal-prefrontal information processing deficits in delusional psychopath

148 nderlying the development and progression of information-processing deficits in schizophrenia.

149 ssible use of electrostrictive materials for information processing devices has been widely discussed

150 uding energy harvesting, virtual reality and information processing devices, or medical imaging.

151 es based on spin-wave propagation needed for information processing devices.

152 ctoral chemistry students' understanding and information processing during the interpretation of (1)H

153 pology and the ascending arousal system with information processing dynamics, and suggest that the co

154 d by the statistical models for clinical and information processing dysfunction.

155 ed how more specific navigationally relevant information processing emerges in this region.

156 eurons; irregular spiking can interfere with information processing especially for low-contrast image

157 as examined it from the perspective of early information processing events, there has been relatively

158 MedDiet adherence was not associated with information processing, executive functioning, or WMH.

159 We then explored the information processing features of such networks that mi

160 egration could also allow more sophisticated information processing, for example as shown by the clas

161 s promising applications in emerging quantum information processing hardware and has expectation to a

162 eir influence on lower-level areas within an information processing hierarchy.

163 nd included down-regulation of environmental information processing, immune and nervous system pathwa

164 ains whether myelination also contributes to information processing in addition to speeding up conduc

165 rays, and EGT application for spatiotemporal information processing in an SNN are yet to be demonstra

166 bout the corresponding aspects of collective information processing in animal groups.

167 r dynamical architecture related to auditory information processing in both groups.

168 es electrophysiological measures of auditory information processing in both healthy subjects (HS) and

169 from the retina significantly affects visual information processing in both rod and cone pathways.

170 C-dependent mechanisms regulate translation information processing in cerebellar cortex output neuro

171 Information processing in cortical neuronal networks rel

172 g a basis for elucidating the differences in information processing in different brain regions.

173 ctivity and can improve our understanding of information processing in evolutionary ancient and moder

174 nd I) synapses is thought to be critical for information processing in neural circuits.

175 ever, such variability can be beneficial for information processing in neural networks if it is of a

176 erefore suggest that navigationally relevant information processing in OPA undergoes prolonged develo

177 t that OT affects central measures of social information processing in patients with schizophrenia an

178 place risk taking within existing models of information processing in pediatric anxiety disorders an

179 e include developing computational models of information processing in scene regions, investigating h

180 inhibition (LI) is a fundamental feature of information processing in sensory systems, enhancing con

181 nfra-slow rhythmicity.SIGNIFICANCE STATEMENT Information processing in the accessory olfactory bulb (

182 Perturbed information processing in the amygdala has been implicat

183 teractions, suggesting more complex modes of information processing in the basal ganglia for differen

184 Cognitive development studies how information processing in the brain changes over the cou

185 Information processing in the brain depends on specializ

186 music listening, we measured the dynamics of information processing in the brain on a moment-to-momen

187 Understanding information processing in the brain requires monitoring

188 transformed our understanding of feedforward information processing in the brain's sensory periphery,

189 characterize how political attitudes biased information processing in the brain, the language most l

190 al oscillations provides a temporal code for information processing in the brain, we tested whether t

191 al excitation is a fundamental mechanism for information processing in the brain, which is mediated b

192 eurons optimally is central to understanding information processing in the brain.

193 motor and involves a cerebellar influence on information processing in the cerebral cortex.

194 recurrent models are required to understand information processing in the human ventral stream.

195 tion mechanisms and the role of the MSDB for information processing in the MEC.

196 states may modulate firing rates and likely information processing in the MEC.SIGNIFICANCE STATEMENT

197 in the olfactory system is not essential for information processing in the olfactory signaling pathwa

198 re important for monitoring and coordinating information processing in the service of executive contr

199 imple spectrogram-like approximations of the information processing in these structures.

200 would be able to delineate markers of slowed information processing in this paradigm removed from the

201 we asked whether noisy spiking and/or crude information processing in visual cortex limit infant vis

202 xt years will transform the areas of quantum information processing including communication, storage,

203 Among the different platforms for quantum information processing, individual electron spins in sem

204 This extension of information processing into the environment has taken ce

205 Finally, this EGT-based spatiotemporal information processing is deployed to detect moving orie

206 Chief among the resources of quantum information processing is entanglement.

207 Despite its importance, AOB information processing is poorly understood compared wit

208 ether both states support identical forms of information processing is unknown.

209 sponses in early visual cortex to facilitate information processing, it is not clear whether the valu

210 It is now well recognized that the information processing machineries of archaea are far mo

211 sing way to advance the understanding of the information processing mechanisms in the human cerebellu

212 rent cognitive theories are cast in terms of information-processing mechanisms that use mental repres

213 generalization behaviour and its underlying information-processing mechanisms.

214 mance, suggesting both factors contribute to information processing models of driving performance in

215 or have been proposed to serve as elementary information processing modules in the neocortex.

216 We approach the C. elegans connectome as an information processing network that receives input from

217 functionality of network subgraphs in other information-processing networks, including biological an

218 economical fast spiking and high throughput information processing, neurons need to optimize multipl

219 finite coherence budget to invest in quantum information processing, noisy devices with about 50 qubi

220 However, using the vortex state for information processing not only requires creation of a v

221 s of MEC play a vital role in modulating the information processing of stellate cells.

