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 iet-induced-thermogenesis (DIT) and appetite sensation.
2 urrent, revealing a specificity for alkaline sensation.
3 ch-related information during active tactile sensation.
4 d participate in thermo-, mechano- and chemo-sensation.
5 ls mediate temperature transduction and pain sensation.
6 tal for TRPV1 activation and subsequent pain sensation.
7 control of nausea and vomiting and visceral sensation.
8 fear behaviors, neurodegeneration, and pain sensation.
9 Neural adaptation is central to sensation.
10 could be used to alleviate pathological heat sensation.
11 instrumental in the control of noxious heat sensation.
12 ormance of PANs with significantly less pain sensation.
13 naptic communication and thus dampening odor sensation.
14 cally detecting changes in cardiorespiratory sensation.
15 sequent neuronal activation, leading to pain sensation.
16 in or warm intensities to provoke a constant sensation.
17 ella et al. focus on the conscious nature of sensation.
18 ion, including a complete absence of dyspnea sensation.
19 and TRPV1 are ion channels crucial for pain sensation.
20 d biased state of sensory circuits preceding sensation.
21 or is ingested, it causes a painful burning sensation.
22 d the cellular complexity underlying somatic sensation.
23 n and the affected skin tissue does not lose sensation.
24 ign body sensation, and reduction in burning sensation.
25 ploring the mechanism underlying spinal itch sensation.
26 ernally generated motor events with external sensation.
27 estosterone on human skin elicited a cooling sensation.
28 feedback for motor output that drives active sensation.
29 quired for peripheral sensitization and cold sensation.
30 tor-4 (PAR-4) was recently suggested in itch sensation.
31 play important functions in pain and thermal sensation.
32 ents in the context of whisker-based tactile sensation.
33 variables, including blood pressure and pain sensation.
34 t been shown to play a role in mouse odorant sensation.
35 morphology correlated strongly with corneal sensation.
36 , heart rate increase, and cardiorespiratory sensation.
37 tearing, photophobia, pain and foreign body sensation.
38 underlying the central transmission of itch sensation.
39 rtant for transmitting innocuous light touch sensation.
40 by epithelium thinning and decreased corneal sensation.
41 ota is required for the normal visceral pain sensation.
42 s of function as the basis for impaired pain sensation.
43 events, combining sound, sight, and tactile sensation.
44 lecules, cells, and circuits underlying itch sensation.
45 leads to a dramatic loss of posterior touch sensation.
46 ocus on the role of Mrgprs in mediating itch sensation.
47 he molecular transducer for cold and menthol sensation.
48 ulate spinal nociceptive processing and pain sensation.
49 to Abeta-afferent endings leading to tactile sensations.
50 ry evidence - or beliefs about the causes of sensations.
51 n nociceptive, thermal, itch and light touch sensations.
52 this response is associated with pleasurable sensations.
53 components were related to specific sensory sensations.
54 nd pain are closely related but are distinct sensations.
55 ly represents changes in these interoceptive sensations.
56 impairment of muscle movement and/or normal sensations.
57 s, how does the brain interpret the combined sensation?
59 38 of 51 patients [75%]), loss of fine touch sensation (17 of 35 patients [49%]), and epidermal inclu
61 perienced symptoms: 86 reported (48%) visual sensations, 50 reported (28%) seeing, and 42 reported (2
62 gastrointestinal functions include motility, sensation, absorption, secretion, digestion and intestin
64 h class with a different name produced color sensations according to the name of the base pitch class
65 haviours such as locomotion, touch and sound sensation across different species including Caenorhabdi
71 ck and ear pain, stinging pain, foreign body sensation and dysphagia can be observed with this syndro
72 ized, whereas the second caused an immediate sensation and entered textbooks and major reviews but is
73 ng classes of neurons underlying temperature sensation and gentle touch, less is known about the neur
74 anotransduction channel for Drosophila touch sensation and hearing, contains 29 Ankyrin repeats (ARs)
75 tor behaviors, anxiety, depression, and pain sensation and in the rewarding effects of alcohol and co
80 both lower extremities was slightly reduced, sensation and reflexes were intact, and range of motion
81 eal a neuroendocrine nexus linking olfactory sensation and reproduction in response to environmental
88 spatially congruent integration of different sensations and possibly reduces deafference during async
89 contact with the body, evoking touch or pain sensations and possibly triggering an approach or escape
95 re we study the interplay among environment, sensation, and action as balance develops in larval zebr
96 ems assessing fine and gross motor function, sensation, and balance to produce a total score ranging
99 -sensitive ion channel also involved in pain sensation, and is the receptor for capsaicin, the active
103 ne such behavioral alteration, enhanced odor sensation, and sought to reveal the neuronal and molecul
104 CB1 in sensory ganglia controls visceral sensation, and transcription of CNR1 is modified through
105 ts were asked about 3 symptoms: pain, visual sensations, and a feeling of seeing through the removed
106 How do people make sense of the emotions, sensations, and cognitive abilities that make up mental
109 s that allow for the prediction of impending sensations, are proposed to underlie these symptoms.
