ライフサイエンスコーパス: vibratory

1 s obtained from human subjects, we show that vibratory amplitude is encoded in the strength of the re

2 t that the sensory system operates through a vibratory amplitude modulation/demodulation scheme.

3 The QST metrics included measures of vibratory and thermal thresholds and cold and hot pain t

4 nd Tinel signs; thenar atrophy; and 2-point, vibratory, and monofilament sensory testing.

5 Little/no evidence was available on vibratory angioedema and aquagenic and contact urticaria

6 urticaria, solar urticaria, heat urticaria, vibratory angioedema, cholinergic urticaria, contact urt

7 g an oddball paradigm and consisted of short vibratory bursts applied to hand digits 2 and 3.

8 sects that rely primarily on substrate-borne vibratory communication are still largely unknown.

9 function is discussed with relevance to the vibratory communication of N. viridula.

10 In this regard, the frequency of a vibratory event can be thought of as a multisensory perc

11 during which human subjects had to memorize vibratory frequencies in parallel to previous monkey res

12 ultivariate patterns of activity to code the vibratory frequency parametrically during WM.

13 frequency of cutaneous flutter (10-50 Hz) or vibratory (>200 Hz) stimulation that occur subsequent to

14 We conclude that vibratory input from muscle can differentially modulate

15 ncy tuning and acceleration sensitivity, the vibratory interneurons fall into two groups: the low-fre

16 the data supporting these concepts come from vibratory measurements at cochlear locations tuned to hi

17 For over half a century, vibratory measurements to study cochlear traveling waves

18 to confirm clinical significance, the set of vibratory measures derived in this study may be applicab

19 alysis, a set of three clinically meaningful vibratory measures was extracted from the videos compris

20 A simple monophasic vibratory mode of the basilar membrane is found at both

21 nd shapes in a wind tunnel revealed multiple vibratory modes that produce a range of acoustic frequen

22 Sound production always is accompanied by vibratory motions of both labia, indicating that these v

23 Knowledge of vibratory patterns in the cochlea is crucial to understa

24 Vibratory perception threshold (VPT) assesses a distinct

25 Vibratory perception threshold (VPT) is a reliable measu

26 ptomatic knee OA underwent evaluation of the vibratory perception threshold (VPT) using a biothesiome

27 examinations, nerve conduction studies, and vibratory perception thresholds determined the presence

28 e, subjects were presented with two pairs of vibratory pulses.

29 or the axial wavenumber, fluid pressure, and vibratory relative motions of the cochlear partition as

30 and nerve events (a composite of new loss of vibratory sensation, ankle reflexes, or light touch).

31 , there was no relationship observed between vibratory sense and symptomatic knee OA pain.

32 s in hip OA and to demonstrate that there is vibratory sense loss at both the upper and lower extremi

33 ioception, joint kinesthesia, and, recently, vibratory sense, have been described in subjects with os

34 384, P=0.033), indicating that the worse the vibratory sense, the higher the knee load during gait.

35 rhaps also in fish where electroreception or vibratory sensing through the lateral line systems plays

36 elucidate the neural mechanisms involved in vibratory signaling, the vibration-sensitive interneuron

37 rception; in touch, the spectral analysis of vibratory signals has been implicated in texture percept

38 The central processing mechanisms of vibratory signals in small plant-dwelling insects that r

39 nditioned to suppress respiration to a 40-Hz vibratory source and subsequently tested for stimulus ge

40 on is not immediately salient in conditioned vibratory source detection.

41 ter we surgically incapacitated the MTM as a vibratory source, zebra finches and cardinals were not o

42 40 Hz) after conditioning with an underwater vibratory source.

43 galaninergic neurons, the ability for penile vibratory stimulation (PVS) to elicit ejaculation when t

44 resonance imaging to study brain activity to vibratory stimulation and voluntary movements of body pa

45 hysterical sensorimotor loss during passive vibratory stimulation of both hands, when their deficit

46 In striking contradistinction, vibratory stimulation of the foot evoked topographically

47 No response to vibratory stimulation of the hand was observed in the pr

48 The present experiment employed vibratory stimulation to characterize somatosensory ERPs

49 present evidence that pressure, flutter, and vibratory stimuli activate spatially distinct cortical d

50 ponses (hemodynamic response) generated from vibratory stimuli of 35 Hz and 150 Hz with functional MR

51 In analogous experiments, humans compare two vibratory stimuli on the fingertip.

52 Vibratory stimuli on the skin are mediated by two major

53 Therefore, vibratory stimuli tend to inactivate rapidly adapting cu

54 In experiments without vibratory stimuli, dystonic subjects showed normal movem

55 In experiments using vibratory stimuli, vibration of biceps tendons in normal

56 s lack microphonic potentials in response to vibratory stimuli.

57 timulation of one biceps tendon with a 50-Hz vibratory stimulus (a selective stimulus for muscle spin

58 in seven normal volunteers at 1.5 T using a vibratory stimulus applied to the pad of the first finge

59 ) cortex in awake monkeys while presenting a vibratory stimulus at different amplitudes.

60 there was a similar flexion response to the vibratory stimulus in the stimulated arm but movement of

61 alyses of RP status by age, body mass index, vibratory tool use, season of examination, state of resi

62 Patients with autosomal dominant vibratory urticaria have localized hives and systemic ma

63 nly nonsynonymous variant cosegregating with vibratory urticaria in two large kindreds.