ライフサイエンスコーパス: flowmetry

1 Cerebral blood flow was measured by laser flowmetry.

2 ts, including thermography and laser Doppler flowmetry.

3 ne, and spleen was assessed by laser Doppler flowmetry.

4 e head using confocal scanning laser Doppler flowmetry.

5 ) blood flow, as determined by laser Doppler flowmetry.

6 istribution were measured with laser doppler flowmetry.

7 lar blood flow was assessed by laser Doppler flowmetry.

8 blood flow was measured using laser Doppler flowmetry.

9 nsisted of measurements with transit-time US flowmetry.

10 s measured during manometry by laser Doppler flowmetry.

11 Doppler perfusion imaging and laser Doppler flowmetry.

12 n blood flow was measured with laser Doppler flowmetry.

13 od flow (rCBF) was recorded by laser Doppler flowmetry.

14 d flow monitored in vivo using laser Doppler flowmetry.

15 d larger perfusion deficits on laser speckle flowmetry.

16 ood flow measured using transcranial Doppler flowmetry.

17 ted using signal averaged laser Doppler (LD) flowmetry.

18 d flow (rCBF) was monitored by Laser-Doppler flowmetry.

19 aseline and then annually with laser Doppler flowmetry.

20 as determined with correlative laser Doppler flowmetry.

21 in blood flow was monitored by laser-Doppler flowmetry.

22 was separately assessed using laser Doppler flowmetry.

23 itored in anesthetized mice by laser-Doppler flowmetry.

24 flow (HBF) was measured using laser Doppler flowmetry.

25 d flow (CuBF) were recorded by laser Doppler flowmetry.

26 were measured by catheterization and Doppler flowmetry.

27 crocirculation was assessed by laser Doppler flowmetry.

28 nd reperfusion was assessed by laser Doppler flowmetry.

29 pressure, skin blood flow via laser-Doppler flowmetry and core temperature via ingestible telemetric

30 ulation obtained from standard laser-Doppler flowmetry and indices derived from near-infrared spectro

31 ral perfusion was monitored by laser-Doppler flowmetry and infarct volume was measured.

32 ations for non-invasive diagnosis, analysis, flowmetry and inspection.

33 ecovery that resembled microbead-based blood flowmetry and laser Doppler blood spectroscopy.

34 n amplitude were assessed with laser Doppler flowmetry and laser interferometry, respectively.

35 od flow using a combination of laser Doppler flowmetry and MRI were performed to uncover the effects

36 bral oligemia, we used in vivo laser speckle flowmetry and multimodal imaging.

37 e; CBF was monitored with both laser Doppler flowmetry and radioactive microspheres, whereas intracra

38 enectomy with a combination of laser Doppler flowmetry and reflectance spectrophotometry.

39 onal cerebral blood flow using laser Doppler flowmetry and specific gravity, an indicator of brain ed

40 periments, CBF was measured by laser Doppler flowmetry and the cerebral vasculature was visualized by

41 the chamber was monitored with laser Doppler flowmetry and the disappearance of the tracer versus tim

42 tion were demonstrated between laser Doppler flowmetry and the two CT perfusion approaches (single-se

43 ortical blood flow (CBF) using laser Doppler flowmetry and tissue PO2 using fluorescent decay.

44 Flowmetry and ultrasonography were used perioperatively

45 io of forearm skin blood flux (laser-Doppler flowmetry) and arterial blood pressure (Finapres) was us

46 well as interspace perfusion (laser Doppler flowmetry) and hematocrit were analyzed.

47 heat-induced skin %-hyperemia (laser-Doppler flowmetry), and glucose metabolism status (oral glucose

48 estoration of blood perfusion (laser Doppler flowmetry), and muscle repair (Evans blue dye exclusion)

49 continuous cardiac output (pulmonary artery flowmetry), and systemic and intracardial pressure measu

50 ll (RBC) flux was measured via laser-Doppler flowmetry, and cutaneous vascular conductance (CVC) was

51 cell flux was monitored using laser-Doppler flowmetry, and cutaneous vascular conductance (CVC) was

52 kin blood flow was measured by laser-Doppler flowmetry, and CVC was the ratio of skin blood flow to m

53 gnal imaging and spectroscopy, laser Doppler flowmetry, and local field potential recordings.