111 s pathway forms the anatomical framework for sensations arising from the proximal airway mucosa.
112 tensity of White individuals' hand ownership sensation as induced by the Rubber Hand Illusion (RHI) w
113 antly larger in HZO eyes with severe loss of sensation, as compared to contralateral (441.46 +/- 298.
116 keratitis characterized by decreased corneal sensation because of damage to the corneal sensory fiber
119 to trait anxiety and acutely altered bodily sensations-both of which are known to be associated with
120 ity, gut immune function, motility, visceral sensation, brain-gut interactions, and psychosocial stat
122 ests that the brain infers the causes of its sensations by combining sensory evidence with internal p
124 tability and diminished pain and temperature sensation caused by reductions in sensory and autonomic
125 Stimulation of acupoints produces needling sensations caused by the activation of small diameter af
126 i = 0.18; df, 1; P < 0.05), pain with visual sensations (chi-square, 3.91; Phi = 0.15; df, 1; P < 0.0
127 .15; df, 1; P < 0.05) and seeing with visual sensations (chi-square, 34.22; Phi = 0.45; df, 1; P < 0.
133 umans, we contrasted painful with nonpainful sensations delivered at the individual threshold level d
134 nal space as a group; nociceptively mediated sensations depended not on the body posture, but rather
135 o investigate whether nociceptively mediated sensation depends on the somatotopic or spatiotopic conf
137 ychophysical measures (perception threshold, sensation discrimination, frequency discrimination and r
138 he afferent input of a self-produced tactile sensation due to the central cancellation of the reaffer
139 fication of shivering and whole-body thermal sensation during cold stress following the administratio
140 ffers the translational promise of restoring sensation, enabling movement or supplanting abnormal act
141 y response, accounting for the loss of taste sensation experienced by cancer patients undergoing Hedg
142 ems (burning/stinging, itching, foreign body sensation, eye discomfort, photophobia, pain), ocular di
143 circuits and may provide a means to restore sensation for patients for whom peripheral stimulation i
144 cess diverse types of information, including sensation from diverse modalities, motor control and hig
145 on-a reduction in the perceived intensity of sensations from self-generated compared with external ac
146 nnocuous stimuli that do not reach conscious sensations from visceral organs to the central nervous s
147 e environment and to distinguish between the sensations generated as a consequence of voluntary movem
148 While the mechanisms underlying acidic pH sensation have been extensively characterized, little is
149 When multiple fingertips experience force sensations, how does the brain interpret the combined se
150 e strong correlation with subjective wetness sensation, implying validity and usefulness of the instr
151 stimulation of one sensory modality produces sensation in a different modality, provides a unique opp
152 the ensuing calcium flux implicated in cold sensation in C. elegans, whereby DAF-16/FOXO gets activa
154 or sequence homology, able to elicit a sweet sensation in humans through their interaction with the d
155 sodium channel, Nav1.7, is critical to pain sensation in mammals, pharmacological inhibitors of Nav1
157 ptive responses are used as measures of pain sensation in newborn humans, as they are in animals [3,
160 ylation of genes that regulate visceral pain sensation in the peripheral nervous system of rats.
163 pectation might cause non-veridical auditory sensations in these individuals, but it might also spont
164 nal activity that accompanies vibrissa-based sensation, in rats, transiently locks to ongoing hippoca
165 In the specific case of the astringency sensation, in which at least three molecular species are
166 th IC, which can be defined as an unpleasant sensation including pain and discomfort related to the u
167 have implications in the exaggerated tactile sensations induced by recreational drugs that act on ser
172 tial location of electrically induced visual sensations is matched to the receptive field of the cort
173 ms, muscle activities and artificial tactile sensation, is successfully demonstrated, implicating a b
174 uli, the patterns were presented at the same sensation level (15 dB SL), and the frequency deviation
177 ial epithelial cells in HZO eyes with severe sensation loss (766.5 +/- 25.2 cells/mm(2)) was signific
178 unresolved whether changes in one's own pain sensation may affect empathic responding to others' pain
179 of hunger and augments postprandial fullness sensations more so than an otherwise equivalent LGI meal
184 n itching (nominal P = 0.0318), foreign body sensation (nominal P = 0.0418), and eye discomfort (P =
185 the first detailed description of olfactory sensations obtained by direct stimulation of mid-dorsal
191 tions (ICOs) at the LRO that connect ciliary sensation of ciliary motility to downstream left-right s
192 at 52 degrees C decreased shivering and the sensation of coolness, whereas fluid ingestion at 22 and
194 82.8%, 'lumpy and hard stool' at 74.2% and 'sensation of incomplete evacuation' at 68.1% and the lea
196 11%) thermoregulation difficulties, 4 (9%) a sensation of left arm paresthesia, and 3 (7%) sympatheti
197 nvironment, the most common hypothesis being sensation of mechanical force through calcium-permeable
198 This study demonstrates that the subjective sensation of nausea is associated with objective changes
