ライフサイエンスコーパス: sensory system

1 ing monosynaptic rabies-based tracing in the sensory system.

2 worm's behavior beyond affecting the thermal sensory system.

3 may be of little importance to a biological sensory system.

4 of the deprived cortical regions by another sensory system.

5 ved to mitigate the constraints of a compact sensory system.

6 are encoded by a small and highly connected sensory system.

7 ncover the coding strategies used by a given sensory system.

8 poorly understood feature of the vertebrate sensory system.

9 rvical cord and brain morphometry across the sensory system.

10 ulate a broader approach to this fascinating sensory system.

11 functional inhibition of the effector and/or sensory system.

12 ), which are predicted to compose a Bgl-like sensory system.

13 the inhibitor GtACR2 within their peripheral sensory system.

14 e magnitude of inhibition of the subordinate sensory system.

15 spatial expectations independently for each sensory system.

16 y modulation are not fully understood in any sensory system.

17 nflammation and activation of the trigeminal sensory system.

18 ons might reveal similar strategies in other sensory systems.

19 t this may be a mechanism shared by (active) sensory systems.

20 e opposite behavioral outcomes via different sensory systems.

21 w of inhibition across different species and sensory systems.

22 ce the evolutionary form and function of its sensory systems.

23 that provide a means of communication among sensory systems.

24 is potentially shared widely among multiple sensory systems.

25 le neural map might also be present in other sensory systems.

26 le in the development of central circuits in sensory systems.

27 n specific evolutionary adaptations to their sensory systems.

28 der background conditions is inherent in all sensory systems.

29 that enables pathway-specific plasticity in sensory systems.

30 plans [2, 3], as well as convergences in the sensory systems.

31 s have greatly advanced our understanding of sensory systems.

32 simultaneously suppresses activity in other sensory systems.

33 to parallel pathways is a common strategy in sensory systems.

34 use of prey cues conveyed through additional sensory systems.

35 ween different sources of neural activity in sensory systems.

36 Adaptation is a ubiquitous property of sensory systems.

37 ilar computations are implemented in the two sensory systems.

38 ated, is an inherent component of almost all sensory systems.

39 the generation of alpha is equivalent across sensory systems.

40 atures of mechanoreceptive processing across sensory systems.

41 understanding of visual processing and other sensory systems.

42 taneous activity is a hallmark of developing sensory systems.

43 evel cognitive ability by studying low-level sensory systems.

44 n, a well known processing strategy of early sensory systems.

45 ver, is known concerning obesity's impact on sensory systems.

46 correspond to three distinct goals of early sensory systems.

47 nd sensing is particularly evident in active sensory systems.

48 to understanding neural population codes in sensory systems.

49 ensory mechanism with implications for other sensory systems.

50 sing and thus enhances performance on intact sensory systems.

51 sly decodes information detected by multiple sensory systems.

52 ct the connections and organization of other sensory systems.

53 lamic information onto the striatum in other sensory systems.

54 isual system and making connections to other sensory systems.

55 implicated in controlling gain and acuity in sensory systems.

56 sed on the crossed neuroanatomy of motor and sensory systems.

57 In sensory systems, a range of computational rules are pres

58 In this Review, we ask whether sensory system abnormalities are specific to particular

59 indicate that, analogous to its influence on sensory systems, acetylcholine can act directly on corti

60 es in behavior might relate to plasticity in sensory systems across developmental time.

61 upon interactions between neural, motor, and sensory systems across multiple timescales and neurocogn

62 ience, he was fascinated by the evolution of sensory systems across species.

63 Sensory systems adjust continuously to the environment.

64 response to a changing sensory environment, sensory systems adjust their neural code for a number of

65 ever, it is unknown how different long-range sensory systems affect spatial representations.

66 nisms of adaptation, a ubiquitous feature of sensory systems, allow for the accommodation of this ran

67 The chemotaxis sensory system allows bacteria such as Escherichia coli

68 rey species that use vision as their primary sensory system and suppressed the activity of species th

69 whether alpha is a general mechanism across sensory systems and (2) which cortical layers generate a

70 eral principles of neural computation across sensory systems and animal classes.

71 advantages for studying interactions between sensory systems and behavior, given their complexity wit

72 significant role in the evolution of primate sensory systems and behavior.

