ライフサイエンスコーパス: median nerve

1 presence of delayed nerve conduction in the median nerve.

2 d electrical stimulation applied to the left median nerve.

3 nfirmed also by a hybrid neural model of the median nerve.

4 produced by stimulation of the contralateral median nerve.

5 istal ends were anastomosed to the ulnar and median nerves.

6 d symptoms of upper plexus compression only (median nerve), 1508 had symptoms of lower plexus compres

7 er than the non-joint regions (2-fold in the median nerve, 5- to 10-fold in the sciatic).

8 paired-associative stimulation (PAS) of the median nerve and motor cortex to induce LTP-like "PAS gi

9 paired-associative stimulation (PAS) of the median nerve and motor cortex using an interstimulus int

10 ng in area 3b followed by transection of the median nerve and remapping of the cortex.

11 repeated pairs of electrical stimuli to the median nerve and transcranial magnetic stimulation (TMS)

12 oint stiffness ratios of 0.5 +/- 0.07 in the median nerve, and 0.8 +/- 0.02 in the sciatic.

13 rical stimuli delivered to the contralateral median nerve at intervals ranging from N20 (predetermine

14 This was also seen when stimulating distal median nerve at normal temperature.

15 licited by the electrical stimulation of the median nerve at the wrist [hand blink reflex (HBR)] is a

16 e motor threshold electrical stimulus to the median nerve at the wrist in a total of ten healthy subj

17 common entrapment neuropathy, affecting the median nerve at the wrist.

18 guan-Jianshi acupoints (P5-P6, overlying the median nerve) attenuates sympathoexcitatory reflexes pro

19 nshi-Neiguan acupoints (P5-P6, overlying the median nerve) attenuates sympathoexcitatory responses th

20 guan-Jianshi acupoints (P5-P6, overlying the median nerves) attenuates sympathoexcitatory blood press

21 sory discrimination accuracy (P < 0.001) for median nerve, but not ulnar nerve, innervated digits.

22 area 3b, and cuneate nucleus one week after median nerve compression in adult squirrel monkeys.

23 t squirrel monkeys one and five months after median nerve compression.

24 Ulnar and median nerve conduction velocities confirmed the clinica

25 mination of the normally dominant inputs to "median nerve cortex" permits the gradual strengthening o

26 and the diagnostic value of measurements of median nerve cross-sectional area showing expansion of t

27 There was a mild median nerve damage periprocedurally that resolved in th

28 TLI >/=0.38 in the median nerve demonstrated a sensitivity of 70% and speci

29 ensory nerve activation in vivo in the human median nerve during electrical stimulation of the wrist.

30 lateral auditory clicks, right somatosensory median nerve electrical pulses, or both simultaneously.

31 udo-randomly: auditory clicks, somatosensory median nerve electrical pulses, or simultaneous auditory

32 Carpal tunnel syndrome, a median nerve entrapment neuropathy, is characterized by

33 is difference in strain was conserved in the median nerve ex vivo, demonstrating an in-built longitud

34 Examination of distal median nerve, forelimb flexor tendons and bones for ED1-

35 ure at local versus distal sites may improve median nerve function at the wrist by somatotopically di

36 ex elicited by electrical stimulation of the median nerve (hand-blink reflex, HBR), when the hand is

37 l focal motor conduction block involving the median nerve in the forearm.

38 ingle mechanoreceptive afferent units in the median nerve, in humans.

39 shi-Neiguan acupoints (P5-P6, underlying the median nerve) inhibits central sympathetic outflow and a

40 le vibrotactile stimulation was delivered to median nerve innervated (second and third) and ulnar ner

41 A skin biopsy was taken from a median nerve innervated area of the proximal phalanx of

42 ary somatosensory cortex neuroplasticity for median nerve innervated digits in carpal tunnel syndrome

43 nd worse sensory discrimination accuracy for median nerve innervated digits.

44 rength (a function mediated predominantly by median nerve innervated muscles) in the affected hand of

45 The extent of the M20 delay for median nerve-innervated Digit 2 was positively correlate

46 at ongoing paraesthesias promote blurring of median nerve-innervated digit representations through He

47 undergoing somatosensory stimulation of the median nerve-innervated Digits 2 and 3, as well as Digit

48 We propose that ongoing paraesthesias in median nerve-innervated digits render their correspondin

49 ecreased event-related desynchronization for median nerve-innervated digits was positively correlated

50 mechanisms attach to the first rib, and the median nerve is also supplied by C8 and T1 as well as C5

51 Carpal tunnel syndrome (CTS) occurs when the median nerve is compressed at the wrist in the carpal tu

52 l syndrome (CTS) is a condition in which the median nerve is compressed, leading to pain and muscle w

53 ed for nerve conduction of sensory and motor median nerve latencies, including 40 who had reported no

54 r these regions we found that improvement in median nerve latency was associated with reduction of fr

55 and may provide mechanical constraint to the median nerve, leading to carpal tunnel syndrome.