200 ential role of Nav1.7 sodium channels in the sensation of pain, thus making this channel an attractiv
202 omputer technology advances to replicate the sensation of realistic environments, there are increasin
203 successful neural prosthesis, restoring the sensation of sound in people with severe-to-profound hea
204 e virtual legs during the swing phase or the sensation of the foot rolling on the floor while walking
205 Haptic memory in particular can retain the sensation of the interaction between the human body and
210 52 degrees C rapidly decreased shivering and sensations of cold compared to 37 degrees C, whereas flu
211 t 22 and 7 degrees C increased shivering and sensations of coolness to similar levels, independently
212 er, patients who report mechanical symptoms (sensations of knee catching or locking) may benefit from
213 gic agonist similar to adrenaline, to induce sensations of palpitation and dyspnea in healthy individ
214 ial gastrointestinal function and concurrent sensations of satiation across a wide range of body weig
216 er, studies relating continuous postprandial sensations of satiation to measurable pathology are scar
220 hysiological processes such as the conscious sensations of touch and hearing, and the unconscious sen
222 ), metabolic rate (M) and whole-body thermal sensation on a visual analogue scale (WBTS) ranging from
223 activity from reinnervated muscles and touch sensation on the missing limb is enabled by stimulation
224 The place you need to reach is defined by a sensation on the skin, but our bodies are flexible, so t
226 between cortical reorganization and phantom sensations or pain either with this measurement or with
227 ect and should be integrated and (2) for the sensations originating from the same object, how best to
229 Scratching significantly attenuated the itch sensation (P<0.001) and evoked an associated pleasurabil
230 atment x time interaction < 0.0005), burning sensation (P-treatment x time interaction < 0.0001), nau
231 rienced neurological improvements in somatic sensation (pain localization, fine/crude touch, and prop
233 ed signs of diminished awareness for cardiac sensation, patient A.M., who did not panic, reported a c
234 In particular, under what conditions are the sensations perceived as separate or, alternatively, as a
235 fficulties as well as age-related changes in sensation, perception, and comprehension in complex comm
236 and alter body temperature, cold and hunger sensations, plasma metabolic parameters, and energy inta
237 Interoception, the sensitivity to visceral sensations, plays an important role in homeostasis and g
238 ture (243 kJ/d) and an anorexigenic appetite-sensation profile.Protein supplementation does not resul
240 us, the thalamic relay nucleus for gustatory sensation, receives primary input from the parabrachial
245 re, we examined the structural correlates of sensation seeking and impulsivity in a large cohort of h
246 e explored the neuroanatomical correlates of sensation seeking and impulsivity in healthy young adult
247 in cognitive control system anatomy predicts sensation seeking and motor impulsivity in the healthy p
250 cts loss of control over drug intake whereas sensation seeking and sign-tracking are markers of a gre
252 ics, drinking among friends and parents, and sensation seeking), weighting to the US population, and
253 hat high locomotor reactivity to novelty, or sensation seeking, by predisposing to an increased choic
256 ies such as addiction, for which high or low sensation-seeking personality has been identified as a r
257 race/ethnicity, maternal educational level, sensation-seeking tendency, parental cigarette smoking,
258 blems) and behavioral type (adaptive groups; sensation-seeking vs. extraverted/emotionally stable).
259 impaired affective processing, impulsivity, sensation-seeking, poor planning skills and heightened a
260 tion induces high-risk personality traits of sensation-seeking/low anxiety associated with enhanced a
263 s a functional coupling between movement and sensation, since tumbling probability is controlled by t
266 analysis suggested that intravascular taste sensation takes place at the microvilli on the apical si
267 oth groups decreased the presence of burning sensation, tearing, foreign body sensation, conjunctival
271 sulting changes in the world act to generate sensations that feed back to the nervous system, closing
272 Accompanying these behaviors are perceivable sensations that, particularly for stimuli in the proxima
281 r ear (IE) subserves auditory and vestibular sensations via highly specialized cells and proteins.
283 e in frontoparietal connectivity for painful sensations was also identified in the gamma-band (28-32
285 h, main nerve trunks, branching, and corneal sensation were assessed during the follow-up period.
287 ter the LGI meal (P < 0.001), whereas hunger sensations were approximately 9% lower after the HGI mea
290 , greater metabolic rates and cooler thermal sensations were observed with ingestion at 7 degrees C (
292 ensations while they heard voices, and these sensations were significantly associated with experience
295 al structures was an increase in periodontal sensation, whereas a relationship with periodontal lesio
298 ingestion, compared to shivering and thermal sensations with ingestion at 37 degrees C (M: 215 +/- 47
299 ose-dependent increases in cardiorespiratory sensation, with all participants reporting palpitations
300 patterns can enhance the encoding of nose-up sensations without compromising gaze stabilization.
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。