73 om a neuroscientific investigation of insect sensory systems and ends with infield testing of new cla

74 ll acquisition is a reflection of changes in sensory systems and how much reflects changes in the bra

75 an important feature of feedback pathways in sensory systems and in the nervous system in general.

76 als, our results highlight the importance of sensory systems and phylogenetic history in determining

77 integrative approach to understanding avian sensory systems and provide an example of one system tha

78 operty, they are likely to be present across sensory systems and, thus, our results are a critical st

79 t the relationship between brain morphology, sensory systems, and behavior.

80 altered within the auditory system, between sensory systems, and between the auditory system and cen

81 ur study reveals interconnections with other sensory systems, and the exact inputs to the motor syste

82 SWS is ideal for replay given hyporesponsive sensory systems, and thus reduced interference.

83 e object representation along a hierarchical sensory system are associated with changes in the geomet

84 he efficient coding hypothesis proposes that sensory systems are able to detect such covariation and

85 ccording to the efficient coding hypothesis, sensory systems are adapted to maximize their ability to

86 issue for feedback control because different sensory systems are affected by different temporal delay

87 how information is accumulated in time while sensory systems are categorizing dynamic sensory stimuli

88 Functional deficits in sensory systems are commonly noted in neurodevelopmental

89 Animal sensory systems are optimally adapted to those features

90 It is widely believed that sensory systems are optimized for processing stimuli occ

91 Most sensory systems are organized into parallel neuronal pat

92 Sensory systems are particularly malleable during develo

93 Although signal characteristics and sensory systems are predicted to co-evolve according to

94 Most sensory systems are remarkable in their temporal precisi

95 ation by moving through a dynamic world, but sensory systems are usually studied under highly constra

96 There is an ever-rising interest in this sensory system as a neurobiological model to study devel

97 lue of the environment is coded by nonvisual sensory systems as early as the sensory receptors and th

98 l changes in key regions of the learning and sensory systems associated with anesthesia-induced learn

99 Here, we demonstrate that the sensory systems associated with signal perception are ev

100 ompile a comprehensive functional map of the sensory system at single neuron resolution.

101 cal increases in rGMVs of the regions of two sensory systems (auditory and visual networks), and an a

102 r predators that use vision as their primary sensory system, bats compute the three-dimensional (3D)

103 ffects have never been investigated in other sensory systems because of the lack of comparable single

104 n animal's ability to survive depends on its sensory systems being able to adapt to a wide range of e

105 gain control has been extensively studied in sensory systems but overlooked in decision-theoretic mod

106 ances activity in the corresponding cortical sensory system, but simultaneously suppresses activity i

107 Sparse codes are found in nearly every sensory system, but the role of spike timing in sparse s

108 urbances in peripheral and central motor and sensory systems, but the public health impact for neurol

109 Ribbon synapses transmit information in sensory systems, but their development is not well under

110 Spike timing codes are critical in many sensory systems, but there is now growing evidence that

111 s generate a highly individualized olfactory sensory system by promoting neuronal diversity.

112 Sensory systems can adapt to different environmental sig

113 The olfactory system, like other sensory systems, can detect specific stimuli of interest

114 his end, synthetic biologists have built new sensory systems, cellular memories, and alternative gene

115 rovide clear evidence of adaptive signal and sensory system coevolution.

116 Sensory systems constantly compare external sensory info

117 Sensory systems continuously adjust their function to ma

118 The integration of two ancestral sensory systems-CueR, which provides signal specificity,

119 Sensory systems define an animal's capacity for percepti

120 This skin-nerve sensory system demands a quantitative model that spans t

121 The demands on a sensory system depend not only on the statistics of its

122 properties of TRIC and that TRIC signals in sensory systems depend on neuronal activity.

123 d functional changes in the operation of the sensory system designed to encode external and internal

124 Yet the integrity of sensory systems determines effective perception and beha

125 Our results demonstrate that sensory systems develop in tandem and that alterations i

126 1) a serotonin-sensitive period that impacts sensory system development, (2) a serotonin-sensitive pe

127 types is controlled by experience-even in a sensory system devoted to "innate" behaviors-highlights

128 How do sensory systems disambiguate events in the external worl

129 turalistic conditions.SIGNIFICANCE STATEMENT Sensory systems discount stimulation caused by an animal

130 Sensory systems do not work in isolation; instead, they

131 like natural rewards, which are processed by sensory systems, drugs act directly on the brain.

