ライフサイエンスコーパス: respiratory rate

1 duction in dynamic hyperinflation at a lower respiratory rate).

2 ef changes in blood pressure, heart rate, or respiratory rate.

3 HB renal and total clearance, also improving respiratory rate.

4 no effect on blood pressure, heart rate, or respiratory rate.

5 rterial blood pressure, body temperature and respiratory rate.

6 te the trigeminal nerve and evoke changes in respiratory rate.

7 lter basal forebrain ACh release, sleep, and respiratory rate.

8 Dialysis administration of NLA did not alter respiratory rate.

9 id not differ in end-tidal carbon dioxide or respiratory rate.

10 ack of any increase in minute ventilation or respiratory rate.

11 adaptation of stimulation to alterations in respiratory rate.

12 gnals, skin temperature, skin hydration, and respiratory rate.

13 inergic synaptosomes from striatum had lower respiratory rates.

14 lved in the control of maximal mitochondrial respiratory rates.

15 ptoms and panic attacks, as well as elevated respiratory rates.

16 s remained viable and maintained significant respiratory rates.

17 ervation were evaluated by measuring ATP and respiratory rates.

18 e and age-matched WT littermates had similar respiratory rates.

19 eases in arousal, temperature, and heart and respiratory rates.

20 ilated with 12 mL/kg tidal volume, 28% FIO2, respiratory rate = 12 breaths/min) were hemorrhaged to <

21 Animals were ventilated for 6 hrs (respiratory rate, 15; FIO2, 1.0, inspiratory/expiratory

22 -2.2 L/min vs. 10.1+/-2.9 L/min, p<0.01) and respiratory rate (16+/-5 bpm vs. 19+/-6 bpm, p<0.01) tha

23 s. 16%, p = .003) and had a higher intrinsic respiratory rate (22 breaths/min vs. 18, p = .03), but t

24 ion period, averages were pH, 7.29 +/- 0.05; respiratory rate, 22.4 +/- 3.7 breaths/min; PetCO2, 35.3

25 ventilation, 12.7+/-1.4 to 6.2+/-0.8 L/min; respiratory rate, 25.4+/-1.3 to 18.4+/-1.8 breaths/min;

26 Repeat episodes further increased respiratory rate (3%; 95% CI, 1.01-1.05; P = 0.004), dec

27 d) initial values for pH were 7.08 +/- 0.18; respiratory rate, 35.1 +/- 9.1 breaths/min; PetCO2, 18.6

28 was independently associated with increased respiratory rate (4%; 95% confidence interval [CI], 1.01

29 eak airway pressure was similar at the three respiratory rates (66.8 +/- 8.7 vs. 66.4 +/- 9.5 vs. 67.

30 in measuring temperature, 85% for measuring respiratory rates, 98% for diagnosis, 98% for classifica

31 hours preceding ICU admission, with a higher respiratory rate, a more frequent acute kidney injury, a

32 6 +/- 41 ml/kg/min, p < 0.01), a decrease in respiratory rate, a prolongation of inspiratory time, an

33 athing 15 L/min of oxygen, plus either [1] a respiratory rate above 30/min or [2] clinical signs sugg

34 respiration was a dose-dependent decrease in respiratory rate, accompanied by an increase in tidal vo

35 matically increased and decreased changes in respiratory rate according to a set protocol: +2, -4, +6

36 lly ventilated (tidal volume V(T) = 8 mL/kg, respiratory rate adjusted to normocapnia) at low (n = 2,

37 In another ventilator, the high respiratory rate alarm sounded but the rate had not chan

38 ant peripheral oximetry, blood pressure, and respiratory rate alerts from artifacts in an online moni

39 hted average heart rate, blood pressure, and respiratory rate, along with changes-over-time for each.

40 emplified respectively by risk-avoidance and respiratory rate alterations).

41 ts have pulmonary hypertension and increased respiratory rates, although the pathophysiological basis

42 und a linear relationship between changes in respiratory rate and big up tri, openPetCO2 as well as b

43 SIRS, qSOFA, the Confusion, Respiratory Rate and Blood Pressure (CRB) score, modifie

44 Respiratory rate and cardiac contractility increased dur

45 afil, subjects had a significantly decreased respiratory rate and decreased minute ventilation at pea

46 We found significantly increased respiratory rate and decreased tidal volume at 24 hr and

47 ither abnormal lung compliance nor increased respiratory rate and displayed no markers of lung injury

48 i, openPetCO2) as well as between changes in respiratory rate and equilibration time (teq) for mechan

49 Respiratory rate and heart rate decreased during helium-

50 ication included higher body temperature and respiratory rate and higher percentage of immature neutr

51 al and hippocampal activation, increased the respiratory rate and hypoglossal nerve activity, induced

52 ome measures were evaluated as a function of respiratory rate and included tidal volume, maximal alve

53 ces of respiratory muscle function including respiratory rate and inspiratory flow.

54 guinea pigs while having no effect on basal respiratory rate and little or no effect on reflexes att

55 ep induction, and restrain the expression of respiratory rate and motor activities.

