戻る
「早戻しボタン」を押すと検索画面に戻ります。

今後説明を表示しない

[OK]

コーパス検索結果 (1語後でソート)

通し番号をクリックするとPubMedの該当ページを表示します
1 ntous actin staining, indicating active cell movement.
2  play a central role in mapping sensation to movement.
3 , recruitment, and patterns of long-distance movement.
4 tter understanding of how the brain controls movement.
5 y complex (termed DDB) capable of processive movement.
6 ediate reward was given for every predictive movement.
7 n cells affects the dynamics of IFT particle movement.
8  show an increase in spike rate with whisker movement.
9 bus pallidus feedback loop, and occur during movement.
10 d in controlling the precision of the ocular movement.
11 or example, many larvae display little or no movement.
12 hes from brightfield microscopy and cellular movement.
13 initiating a feedback loop to enable its own movement.
14 or pathological alterations in cell shape or movement.
15  due to diffusion but also the translational movement.
16 hanges only for the effector involved in the movement.
17 ection neurons (SPNs) is critical for proper movement.
18 carrier frequency of this circuit suppressed movement.
19 nd coordinate motility systems for efficient movement.
20 e with dynactin to enhance processive dynein movement.
21 es for patients undergoing orthodontic tooth movement.
22 e the effect of obesity on orthodontic tooth movement.
23  the dexterous control of human arm and hand movements.
24 s stationary, we view it with fixational eye movements.
25 nd attenuate the sensory consequences of our movements.
26 at lead to asynchronous pore-lining M2 helix movements.
27 e is no auditory accompaniment to visual eye movements.
28 cuits control the actual rhythmic pattern of movements.
29 g of CVs performed between incremental motor movements.
30 t were driven by volitional whisker and body movements.
31 al visual acuities of 20/40, 20/70, and hand movements.
32 ents and functionally meaningful multi-joint movements.
33 suppress, the sensory consequences of willed movements.
34 ector dispersal, but below one for livestock movements.
35 tor variability even across trivial reaching movements.
36 ility, cellular mechanisms and multicellular movements.
37 pects for the planning and execution of hand movements.
38 SMns) are recruited during weaker and slower movements [4-6].
39                                        Wrist movement accuracy in the untrained pointing task improve
40 to regulate muscle excitability, electrolyte movement across epithelia, and acidification of intracel
41  possible asymmetries in the distribution of movements across space.
42 istricts, we compared 6 models of population movement (adjacency, gravity, radiation, radiation based
43 shown that the variability of follow-through movements affects the rate of motor memory formation.
44 ance in a changing world or to recover basic movement after neural injuries.
45 e functional necessity of minus-end-directed movement along actin is unclear as the underlying archit
46  machine capable of long-distance processive movement along microtubules.
47 eurons favor the appearance of dystonia-like movement alterations after oxotremorine.
48 y were the dominant determinant of orangutan movement among all age and sex classes, with orangutans
49 he Gulf display largely dip-slip extensional movement and accompanying footwall uplift.
50 s simultaneous measurement of voltage sensor movement and current through the channel pore.
51 se questions, we tested for differentiation, movement and expansion in four elevational generalist so
52 lize VFs, evidence is provided of dynamic VF movement and interactions at least partially dependent o
53 properties required for proper morphogenetic movement and pattern formation.
54 ropagate along migratory routes shape animal movement and presumably, energy gains during migration.
55 predominantly transmitted through population movement and replacement and locate putative focal areas
56 al variation in alliance structure, seasonal movements and access to mates within a single continuous
57  to perform simple single-joint arm and hand movements and functionally meaningful multi-joint moveme
58                                          How movements and growth are coordinated between the differe
59 ular hair cells in the inner ear encode head movements and mediate the sense of balance.
60 ce-time function that best predicts both eye movements and perception of translating dot patterns.
61 y distinct functions for the control of hand movements and predispose them to undertake different, pe
62 ively promote the recovery of volitional leg movements and standing in individuals with chronic clini
63 ociating domains (TADs) that undergo en bloc movements, and identify dynamically coupled distal regio
64 ify the influence of increased drift on bear movements, and we modeled the consequences for energy de
65 nce are transiently reactivated from memory, movement- and immobility-associated activity patterns ar
66 dual cell migratory behaviors for collective movement are largely unknown.
67      Therefore, we suggest that the directed movements are a response to the physical arrangement of
68           Like every motor action, these eye movements are subject to noise and introduce instabiliti
69                           These intermediate movements are thought to reflect an unintentional averag
70 nuclei (CbN cells), whose activity generates movement, are inhibited by Purkinje cells and excited by
71 tochastic patterns in their spontaneous head movements as early as 1-2 months after birth, relative t
72 s in the substrate and refer to the directed movements as polymertropism.