132 iting core cortical areas of the subordinate sensory system (e.g., vestibular), thus reducing potenti

133 rlow, 1961) proposes that the neural code in sensory systems efficiently encodes natural stimuli by m

134 However, it is unknown whether other sensory systems employ this mechanism to mediate feature

135 Sensory systems encode both the static quality of a stim

136 Sensory systems encode the environment in egocentric (e.

137 Sensory systems encounter remarkably diverse stimuli in

138 amental feature of information processing in sensory systems, enhancing contrast sensitivity and enab

139 ce the comparative approach to understanding sensory system evolution in birds and other vertebrates.

140 m function, neuronal signal computation, and sensory system evolution.

141 that many natural stimuli are sparse, can a sensory system evolve to take advantage of this sparsity

142 Animals' sensory systems evolved to efficiently process informati

143 Sensory processing and sensory system FA were both reduced in older animals com

144 Animals with compact sensory systems face an encoding problem where a small n

145 All sensory systems face the fundamental challenge of encodi

146 In sensory systems, feedforward processing transmits signal

147 Sensory systems for detecting tactile stimuli have evolv

148 Most animals possess specialized sensory systems for encoding body rotation, which they u

149 e mutation models.SIGNIFICANCE STATEMENT All sensory systems form a topographical map of neuronal pro

150 functional studies in other sensory and non-sensory systems from juvenile and adult zebrafish.

151 Many sensory systems, from vision and hearing in animals to s

152 sing evidence that supporting/glial cells in sensory systems function in sensory transduction.

153 f sound.SIGNIFICANCE STATEMENT In developing sensory systems, groups of neurons that will process inf

154 While intraspecific variation in sensory systems has been documented across distant taxa,

155 The evolution of sensory systems has let mammals develop complicated tact

156 The operation of our multiple and distinct sensory systems has long captured the interest of resear

157 Sensory systems have adopted various ways to enhance det

158 A growing body of evidence suggests that sensory systems have developed coding strategies that ar

159 Sensory systems have evolved to respond to input stimuli

160 damental question about the evolution of any sensory system: how is it possible to detect and exploit

161 on the central nervous system areas for any sensory system in a pinniped.

162 is library includes the vast majority of the sensory system in C. elegans.

163 One such sensory system in insects is the campaniform sensilla (C

164 The new fossil also reveals a neurovascular sensory system in the premaxilla and a partly calcified

165 by oculomotor structures and communicated to sensory systems in concert with the execution of each sa

166 mental abnormalities in visual and olfactory sensory systems in Down syndrome model mice, which provi

167 amental structural aspects of the developing sensory systems in Drosophila.

168 plasticity and connectivity are impaired in sensory systems in DS model mice, that such defects may

169 eactivating either the magnetic or olfactory sensory systems in experienced white-throated sparrows (

170 gans of gastropods but is different than the sensory systems in vertebrates or arthropods.

171 about the mouse visual system than any other sensory system, in any species, including humans.

172 ory, fewer studies have examined the role of sensory systems, in particular the olfactory system, in

173 bition is a key feature of circuitry in many sensory systems including vision, audition, and olfactio

174 een suggested as a mechanism used in several sensory systems, including primate somatosensation.

175 Ciona larvae have several sensory systems, including the ocellus and otolith, whic

176 Throughout different sensory systems, individual neurons integrate incoming s

177 le for QS induction due to mannose, but each sensory system induced Rgg-SHP signaling apparently by d

178 Sensory systems influence one another during development

179 avoidance by developing a quadcopter with a sensory system inspired by the mosquito.