54 t imaging of perfused vessels, laser Doppler flowmetry, and MRI) as well as a sustained reduction in

55 rdings, cerebral blood flow by laser Doppler flowmetry, and oxygen consumption with measurement of th

56 glass microelectrodes, CBF by laser Doppler flowmetry, and tissue oxygen tension (tpO(2)) using pola

57 Vital signs, pulse oximetry, laser Doppler flowmetry, and toe temperature were measured to evaluate

58 r blood flow was measured with laser Doppler flowmetry, and, simultaneously, the disappearance of the

59 Laser Doppler flowmetry appears to be a useful tool for continuous, on

60 hanges in CBF were measured by laser doppler flowmetry before (baseline), and during hypercapnia (FiC

61 oglobin concentration rHb) and laser Doppler flowmetry (blood flow and flow velocity).

62 By using laser Doppler flowmetry, blood flow from the anterior choroid in pento

63 ulation of RVLM elevated rCBF (laser-Doppler flowmetry) by 31 +/- 6 %, reduced cerebrovascular resist

64 lly elevated rCBF1 measured by laser Doppler flowmetry, by 61.3 +/- 22.1% (P < 0.01), increased arter

65 ng local skin warming, we used laser Doppler flowmetry combined with intradermal microdialysis to mea

66 Laser Doppler flowmetry, combined with intradermal microdialysis of l-

67 al arterioles, consistent with laser Doppler flowmetry data.

68 ortical blood flow measured by laser-Doppler flowmetry, demonstrating the importance of Ca(2+) channe

69 erg Retinal Flowmeter (HRF), a laser Doppler flowmetry device, has captured interest as a research an

70 eurography) and red cell flux (laser Doppler flowmetry; dorsum of foot) were measured during whole-bo

71 lux in the affected dermatome (laser Doppler flowmetry; dorsum of foot) were measured during whole-bo

72 llary blood flows, measured by laser-Doppler flowmetry, exhibited high autoregulatory efficiency over

73 Laser Doppler flowmetry generates comparable results to wheal area mea

74 Laser Doppler flowmetry identified an increase in blood flow in the CS

75 sured on a continuous basis using ultrasonic flowmetry in anesthetized cats.

76 were measured transclerally by laser Doppler flowmetry in anesthetized pigeons before and after admin

77 lood flow was also measured by laser Doppler flowmetry in each of the digits prior to intradermal inj

78 ction noninvasively by forearm laser Doppler flowmetry in several small trials.

79 graphy recordings and CBF with laser Doppler flowmetry in the rat's somatosensory cortex for both res

80 In summary, laser Doppler flowmetry is a useful measure of continuous relative cha

81 bral perfusion, estimated with laser Doppler flowmetry (LD-CBF), in response to intravenous oxotremor

82 d cell flux was measured using laser-Doppler flowmetry (LDF) and cutaneous vascular conductance (CVC;

83 (CBF) was measured by means of laser Doppler flowmetry (LDF) and perfusion weighted imaging (PWI) bef

84 we performed experiments using laser-Doppler flowmetry (LDF) combined with iontophoresis in 15 low-fl

85 re recorded continuously using laser Doppler flowmetry (LDF) during and 30 min after 6 min of forebra

86 dy was to evaluate the role of laser Doppler flowmetry (LDF) in comparison with infrared thermography

87 sualization of infused RBCs or laser Doppler flowmetry (LDF) to measure RBC flow.

88 LD signal and blood flow using laser Doppler flowmetry (LDF) was studied in rats in response to apnea

89 Laser-Doppler flowmetry (LDF) was used as an index of skin blood flow

90 monitored at three sites using laser Doppler flowmetry (LDF) while mean skin temperature was lowered

91 ood flow were quantified using Laser-Doppler flowmetry (LDF).

92 ollowing tooth brushing, using laser Doppler flowmetry (LDF).

93 lood flow increase measured by laser Doppler flowmetry (LDF).

94 lood perfusion was measured by laser Doppler flowmetry (LDF).

95 erage gingival augmentation by laser Doppler flowmetry (LDF).

96 er each microdialysis site via laser-Doppler flowmetry (LDF).

97 d flow (SkBF) was monitored by laser-Doppler flowmetry (LDF).

98 was continuously monitored by laser Doppler flowmetry (LDF).