73 , is strictly required for WSS-enhanced cell movement, as blockade of YAP1, TEAD1-4 or the YAP1-TEAD
74 (defined as a percentile rank of </=5 on the Movement Assessment Battery for Children-Second Edition)
75 s evolved to meet the functional demands for movement associated with different behaviors and environ
76 atural environments, humans see visual mouth movements at the same time as they hear voices, while th
77 dators have the potential to strongly affect movement behavior of tracked marine animals.
78                      Mechanistically linking movement behaviors and ecology is key to understanding t
79 ata" techniques to provide new insights into movement behaviour when applied to large datasets of ani
80 idence rules encourage sustained directional movement between speech communities, then languages shou
81 ltiple lake-migrant behaviours that involved movements between lakes and rivers.
82 xperience are required to coordinate precise movements between pairs of larvae, therefore increasing
83 ies of languages and genes reveal persistent movements between stable speech communities facilitated
84  nerve block before, but not after, hindlimb movement blocked movement-induced BTP.
85 al activity occur in the motor cortex before movement, but the nature and purpose of this preparatory
86 tegy that automatically compensates for cell movement by tracking cell position and adjusting pipette
87 ctions.Nematodes use a characteristic set of movements, called nictation, to hitchhike on more mobile
88                             Does elevational movement cause these species to resist diversification o
89 that at deep levels of unconsciousness where movement ceases, coherent thalamocortical delta oscillat
90 activity has features indicative of a hidden movement command.
91  with SHR allows for the formation of stable movement complexes that facilitate the cell-to-cell tran
92 bility to estimate the internal model before movement could improve motor neural prostheses being dev
93 e depletion are closely linked to collective movement decisions.
94 vated manganese levels and parkinsonian-like movement deficits.
95 sm where prioritized suppression between the movements determines their sequential performance.
96           Tardive dyskinesia is a persistent movement disorder induced by dopamine receptor blockers,
97 l rate of change in combined scores from the Movement Disorder Society-Unified Parkinson's Disease Ra
98 ing a disorder characterized by a dyskinetic movement disorder, developmental delay, and autism.
99  neurologic disorders, most often related to movement disorders and disorders of consciousness.
100  dominated by dementia, psychiatric changes, movement disorders and upper motor neuron signs.
101           Modern functional neurosurgery for movement disorders such as Parkinson's disease, tremor,
102  importance of the ERK/MAPK pathway in human movement disorders.
103  navigation has been able to follow animals' movement during learning; we tracked bumblebee foragers
104 ndividuals automatically adapt hyo-laryngeal movement during swallowing based on targets required for
105 ity in the reaction time and accuracy of eye-movements during a memory guided saccade task are relate
106 ke rates, including tail beat and whole-body movements during feeding, were faster (approximately 0.7
107 oups as well as differences in structure and movement dynamics between groups.
108 e investigate how the structure, leadership, movement dynamics, and foraging performance of groups ca
109 lp in designing drug therapies for human eye movement dysfunctions such as abducens nerve palsy.
110  unrelated and limited in number, volitional movements (eg, facial muscle activity, head movements, s
111 the striatum, a brain region implicated with movement execution, EAAC1 limits group I metabotropic gl
112 ortex of individual subjects explained their movement extent variability.
113 ent prevented BTP, whereas nerve block after movement failed to reverse BTP.
114 ling of touch and smell involves coordinated movements first observed in the rat half a century ago.
115 in survival, which in turn drive hybrid zone movement for two woodrat species (Neotoma fuscipes and N
116            Translational and rotational head movement, frequency, and B0 shim were determined with an
117  physical description of collective cellular movements from first principles, while accounting for kn
118 efined, task-specific activation pattern and movement generation during volitional attempts without s
119  demonstrated to be able to recognize finger movement, hand gestures, acoustic vibrations, and real-t
120               Here we investigate if lead-in movement has a similar effect on learning rate.
121 t source of bias that depends only on recent movement history.
122 ulation of rosette expansion growth and leaf movement in Arabidopsis (Arabidopsis thaliana).
123 tection and Ranging) to understand orangutan movement in disturbed and fragmented forests of Malaysia
124  (Rostrhamus sociabilis plumbeus), and human movement in Florida inferred from Twitter.