56 examines axonal regeneration of the primate median nerve lesioned at the wrist over nerve gap distan

57 found in sleep disturbance, Tinel sign, and median nerve motor and sensory conduction time.

58 performed at the P5-P6 acupoints (overlying median nerve; n=7) for 30 min.

59 ction potential (SNAP) was recorded from the median nerve of 15 adult subjects whilst electrically st

60 Electroacupuncture (EA) stimulates the median nerve (P5-P6) to modulate sympathoexcitatory resp

61 continuous and intermittent theta burst TMS; median nerve paired associative stimulation; and homeost

62 The ulnar and median nerves proximal to the elbow joint were activated

63 order in the median nerve to the hand after median nerve section and surgical repair in immature mac

64 Nerve conduction studies assessing median nerve sensory latency and brain imaging data were

65 G source analysis of conditioning-test (C-T) median nerve somatosensory evoked fields in healthy huma

66 ndard mapping methods (cortical stimulation, median nerve somatosensory-evoked potential, functional

67 mination, neuron-specific enolase (NSE), and median nerve somatosensory-evoked potentials (SEPs) to p

68 e dynamic changes of intracranially recorded median-nerve somatosensory-evoked potentials (SEPs) and

69 Somatosensory cortical potentials to median nerve stimulation and visual cortical potentials

70 ssSEPs were elicited by electrical median nerve stimulation at the left and right wrist, us

71 A 2-hour period of median nerve stimulation elicited an increase in pinch s

72 t observed in the thenar muscle responses to median nerve stimulation in a normal human at normal tem

73 left primary sensory cortex face area during median nerve stimulation in subjects with spinal cord in

74 Median nerve stimulation of the hemiplegic hand showed r

75 We studied the effects of median nerve stimulation on pinch muscle strength (a fun

76 Recordings in the patients showed that median nerve stimulation reduced the size and number of

77 The current study delivered median nerve stimulation to produce SEPs during a force-

78 bral blood flow (CBF) fMRI during unilateral median nerve stimulation to show that the poststimulus f

79 SAI was tested with median nerve stimulation to the wrist preceding TMS puls

80 ed SI excitability by combining paired-pulse median nerve stimulation with recording somatosensory ev

81 and increased activations with handgrip and median nerve stimulation, but reduced activations with t

82 between concurrent BOLD and CBF responses to median nerve stimulation, with primary signal increases

83 somatosensory evoked potentials elicited by median nerve stimulation.

84 left primary sensory cortex face area due to median nerve stimulation.

85 hest sensory evoked potential in response to median nerve stimulation.

86 the post-central gyrus at 13.6-17.5 ms after median-nerve stimulation, gradually slowed down in frequ

87 ciative stimulation (PAS) protocol, in which median nerve stimuli were followed at different interval

88 ulation (PAS), which consists of an electric median nerve stimulus repeatedly paired (200 times at 0.

89 The median nerve stimulus suppressed responses evoked by tra

90 nd patients without it are hypalgesia in the median nerve territory (likelihood ratio [LR], 3.1; 95%

91 ned with quantitative sensory testing in the median nerve territory of the hand.

92 skin was reinnervated by both the ulnar and median nerves; the patient felt that her hand was being

93 ur adult squirrel monkeys by transecting the median nerve to one hand, and evaluated the hypothesis t

94 ere is little or no topographic order in the median nerve to the hand after median nerve section and

95 es to hours after transecting the radial and median nerves to the hand.

96 of the reorganization that typically follows median nerve transection in adult squirrel monkeys is de

97 (1) is the immediate "unmasking" found after median nerve transection NMDA receptor-dependent? and (2

98 In the second set of experiments, median nerve transection was followed 4 weeks later by e

99 er before examining the immediate effects of median nerve transection, or after reorganization had pr

100 sponsiveness in its expanse four weeks after median nerve transection.

101 and during stimulation of the contralateral median nerve using an infrared camera (sensitivity 0.02

102 of electrical spikes delivered to the human median nerve via percutaneous microstimulation in four i

103 However, pull-down emerged when the median nerve was cooled by placing ice over the forearm.

104 The median nerve was stimulated at the wrist and compound ac

105 The median nerve was stimulated at the wrist and compound mu

106 The median nerve was stimulated at the wrist and compound mu

107 The median nerve was stimulated at the wrist and compound mu

108 The median nerve was stimulated at the wrist and the resulta

109 In all patients, the median nerve was stimulated at the wrist, just distal to

110 electrical stimulation of the contralateral median nerve were also assessed.

111 apparent diffusion coefficient (ADC) of the median nerve were determined by two readers at three loc

112 e diffusion values for MR neurography of the median nerve with DTI depend on the anatomic location an