222 t is contained within the smallest module of information processing of the cerebral cortex; one which

223 sic suppression of cortical excitability and information processing once per alpha cycle, resulting i

224 Or does this information processing only develop after many years of

225 using MEG/EEG to reveal novel principles of information processing or to translate findings into new

226 novel roles of autophagy in memory encoding, information processing, or cognitive functions.

227 function and memory impairments), affective information processing patterns (e.g., rigid, negative b

228 s (such as control theory) to understand the information processing performed by brain circuits durin

229 Is navigationally relevant information processing present in the first few years of

230 ion may be compatible with proposed Bayesian information-processing principles.

231 ying mechanism with a theoretical deficit of information processing proposed.

232 g, memory, visuospatial, executive function, information processing, psychomotor functioning, as well

233 Many applications of quantum information processing (QIP) require distribution of qua

234 omplexes could be used as qubits for quantum information processing (QIP) requires that the molecules

235 high-precision unitary operations in quantum information processing (QIP), are derived from composite

236 long to different cortical streams of visual information processing, receive projections from at leas

237 networks supporting "on-line" and "off-line" information processing, respectively.

238 here we show that it also plays an important information-processing role in olfactory navigation.

239 xed degree of segregation and integration of information processing, shedding light into the early me

240 ty of neurons to use synaptic clustering for information processing.SIGNIFICANCE STATEMENT A fundamen

241 orting an active role of astrocytes in brain information processing.SIGNIFICANCE STATEMENT Cardioresp

242 s required in the initial stages of auditory information processing.SIGNIFICANCE STATEMENT Elucidatin

243 cognitive deficits include impaired speed-of-information processing (SIP) and motor functions.

244 but not global, network efficiency and lower information processing speed (standardized beta coeffici

245 Expanded Disability Status Scale (EDSS)) and information processing speed (Symbol Digit Modalities Te

246 correlated with risk calculator variables of information processing speed and verbal memory.

247 ensity volume, local network efficiency, and information processing speed scores are interrelated, an

248 articular, the relationship between WMHs and information processing speed was mediated (percentage me

249 fore making a decision) and drift rate ('v', information processing speed) parameters.

250 disordered thought content, verbal learning, information processing speed, and family history of psyc

251 ger in the white matter tracts important for information processing speed.

252 traumatic brain injury patients showed slow information processing speed.

253 y and male gender were associated with worse information processing speed.

254 -0.084; P < .001) was associated with lower information processing speed.

255 by the MTL are superficially dissimilar, the information processing steps appear shared.

256 signatures that together represent multiple information processing steps of decision-making.

257 ce for understanding elemental principles of information processing, storage and replication.

258 ssociated with a more detail-oriented visual information processing strategy and that this effect mig

259 Conversely, distal threats allow increased information processing supported by model-based (MB) ope

260 zation impacts accessibility and movement of information processing systems along DNA.

261 Brains are information processing systems whose operational princip

262 control of larger numbers of ions in quantum information processing systems.

263 architectures to enable large-scale quantum information processing systems.

264 The development of classical and quantum information-processing technology calls for on-chip inte

265 sk (distraction avoidance), and Rapid Visual Information Processing test.

266 e complement of cell subtypes determines the information processing that a local brain circuit can pe

267 Finally, we display eCRISPR based information processing that allows transmission of spati

268 onal advantages, offering flexibility in the information processing that can be performed with only s

269 ity, cost, and efficiency of the biochemical information processing that underpins metabolism and rep

270 independently address the two components of information processing: the representation of stimuli in

271 To enable neuron-specific information processing these projections have to be prec

272 t influence and where within the sequence of information processing those interactions transpire.

273 EMENT Cognitive control adaptively regulates information processing to align with task goals.

274 Trade-offs in information-processing traits are apparently sufficientl

275 Synapses are fundamental information processing units that rely on voltage-gated

276 Synapses are fundamental information-processing units of the brain, and synaptic

277 monly rely on gene expression regulation for information processing using digital logic.

278 e, we analyze the role of myelin in auditory information processing using paradigms that are also goo

279 Diffusion modelling showed that the speed of information processing was affected by low-level scene c

280 The utility of this information processing was highlighted by using the copp

281 s, the time course of pragmatic and semantic information processing was similar.

282 ether they are detrimental or beneficial for information processing, we believe that clarifying how c

283 ct and elucidate synaptic impact on neuronal information processing, we propose the concept of effect

284 Since hippocampal interneurons control information processing, we tested whether CA1 spatial co

285 an SNN with the capability of spatiotemporal information processing, where spike sequences with diffe

286 d to subserve two parallel streams of social information processing, which allow a single molecule to

287 an applied voltage can be directly used for information processing, which is essential for future ME

288 ul and enigmatic resource central to quantum information processing, which promises capabilities in c

289 ional changes in these major hubs of tactile information processing, whisker stimulation during genui

290 dache and global dysfunction in multisensory information processing, whose underlying cellular and ci

291 he and by global dysfunction in multisensory information processing, whose underlying cellular and ci

292 upplement linear cause-and-effect chains and information processing with circular loops of purpose an

293 Our results demonstrate information processing with low-power consumption inside

294 be a useful one for future scalable quantum information processing with photons.

295 new constraints for theories of its role in information processing within and across cortical circui

296 ating deficits, based on a disintegration of information processing within cortico-striato-thalamo-co

297 al system constrain low-dimensional modes of information processing within the brain.

298 gy, such as the integration and diversity of information processing within the brain.

299 Bottlenecks of information processing within this modular minicolumnar

300 n neocortex plays a crucial role in cortical information processing, yet a complete census of its cel