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1 an increase in blood pressure (i.e. exercise pressor reflex).
2 flated to 100 mmHg (to activate the exercise pressor reflex).
3 mmation that negatively affects the exercise pressor reflex.
4 e contractions is also known as the exercise pressor reflex.
5 e ASIC currents and the lactic acid-mediated pressor reflex.
6 omponent of this reflex, termed the exercise pressor reflex.
7 regulate muscle nociception and the exercise pressor reflex.
8 te to evoke this reflex, termed the exercise pressor reflex.
9 n decerebrated rats exaggerates the exercise pressor reflex.
10 e in the metabolic component of the exercise pressor reflex.
11 voke the metabolic component of the exercise pressor reflex.
12 ension is mediated by an overactive exercise pressor reflex.
13 Aergic neurotransmission during the exercise pressor reflex.
14 king the metabolic component of the exercise pressor reflex.
15 eurotransmission that regulates the exercise pressor reflex.
16 voke the metabolic component of the exercise pressor reflex.
17 uscle play an important role in the exercise pressor reflex.
18 ension is mediated by an overactive exercise pressor reflex.
19  order to assess involvement of the exercise pressor reflex.
20 reliable model for the study of the exercise pressor reflex.
21 ing the mechanical component of the exercise pressor reflex.
22 te and hydrogen ions in evoking the exercise pressor reflex.
23 ing the mechanical component of the exercise pressor reflex.
24 e muscle afferents that conduct the exercise pressor reflex.
25 lobin (P = 0.007) and an attenuated exercise pressor reflex.
26                                 The exercise pressor reflex (a neural drive originating in skeletal m
27 carotid baroreflex was unaltered by exercise pressor reflex activation.
28     These results indicate that the exercise pressor reflex and baroreflex activate similar, but not
29                      An exaggerated exercise pressor reflex and peripheral neuropathy are both evoked
30 roxide scavenger, attenuated the exaggerated pressor reflex and reduced reactive oxygen species produ
31 cardiovascular responses during the exercise pressor reflex and simultaneously modulated medullary nN
32 1a contributes to activation of the exercise pressor reflex and that contribution includes a novel ro
33 possibility that its effects on the exercise pressor reflex and the mechanoreflex is mediated through
34                                 The exercise pressor reflex and the mechanoreflex were evoked by stat
35 rlapping effects of the drug on the exercise pressor reflex and the mechanoreflex.
36 n this controversy, we compared the exercise pressor reflex between newly developed TRPV1(+/+) , TRPV
37                   Activation of the exercise pressor reflex by MAS trousers further reset carotid bar
38                   Activation of the exercise pressor reflex during electrically induced static muscle
39 ogen play a key role in evoking the exercise pressor reflex during ischaemic but not during freely pe
40 Potentially, effective treatment of exercise pressor reflex dysfunction may reduce the cardiovascular
41 d (to simulate exercising muscle and evoke a pressor reflex), endomorphin-2 and naloxone resulted in
42 etized and the afferent fibers mediating the pressor reflex entered the spinal cord via the L7 dorsal
43 rating pressures determined by both exercise pressor reflex (EPR) and central command activation.
44                        Although the exercise pressor reflex (EPR) and the chemoreflex (CR) are recogn
45 gated the interactive effect of the exercise pressor reflex (EPR) and the chemoreflex (CR) on the car
46 have led to the hypothesis that the exercise pressor reflex (EPR) becomes hyperactive after the devel
47                      An exaggerated exercise pressor reflex (EPR) contributes to exercise intolerance
48 lactate and hydrogen in evoking the exercise pressor reflex (EPR) in decerebrated rats whose hindlimb
49                     The role of the exercise pressor reflex (EPR) in regulating leg O(2) -transport d
50     We investigated the role of the exercise pressor reflex (EPR) in regulating the haemodynamic resp
51                 The skeletal muscle exercise pressor reflex (EPR) induces increases in heart rate (HR
52                                 The exercise pressor reflex (EPR) is an important neural mechanism th
53                                 The exercise pressor reflex (EPR) is defined by a rise in mean arteri
54                                 The exercise pressor reflex (EPR) is exaggerated in type 2 diabetes m
55 o activation of the skeletal muscle exercise pressor reflex (EPR) is exaggerated.
56  Stimulation of the skeletal muscle exercise pressor reflex (EPR), the responses of which are buffere
57 T: Contraction of muscle evokes the exercise pressor reflex (EPR), which is expressed partly by incre
58 veness is mediated by an overactive exercise pressor reflex (EPR).
59 ovides a novel working model of the exercise pressor reflex (EPR).
60 ivity (SNA) and blood pressure (the exercise pressor reflex; EPR).
61 h regulating muscle nociception and exercise pressor reflexes (EPRs), and P2Y1 has been linked to hea
62 ce nociceptive signals and modulate exercise pressor reflexes (EPRs).