99 ood pressure, skin blood flow (laser-Doppler flowmetry), local sweat rate and SSNA (microneurography

100 ctance (CVC) was calculated as laser-Doppler flowmetry/mean arterial pressure and normalized to maxim

101 e-unit recording combined with laser-Doppler flowmetry measurements of dural blood flow (DBF), we exa

102 -2 inhibitor) before repeating laser Doppler flowmetry measurements.

103 h methods were correlated with laser Doppler flowmetry measurements.

104 blood flow during ischemia by laser speckle flowmetry methods.

105 ood flow (CBF) was measured by laser Doppler flowmetry or by the (14)C-iodoantipyrine technique with

106 lood cell flux was measured by laser-Doppler flowmetry over each microdialysis site.

107 Red cell flux was measured by laser-Doppler flowmetry over each site.

108 ral perfusion was monitored by laser-Doppler flowmetry over ipsilateral parietal cortex to ensure ade

109 n blood flow was monitored via laser-Doppler flowmetry over sites following local administration of t

110 o baseline CBF--as measured by laser Doppler flowmetry over the somatosensory cortex.

111 Using laser Doppler flowmetry, oxygen microsensors and intrinsic optical ima

112 ble with time-domain processing than with US flowmetry (P < .001).

113 approximately 145 days) using laser Doppler flowmetry probes implanted in the parietal cortices.

114 rode, used simultaneously with laser doppler flowmetry, real-time data acquisition, and continuous br

115 measuring (by electromagnetic or ultrasonic flowmetry) renal blood flow responses to AngII in rats a

116 d by laser speckle imaging and laser Doppler flowmetry, respectively.

117 scanning laser tomography and laser Doppler flowmetry, respectively.

118 Ultrasonic flowmetry seems to be a useful tool for continuous on-li

119 odermal blood flow measured by laser Doppler flowmetry significantly increased after application of G

120 ken to compare microsphere and laser Doppler flowmetry techniques for the measurement of cerebral blo

121 Using laser speckle flowmetry through an intact skull, we studied the impact

122 e aim of this study was to use laser Doppler flowmetry to measure anterior choroidal blood flow in th

123 ll (RBC) flux was measured via laser-Doppler flowmetry to provide an index of skin blood flow.

124 ectral reflectance imaging and laser speckle flowmetry to simultaneously and non-invasively determine

125 rs, two anesthetic regimes and laser-Doppler flowmetry to test the hypothesis that NO is critically i

126 so with time-domain processing than with US flowmetry (underestimation, 10% versus 21%).

127 Flowmetry, wall strain analyses, biomicroscopy, and hist

128 e increase of flow measured by laser Doppler flowmetry was less than that measured by spheres after 1

129 Laser Doppler flowmetry was used to assess cutaneous blood flow change

130 Laser Doppler flowmetry was used to assess relative choroidal blood ve

131 Laser Doppler flowmetry was used to assess relative foveolar choroidal

132 Laser Doppler flowmetry was used to determine optic nerve head relativ

133 yhemoglobin in capillaries and laser Doppler flowmetry was used to measure blood flow.

134 Laser Doppler (LD) flowmetry was used to measure CBF changes (LD(CBF)) in t

135 Transcleral laser Doppler flowmetry was used to measure ChBF during spontaneous BP

136 In a rat model, Doppler flowmetry was used to measure local blood flow at the si

137 Laser Doppler flowmetry was used to measure red blood cell flux during

138 Laser-Doppler flowmetry was used to measure red blood cell flux.

139 Laser-Doppler flowmetry was used to measure skin blood flow in a total

140 Laser Doppler flowmetry was used to quantify changes in blood flow, wh

141 epatic blood flow (assessed by laser Doppler flowmetry) was greater in LSF-treated rats.

142 Using Laser Doppler flowmetry, we showed that SNO-Hb infusion to animals bre

143 raphic activity (EEG) and CBF (laser-Doppler flowmetry), were exposed to 100% O2 at 4 or 5 atm (gauge

144 lood flow (RBF), measured with laser Doppler flowmetry, were 58+/-9%.

145 ese findings were supported by laser Doppler flowmetry which determined FR139317 induces reperfusion

146 at two forearm sites with laser Doppler (LD) flowmetry while local skin temperature was cooled and cl

147 dal blood flow was measured by laser Doppler flowmetry with a probe positioned over the posterior ret

148 alysis electrode technique and laser doppler flowmetry with brain temperature controlled.