125                Upon the dopants' directional movement in P3HT, a dedoped region forms at the negative
126 ad no effect on rates of accretion, vertical movement in root and sub-root zones, or net elevation ch
127  and their importance in regulating nitrogen movement in support of metabolism, and vegetative and re
128 ducting conduits that facilitate polypeptide movement in the opposite direction-from the cytosol into
129 enetic stimulation is sufficient to increase movement in the TST in stress-naive mice, while stimulat
130 llow molecular-level phenomena to drive such movements in artificial systems remains a scientific cha
131 esses in the context of simplified orienting movements in controlled laboratory tasks rather than an
132 ources in accounting for seasonal population movements in dynamic risk mapping strategies.
133 ved to align themselves and coordinate their movements in order to drag a common air cavity and dig d
134 alized areas involved in the control of hand movements in primates.
135 MENT The mechanism by which humans adapt eye movements in response to central vision loss is still no
136 the regulatory mechanisms underlying nuclear movements in root epidermal cells remains limited.
137 ance energy transfer imaging, we examine TM6 movements in the beta2 adrenergic receptor (beta2AR) upo
138 es: (1) from the onset of isolated orofacial movements in utero to the postnatal mastery of suckling
139      Disassembling microtubules can generate movement independently of motor enzymes, especially at k
140 d responses during self-generated ('active') movements, indicating that predicted sensory consequence
141 ts of a stationary mask on the reflexive eye movements induced by a moving stimulus.
142                                   Preventing movement-induced afferent input by saphenous nerve block
143 re, but not after, hindlimb movement blocked movement-induced BTP.
144  environmentally-induced changes in prenatal movement influence embryonic limb growth to alter propor
145  of how the brain selects actions, regulates movement initiation and execution, and switches from one
146 ct functions such as multimodal integration, movement initiation, bottom-up, and top-down attention.
147 shold level is not a necessary condition for movement initiation.
148 use the endogenous host ER/actin network for movement inside host cells.
149 tion of the importance of angular and linear movement-integration in generating spatial maps.
150    Patch clamp recordings in GCs reveal that movement is accompanied by changes in mossy fibre input
151                                      Nuclear movement is critical for developmental events, cell pola
152                            Given that animal movement is suspected to have significantly biased early
153 Thus, a predictive signal about the upcoming movement is widely available at the input stage of the c
154 g knowledge on the molecular control of cell movements, it is unclear how the different observed mode
155 representations of upper and lower extremity movement kinematics in subthalamic units and observed ev
156 hypokinesia), but can develop uncontrollable movements known as dyskinesia upon treatment with L-DOPA
157 ant PSP syndromes with different patterns of movement, language, or behavioural features than have be
158                                      This co-movement likely depends on epidermal cellular protrusion
159                          To characterize eye movements made by patients with intermittent exotropia w
160     Induced by metabolic challenge, amoeboid movement may thus constitute a common endpoint of both E
161 osome pairing is promoted through chromosome movement mediated by nuclear envelope proteins, microtub
162 f specific motoneuronal contributions to eye movements might help in designing drug therapies for hum
163  apply this method to two examples that span movement networks that vary considerably in size and que
164 with greater eastward movements, while their movements north in the spring and south in fall were fre
165 transition to wakefulness from non-rapid eye movement (NREM) and rapid eye movement (REM) sleep.
166 delta (0-3 Hz) activity during non-rapid eye movement (NREM) associated stages was greater than durin
167 ions and sleep spindles during non-rapid-eye-movement (NREM) sleep has been proposed to support memor
168 ion of the cardinal rhythms of non-rapid-eye-movement (NREM) sleep-the thalamo-cortical spindles, hip
169 ctivity and mimic the convulsive behavioural movements observed in Dravet syndrome.
170 e propagation mechanisms have been proposed: movement of a chemical agent and a pressure wave through
171              In this study, we monitored the movement of Agrobacterium-delivered VirE2 inside plant c
172 function as a barrier to limit transmembrane movement of apoplastic solutes into the endodermal cells
173 o facilitate the proton migration, while the movement of carbon is very limited.
174 ized in an anisotropic manner to promote the movement of centrosomes away from each other.
175 ilies in all domains of life, catalyzing the movement of diverse substrates across membranes.
176 onstructed based on an extension-contraction movement of DNA interconversion for the application of h
177  systems, as well as the recently discovered movement of FtsZ clusters around bacterial Z-rings that
178 f the nuclear piston mechanism slowed the 3D movement of HT1080 cells.
179 arely linked to both climatic conditions and movement of hybrid zones, such that the relationship bet
180 illar polyelectrolytes show that the outward movement of ions and intrafibrillar water through the co
181                    In coral reef-fishes, the movement of larvae from planktonic to reef environments
182  forms a retro-translocation channel for the movement of misfolded polypeptides through the endoplasm
183      We use visual image motion to judge the movement of objects, as well as our own movements throug
184                                    Thus, the movement of one dynamic domain widens the active site en
185  to better leverage the differential lateral movement of particles with different sizes as they flow
186        This research helps shed light on the movement of populations across the continent, following
187 n the wild type and showed enhanced systemic movement of PTGS to grafted shoots.