63 echano-gated Piezo channels, on the exercise pressor reflex evoked by intermittent contraction of the
64 n NMDA receptors at L6 and L7 attenuated the pressor reflex evoked by static contraction and muscle s
65 jacent spinal segments as it pertains to the pressor reflex evoked by static contraction and stretch
66 n important role in the exaggerated exercise pressor reflex found in rats with ligated femoral arteri
67  type 2 diabetes may treat aberrant exercise pressor reflex function.
68 We conclude that GsMTx4 reduced the exercise pressor reflex in decerebrate rats and that the reductio
69 o-gated Piezo channels, reduced the exercise pressor reflex in decerebrate rats.
70 L-1beta significantly augmented the exercise pressor reflex in healthy rats.
71 ovel role for ASIC1a in evoking the exercise pressor reflex in heart failure and may have important c
72 that P2 receptors contribute to the exercise pressor reflex in humans.
73 ing the mechanical component of the exercise pressor reflex in male and female decerebrated rats.
74 ing the mechanical component of the exercise pressor reflex in male decerebrated Sprague-Dawley rats.
75 cal and metabolic components of the exercise pressor reflex in male rats with heart failure.
76 n modifying the exaggeration of the exercise pressor reflex in PAD and a reduction in the activity of
77 n modifying the exaggeration of the exercise pressor reflex in PAD and a reduction of the activity of
78 ite contributing to the exaggerated exercise pressor reflex in PAD rats with femoral artery occlusion
79 neficial effects on the exaggerated exercise pressor reflex in PAD rats.
80  likely involved in the exaggerated exercise pressor reflex in PAD.
81 te muscle ischaemia exaggerated the exercise pressor reflex in pygm(+/+) but not in pygm(-/-) rats.
82 at TRPV1 is not needed to evoke the exercise pressor reflex in rats whose contracting muscles have ei
83 ys an important role in evoking the exercise pressor reflex in rats with a compromised arterial blood
84 d the hypothesis that the augmented exercise pressor reflex in rats with a ligated femoral artery is
85 eceptors attenuated the exaggerated exercise pressor reflex in rats with ligated femoral arteries.
86  we found no effect of tiron infusion on the pressor reflex in rats with patent femoral arteries.
87 neficial effects on the exaggerated exercise pressor reflex in rats with peripheral artery disease (P
88  of the mechanical component of the exercise pressor reflex in rats.
89 ibutions of central command and the exercise pressor reflex in regulating the cardiovascular response
90 tery disease, causes an exaggerated exercise pressor reflex in response to muscle contraction.
91 thy, the effects of IL-1beta on the exercise pressor reflex in T2DM are not known.
92 ficantly attenuated the exaggerated exercise pressor reflex in T2DM rats, but not in healthy rats.
93 ling contributes to the exaggerated exercise pressor reflex in T2DM, suggesting for the first time th
94 the effect of IL-1 receptors on the exercise pressor reflex in T2DM.
95 ng, play a role in exaggerating the exercise pressor reflex in T2DM.
96  responses due to activation of the exercise pressor reflex in the absence of central command.
97 s to determine if activation of the exercise pressor reflex in the decerebrate rat induced circulator
98 ory that selectively stimulates the exercise pressor reflex independent of central command and/or the
99                       Inhibition of exercise pressor reflex input by epidural anaesthesia attenuated
100 ing dynamic and static exercise the exercise pressor reflex is capable of actively resetting carotid
101 he thin fibre afferents evoking the exercise pressor reflex is controversial.
102                                 The exercise pressor reflex is dangerously augmented in type 2 diabet
103  (ASICs), their contribution to the exercise pressor reflex is not known.
104   These data support the hypothesis that the pressor reflex is partially mediated by activation of NM
105 erents, sense the decrease in pH and evoke a pressor reflex known to increase mean arterial pressure.
106 s likely leading to the exaggerated exercise pressor reflex observed in PAD.
107                 However, given that exercise pressor reflex overactivity is known to elicit enhanced
108                                 The exercise pressor reflex plays a key role in the sympathetic and h
109  in the baroreflex mediated reduction of the pressor reflex response to static muscle contraction.
110 10-min on the gallbladder induced consistent pressor reflex responses.
111 uscle work evokes a sympathetically mediated pressor reflex, termed the respiratory muscle metaborefl
112  acid and E-2 led to a significantly greater pressor reflex than lactic acid alone in the presence of
113 arger reflex pressor response (i.e. exercise pressor reflex) than did static contraction of the contr
114 ntrast, the positive modulator increased the pressor reflex to contraction and stretch, in addition t
115 o determine the contribution of the exercise pressor reflex to the resetting of the carotid barorefle
116 ion of somatosensory input from the exercise pressor reflex to this resetting during exercise.
117                                 The exercise pressor reflex was evoked by statically contracting the
118                                 The exercise pressor reflex was evoked in decerebrated rats by static
119      Despite these differences, the exercise pressor reflex was not different between groups.

 
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