56 Respiratory rate and oxygen saturation changed significa

57 d respiratory rate (r = -.79, p =.0001), and respiratory rate and pH (r = -.80, p =.0001) were statis

58 ondrial Ca(2+) handling, membrane potential, respiratory rate and production of reactive oxygen speci

59 uring CPR was obtained by recording observed respiratory rate and relative tidal volume during treatm

60 eptor-responsive PPTn neurons also increased respiratory rate and respiratory-related genioglossus ac

61 lationship has been found between changes in respiratory rate and resulting changes in end-tidal cO2

62 ory insufficiency characterized by subnormal respiratory rate and severe apneas.

63 These parameters, along with respiratory rate and subjective symptoms, were assessed

64 ri, openPetCO2 as well as between changes in respiratory rate and teq.

65 of the neurograms had two peaks, one at the respiratory rate and the other between 22.8-43.0 Hz.

66 Stress and anxiety alter respiratory rate and thereby alter oxygen saturation in

67 respiration (brief episodes of increases in respiratory rate and tidal phrenic nerve activity) while

68 pproximate entropy (ApEn) was calculated for respiratory rate and tidal volume series of the terminal

69 ous ventilation, each breath's instantaneous respiratory rate and tidal volume were recorded for late

70 Respiratory rate and volume were measured with spirometr

71 reased in parabolic fashion as a function of respiratory rate and was maximal at rates of 4.3-6.8 bre

72 of PCO2 can be achieved by titration of the respiratory rate and/or tidal volume.

73 Heart and respiratory rates and blood gases improved similarly for

74 ted from the brains of R6/2 mice had similar respiratory rates and Ca(2+) uptake capacity compared wi

75 Lung overdistention occurred at high respiratory rates and high inspiratory/expiratory ratios

76 in lung lavage fluids of infected mice with respiratory rates and measures of outflow obstruction an

77 hat combines the low tidal volume with lower respiratory rates and minimally invasive CO2 removal.

78 p-AMPK, mitochondrial content, mitochondrial respiratory rates and palmitate oxidation.

79 ain Assessment Card) and 60-second heart and respiratory rates and sustained change in quality of lif

80 trienes were correlated with both increasing respiratory rates and the degree of prolongation of expi

81 n saturation, end-tidal CO2, heart rate, and respiratory rate) and comfort (electroencephalogram [EEG

82 with monitoring of jugular venous pressure, respiratory rate, and arterial oxygen saturation and tre

83 Oxygen requirement, maximal respiratory rate, and baseline immune suppression were i

84 an arterial pressure, rate-pressure product, respiratory rate, and catecholamine levels were all sign

85 splayed markedly reduced locomotor activity, respiratory rate, and energy expenditure, which were not

86 elicited robust increases in blood pressure, respiratory rate, and heart rate.

87 anxiolysis: reduced risk-avoidance, reduced respiratory rate, and increased positive valence, respec

88 ncluding mean arterial pressure, heart rate, respiratory rate, and oxygen saturation) were collected

89 Data for telemetered heart rates, respiratory rates, and increases in the temperature grea

90 Conversely, approximate entropy of respiratory rate (ApEn-RR) did not vary among the three

91 high inspiratory/expiratory ratios and high respiratory rate apparently due to "auto-positive end-ex

92 phase during total liquid ventilation at low respiratory rates, apparently due to increased tidal vol

93 Measurements of the respiratory rate are enhanced by counting for 60 seconds

94 creased to 0.87 (95% CI, 0.71-0.98), whereas respiratory rate area under the curve started at 0.85 (9

95 n each case, indicators of pulmonary damage (respiratory rates, arterial oxygen partial pressures, an

96 ch intestinal ROI was sent for mitochondrial respiratory rate assessment and for metabolites quantifi

97 We show that RSV G glycoprotein reduces respiratory rates associated with the induction of subst

98 he first hour (p=0.02) and a greater fall in respiratory rate at 4 h (p=0.035).

99 We recorded these variables plus respiratory rate at baseline and every 30 mins for a tot

100 With respiratory rates at 6 breaths/min, all subjects maintai

101 In glucose-grown cells, maximum respiratory rate, ATPase and cytochrome oxidase activiti

102 If all clinical signs (respiratory rate, auscultation, and work of breathing) a

103 sed using clinical parameters such as pulse, respiratory rate, blood pressure (BP), and biochemical p

104 modified SOFA (mSOFA), the Confusion, Urea, Respiratory Rate, Blood Pressure and Age (CURB-65) score

105 nuous single-channel monitoring (heart rate, respiratory rate, blood pressure, and peripheral oxygen

106 ninvasive monitoring parameters (heart rate, respiratory rate, blood pressure, and peripheral oxygen

107 and followed oxygen saturation, spirometry, respiratory rate, blood pressure, heart rate, and expire

108 rome (SIRS), includes changes in heart rate, respiratory rate, body temperature, and circulating whit

109 glucose stimulation of insulin secretion and respiratory rate but demonstrated two different patterns

110 /kg SCH50911 plus l-lactate further improved respiratory rate compared with the same dose of either a

111 During the lower respiratory rate condition, interleukin-6, interleukin-8

112 During the lower respiratory rate condition, respiratory rate was reduced

113 ecord oxygen requirement, oxygen saturation, respiratory rate, consciousness level, and other evidenc

114 We found that heart rate and respiratory rate could detect differences between groups

115 morphology, as evidenced by measurements of respiratory rates, cytochrome contents, and also clearly

116 ith heart rate data for 143,346 children and respiratory rate data for 3881 children.