188 ay be important to coordinate the mechanical movement of RNAPII through the nucleosome with co-transc
189 n stormwater management practices affect the movement of road salt through urban watersheds.
190 n results in a decrease in the intercellular movement of SHR and an increase in the sensitivity of SH
191         In the lung, ENaC is responsible for movement of sodium.
192 obic pocket facilitated by the large outward movement of the extracellular ends of transmembrane heli
193 tion to the brain regarding the position and movement of the head.
194                                     Anterior movement of the lamina was detected more frequently with
195 trabeculae from the rat to measure the axial movement of the myosin motors during the diastole-systol
196 l proteins in coordinating the intercellular movement of viral replication vesicles.
197 e low spike rates and low sensitivity to the movement of whiskers.
198 hat vary considerably in size and questions: movements of an endangered raptor, the snail kite (Rostr
199 k of MERS-CoV infection, as may cross-border movements of camels, poor hand hygiene, and overnight ho
200 SIA neurons to control the three-dimensional movements of flipping.
201  move their heads and eyes to compensate for movements of the body and background, search, fixate, an
202 e/assistive tool that can result in flexible movements of the fingers.
203 ng intracortical microstimulation (ICMS) and movements of the forelimb on a skilled reaching task.
204 y and exocrine gland secretion, and rhythmic movements of the gastrointestinal system.
205 tic and reversible sinusoidal-shaped bending movements of the neighboring commissural shafts.
206 f the MacB periplasmic domains via concerted movements of the second transmembrane segment and major
207 n pore remains closed, indicating that local movements of the transmembrane helices can control ion a
208  could translocate ahead of the other during movement on DNA.
209              The large influence of scale of movement on estimator accuracy emphasizes the importance
210 on the derived conditions, we interpret drop movements on both hydrophilic and hydrophobic wires, wit
211 find that participants generate intermediate movements only at (slower) speeds where they measurably
212 on was provided approximately 90 ms prior to movement onset in each group.
213 l activity was found to shift farther from a movement onset state during beta oscillations that were
214 the gamma band, and not explained by spatial movement or anxiety-like behavior.
215       In basal conditions, no overt dystonic movements or postures or change in locomotor activity we
216 r beam control is generally achieved by head movements or shape changes of the sound-emitting mouth o
217    While ecological theory predicts that the movement, or dispersal, of individuals can have profound
218                                         Hair movement out of the follicle appeared to occur independe
219                   Repetitive strain from eye movements over decades might in susceptible individuals
220 rons are the major contributor to actual eye movements over the tested stimulus range.
221 ctive pupils (P < 0.001) and abnormal ocular movements (P = 0.03) compared with those in category 2.
222  data have provided most information on NARW movements, passive acoustic monitoring (PAM) was used in
223 el sounds by configuring different orofacial movement patterns and these sounds are used in communica
224  "Locomotor Inactivity During Sleep" (LIDS), movement patterns are exposed that directly reflect ultr
225 onal isotope data to track individual animal movement patterns over multiple years.
226 endering clinical interpretation of impaired movement patterns sub-optimal.
227 better understanding of the risk factors and movement patterns that contribute to poliovirus transmis
228              Under predation threat, narwhal movement patterns were more likely to be transiting, whe
229   Here, we trained subjects to make reaching movements perturbed by force patterns dependent upon eit
230 , which is associated with congenital mirror movements phenotypes, a phenotype also comorbid with PD.
231 owed brain activation patterns coherent with movement planning.
232  a distributed representation of learned eye-movement plans represented in domain-specific areas of t
233  computations in multiple brain areas during movement preparation and execution.
234             Blockade of sensory input before movement prevented BTP, whereas nerve block after moveme
235     Both endogenous plant proteins and viral movement proteins associate with microtubules to promote
236                     The association of viral movement proteins with microtubules facilitates the form
237 ement with calcium activity corresponding to movement rate.
238 -men, mediums, and the prophets of religious movements, recur across human societies.
239 h was accompanied by changes in the activity-movement relationship.
240 RET has led to the hypothesis that substrate movements relative to the ribosome resolve through relat
241           The presence of probable rapid eye movement (REM) sleep behavior disorder was strongly asso
242                                    Rapid eye movement (REM) sleep behaviour disorder (RBD) is charact
243 of the mechanisms and functions of rapid-eye-movement (REM) sleep have occurred over the past decade.