180 Sensory systems integrate multiple stimulus features to

181 NCE STATEMENT To generate coherent percepts, sensory systems integrate simultaneously occurring featu

182 erceptual decision making has shown that the sensory system integrates different sources of informati

183 What is particularly remarkable about this sensory system is a cellular patterning that is induced

184 The extent to which the sensory system is affected and how this relates to senso

185 The sensory system is based on the utilization of nanoprobe-

186 This sensory system is comprised of neuromasts, patches of ha

187 udies demonstrated that the S. aureus SaeR/S sensory system is essential for pathogen survival follow

188 A fundamental task of a sensory system is to infer information about the environ

189 A central goal in the study of any sensory system is to predict neural responses to complex

190 The action of Bk on the sensory system is well documented but its effects on mot

191 One of the most complex tasks performed by sensory systems is "scene analysis": the interpretation

192 Integrating inputs across sensory systems is a property of the brain that is vital

193 Evolution of biological sensory systems is driven by the need for efficient resp

194 The ability to modulate sensitivity in sensory systems is essential for useful information to b

195 It is now well established that activity in sensory systems is subject to cross-modal attention effe

196 One of the ubiquitous principles of sensory systems is the creation of circuits that capital

197 However, since spatial coding in sensory systems is typically addressed by measuring rece

198 nce of spike timing has been demonstrated in sensory systems, it is largely unknown whether timing di

199 t the evolution of ON-OFF diversification in sensory systems may be driven by the benefits of lowerin

200 ed evolution of the morphology of the lizard sensory system merely originates from studies comparing

201 tter connectivity at multiple levels of each sensory system might impact auditory and visual function

202 s to an organism's environment often involve sensory system modifications.

203 to explain optimal cue combination in other sensory systems more generally.

204 cal value of environmental stimuli, animals' sensory systems must accurately decode both the identiti

205 Sensory systems must be able to extract features of a st

206 Sensory systems must reduce the transmission of redundan

207 this state impairs the function of the very sensory systems necessary to detect favorable growth con

208 ator-prey interaction models assume that the sensory system of prey (and hence their behavior) varies

209 The whisker sensory system of rodents is an excellent model to study

210 n age in the exploration of the diversity of sensory systems of insects (and indeed other animals), i

211 on of communication signals is shaped by the sensory systems of receivers and the habitat conditions

212 Consequently, sensory systems often adjust their neural code to the ex

213 g involves the integration of at least three sensory systems: olfaction, vision and taste.

214 ce, for an experimentally well-characterized sensory system, one ought to be able to extract valuable

215 They suggest that the sensory system operates through a vibratory amplitude mo

216 iming differences that arise in the motor or sensory system or whether asymmetry results from lateral

217 ns of neural architecture that occur between sensory systems, or that occur within large groups of cl

218 ) differences in encoding strategies between sensory systems-or even adaptational changes in encoding

219 y behaviors are a shared feature of (active) sensory systems, our results have general implications f

220 In sensory systems, patterned spontaneous activity before t

221 In sensory systems, peripheral organs convey sensory inputs

222 Our study provides evidence for sensory system plasticity when individuals dramatically

223 nd cortex.SIGNIFICANCE STATEMENT The whisker sensory system plays a quintessentially important role i

224 Where and how sensory systems process backgrounds is not fully underst

225 electrical activity of neurons in developing sensory systems promotes their maturation and proper con

226 Sensory systems provide input to motor networks on the s

227 ggest that asymmetric coupling between these sensory systems provides enhanced steering responses to

228 n-specific manner.SIGNIFICANCE STATEMENT All sensory systems receive serotonergic modulatory input.

229 Classic sensory systems rely on neuroepithelial circuits to conv

230 The primary sensory system requires the integrated function of multi

231 ing neurons (ON/OFF cells) are found in many sensory systems, responding respectively to increased or

232 ural networks develop is based on studies of sensory systems, revealing often highly stereotyped patt

233 and relative overgrowth of the two different sensory systems selectively compounds the distinct sympt

234 Sensory systems sequentially extract increasingly comple

235 on parsing strategies in auditory and visual sensory systems.SIGNIFICANCE STATEMENT Intersensory timi

236 With respect to their sensory systems, species that adopt a sit-and-wait strat

237 that in primate mechanoperception and other sensory systems, spike rates and timing of cell populati

238 In sensory systems, spike-timing precision is constrained b

239 dorabies virus (PRV152) and demonstrated the sensory system (SS) inflow from BAT to brain using the a

240 viour relies on integrating information from sensory systems, stored knowledge, and internal states.

241 It is well known that the motor and the sensory systems structure sensory data collection and co

242 ghts a level of plasticity not seen in other sensory system subcortical circuits.