244  non-rapid eye movement (NREM) and rapid eye movement (REM) sleep.
245 EM states was lower than Awake and rapid eye movement (REM).
246 c integration, in the expression of forelimb movement responses during intracortical microstimulation
247 ressee's understanding, without altering the movement's trajectory.
248 sponder had at least three spontaneous bowel movements (SBMs) per week with an increase from baseline
249 he placebo group on the Abnormal Involuntary Movement Scale (AIMS) dyskinesia score (items 1-7), as a
250  movements (eg, facial muscle activity, head movements, shoulder shrugs).
251 e examined how levels of signal and noise in movement signatures during the 1st year of life constrai
252 a neural architecture that readies different movements simultaneously, and a mechanism where prioriti
253 AT) imaging to identify idiopathic rapid eye movement sleep behavior disorder (IRBD) patients at risk
254       RO5256390 profoundly reduced rapid eye movement sleep in wild-type mice; these effects were eli
255 tween SPN ensemble patterns, irrespective of movement speed.
256  from characteristics of the subsidy and the movement strategy employed by animals that transport sub
257 nd powerful voice to the cancer survivorship movement that demanded a call to action.
258 erage of planned actions but rather a single movement that optimizes motor costs.
259  frequency and velocity of processive dynein movements that are activated by complex formation with d
260 electromyography in mice during two forelimb movements that differ in their requirement for cortical
261 e use a data-driven approach to pinpoint the movements that discriminate female dance quality.
262 NA lesion, generate abnormal oscillatory SPB movements that disrupt DSB-SPB interactions.
263 -myocardial communication can guide the cell movements that initiate cardiac morphogenesis.
264 TEMENT Saccades are the rapid, ballistic eye movements that we make approximately three times every s
265                     RNA polymerase II (Pol2) movement through chromatin and the co-transcriptional pr
266 associate with microtubules to promote their movement through plasmodesmata.
267 f single fluorescent molecules allowed their movement through the pore network to be reconstructed.
268  the movement of objects, as well as our own movements through the environment.
269 ical chemists who are new to the open-source movement to best practices and concepts in this area and
270 g or swimming, animals must adjust their own movement to compensate for displacements induced by the
271 HR and an increase in the sensitivity of SHR movement to treatment with oryzalin.
272 isual field (foveated vision) and deploy eye movements to actively sample regions of interests in sce
273  an auditory or visual metronome found their movements to be largely reactive, not predictive.
274 tic variability that are reproducible across movements to different targets and when performing these
275           We used visually driven smooth eye movements to find the 3D space-time function that best p
276      However, dogs produced different facial movements to humans in comparable states of emotional ar
277 terns were similar across right and left arm movements to identical targets (extrinsic coordinates) i
278 lies generate both smooth and rapid saccadic movements to stabilize their gaze.
279                                The efficient movement together with the continuous release of fresh c
280 l replay occurring either immediately before movement toward a reward location or just after arrival
281 he Tsr HAMP coupled with helix rotations and movements toward a two-helix packing mode.
282 elationship between cortical variability and movement variability, we find that cortical fMRI variabi
283 ild type Hsp27 neurons, although anterograde movement velocities remained normal.
284 e state-dependent adaptation associated with movement velocity is relatively more stable than that ba
285 each cell's correlation between activity and movement was stable both over time and across VR environ
286                      To test for elevational movements, we measured hydrogen isotope (delta(2) H) val
287 ate wettability leads to various interfacial movements which are not identified under imbibition or d
288 but not V141M, directly slows voltage sensor movement, which indirectly slows current deactivation.
289 O6, MYO6+, which undergoes plus-end-directed movement while retaining physiological cargo interaction
290 ith PD who performed repetitive feet or hand movements while undergoing implantation of a deep brain
291 her westward ice drift with greater eastward movements, while their movements north in the spring and
292 eral cerebellum are broadly activated during movement with calcium activity corresponding to movement
293 em is developed; it automatically tracks pig movement with depth video cameras, and automatically mea
294 gging of LIMP caused a limping defect during movement with reduced speed and transient curvature chan
295  different targets and when performing these movements with either arm.
296  coordinates) in visual cortices, and across movements with equivalent joint-angles (intrinsic coordi
297 with the relative attenuation of cooperative movements with varying distance from the hinge center, w
298 ilability are important drivers of migratory movements, with birds from larger colonies or with poore
299 pe from environmental data and simulate bird movement within this landscape based on simple decision
300 y adaptive dimer can drive large-scale cargo movement without the requirement for polymers and sugges

WebLSDに未収録の専門用語(用法)は "新規対訳" から投稿できます。
 
Page Top