243 intervals, given that temporal delays across sensory systems such as vision and proprioception differ

244 In several sensory systems, such as audition, vision, and somatosen

245 ment, including functional trade-offs in the sensory systems, such as loss of color vision genes and

246 teresting in the context of highly organized sensory systems, such as the primate visual system, wher

247 ies between electrolocation and other active sensory systems suggest that this may be a mechanism sha

248 ween different sources of neural activity in sensory systems, suggesting a possible role for 5-HT in

249 tigated this question in the lateral line, a sensory system that allows fish and amphibians to detect

250 The lateral line (LL) is a sensory system that allows fish and amphibians to detect

251 Pit vipers (Crotalinae) have a specific sensory system that detects infrared radiation with bila

252 granulata, which incorporates an integrated sensory system that includes hundreds of eyes with arago

253 eurons, at different levels in the ascending sensory system that processes information originating fr

254 e Chp chemosensory system, a chemotaxis-like sensory system that regulates cAMP production and transc

255 d, but widely conserved class of prokaryotic sensory system that we refer to as the LytTR Regulatory

256 focused on an uncharacterized two-component sensory system that we term DbfS/DbfR for dispersal of b

257 signaling systems offer a rich diversity of sensory systems that are built around a core phosphotran

258 or enhancement of nocturnal vision and other sensory systems that are convergent with other nocturnal

259 iguous sensation as a fundamental problem of sensory systems that has shaped the brain throughout evo

260 In many sensory systems the neural signal is coded by the coordi

261 e noise." Compared with other ultrasensitive sensory systems, the 10-fold signal amplification by the

262 ugh gating has been demonstrated in multiple sensory systems, the neural dynamics and developmental t

263 In many sensory systems, the neural signal splits into multiple

264 f attention have been extensively studied in sensory systems, the neural sources and computations res

265 Three sensory systems, the olfactory, gustatory, and solitary

266 ression in multiple telencephalic nuclei and sensory systems, the results further indicate an express

267 that this information must be merged for the sensory system to categorically distinguish capacitive a

268 l cells use a highly sensitive and adaptable sensory system to detect changes in nutrient concentrati

269 The prefrontal cortex modifies the sensory system to focus attention.

270 ral coding strategies used by this essential sensory system to represent self-motion in everyday life

271 Organisms use their sensory systems to acquire information from their enviro

272 The ability of sensory systems to adapt to static inputs allows wide dy

273 rs by widely projecting neurons often allows sensory systems to alter how they process information ba

274 Biological organisms use their sensory systems to detect changes in their environment.

275 The capacity for sensory systems to encode relevant information that is i

276 and selectivity are functional qualities of sensory systems to facilitate animals' survival.

277 evolutionary adaptive mechanism that allows sensory systems to flexibly forgo accurate representatio

278 maximize the information it captures across sensory systems to perform object recognition.SIGNIFICAN

279 ontext, movement-related signals could allow sensory systems to predict self-induced sensory changes

280 about their physiology or how they use their sensory systems to survive in the extreme conditions of

281 Sensory systems transform the external world into time-v

282 It remains unclear whether different sensory systems undergo similar or distinct trajectories

283 Sensory systems use adaptation to measure changes in sig

284 Sensory systems use receptors to extract information fro

285 Sensory systems use stochastic fate specification to inc

286 Sensory systems use stochastic mechanisms to diversify n

287 Four of the five major sensory systems (vision, olfaction, somatosensation, and

288 habenula and the basal ganglia, limbic, and sensory systems was already present in the common tetrap

289 RET) experiments of the bacterial chemotaxis sensory system, we predict the chemical gradients chemot

290 Changes in the sensory system were prospectively followed by applying a

291 vestigating the inhibition of the vestibular sensory system when visual processing is prioritized, we

292 nsistent with mutational analyses in various sensory systems, where mutations of sensory receptor cel

293 amatically adjust the dynamics of a cortical sensory system, which changes state every approximately

294 t for the type of noise commonly observed in sensory systems, whose variance scales with the mean sig

295 ophic and microstructural changes across the sensory system with a close relation to sensory outcome.

296 he gap between the prefrontal cortex and the sensory system with an overlooked basal ganglia pathway.

297 tion to combinatorial percept synthesis in a sensory system with many receptor channels.

298 integrate the biophysics and neuroscience of sensory systems with ecological and evolutionary process

299 ated morphogenesis that generates functional sensory systems within the head.

300 increase the global baseline excitability of sensory systems without affecting perceptual acuity.