117 +/- 3.2 to 102 +/- 3.2 beats/min (p < .001), respiratory rate decreased from 39 +/- 3 to 25 +/- 1 bre

118 Respiratory rate decreases primarily resulted from marke

119 RNA or protein, indicating that the enhanced respiratory rate did not require a general increase in m

120 lation, end-tidal CO(2), and irregularity in respiratory rate during room-air breathing.

121 02-0.66 +/- 0.03 ml; p < 0.05) and increased respiratory rate (f;91 +/- 3.7-132 +/- 5.7 breaths/min;

122 The chitosan suppressed the respiratory rate, fresh weight loss, firmness and skin c

123 A decrease in respiratory rate from 18 to 12 and 6 breaths/min.

124 The mere change of respiratory rate from 4 to 8 breaths x min(-1), with a n

125 Our centile charts show decline in respiratory rate from birth to early adolescence, with t

126 tions to control heart rate, blood pressure, respiratory rate, gastrointestinal motility, hormone rel

127 e less than 20 mEq/L, lactate concentration, respiratory rate greater than or equal to 24 breaths/min

128 in vital signs (heart rate > 100 beats/min, respiratory rate > 24 breaths/min, and oral body tempera

129 essment criteria (Glasgow Coma Scale </= 14, respiratory rate >/= 22 breaths/min, or systolic blood p

130 </= 7.35, and at least one of the following: respiratory rate >/= 25/min, PaO2 </= 50 mm Hg, and oxyg

131 r 2 points for > 6 L/min; 1 point each for a respiratory rate >/= 30 and immune suppression) accurate

132 30 with arterial PCO2 > 20% of baseline, and respiratory rate >/= 30 breaths/min or use of accessory

133 ial hypertension (OR, 1.5; 95% CI, 1.1-2.1), respiratory rate >/=30 breaths per minute (OR, 1.6; 95%

134 Age >/= 80 years, heart rate >90/minute, respiratory rate >20/minute, white cell count <4 x 10(9)

135 eta-blockers during hospitalization included respiratory rate >24 breaths/min (30.8% vs. 16.9%; p = 0

136 her hospital (ORadj 2.08, 95% CI 1.33-3.25), respiratory rate >33 breaths/min (ORadj 2.39, 95% CI 1.5

137 0%-92%; specificity, 47%-54%) and tachypnea (respiratory rate >40 breaths/min; LR, 1.5 [95% CI, 1.3-1

138 hese effects were minimized in this model at respiratory rates >/=5.7 and </=6.8 breaths/min and insp

139 ed as >/=2 of 1) heart rate>90 beats/min, 2) respiratory rate>20 breaths/min, 3) body temperature>38

140 ecome increasingly irregular, but increasing respiratory rate has no effect on respiratory rate patte

141 well as in controlling maximum mitochondrial respiratory rates has been discussed.

142 ipitated withdrawal signs, such as increased respiratory rate, heart rate, and blood pressure.

143 A decrease in respiratory rate, heart rate, and dyspnea score and an i

144 Clinical Asthma Score, respiratory rate, heart rate, and pulse oximetry oxygen

145 Glasgow coma score, systolic blood pressure, respiratory rate, heart rate, and type of injury (blunt

146 Total respiratory rate, heart rate, blood pressure, oxygen sat

147 dified early warning score was assessed from respiratory rate, heart rate, systolic blood pressure, b

148 eft ventricular ejection fraction, increased respiratory rate, high GRACE score, or presence of diabe

149 nal bleeding, and also decreased with higher respiratory rate, higher heart rate, longer time from tr

150 ventilation circuit dead space, increases in respiratory rate, higher positive end-expiratory pressur

151 expiratory time will depend on the baseline respiratory rate (i.e., less reduction in dynamic hyperi

152 rus (RSV) infection in the neonate can alter respiratory rates, i.e., lead to episodes of apnea.

153 In both groups pH, PaCO2, and respiratory rate improved at 4 h (p<0.01).

154 -nitroquinoxaline-2,3-dione (CNQX) decreased respiratory rate in a dose dependent manner by lengtheni

155 CPAP is safe and improves respiratory rate in a non-tertiary setting in a lower-mi

156 anterior muscle (75% type I) despite a high respiratory rate in adults.

157 Although heart rate and respiratory rate in children are measured routinely in a

158 to create centile charts for heart rate and respiratory rate in relation to age.

159 The primary outcome was the respiratory rate in the first 24 h after birth.

160 cin-sensitive oxygen consumption and maximal respiratory rates in cells derived from wild type, but n

161 Among the 488 treated neonates, the mean respiratory rates in the first 24 h were 51 (SD 8) breat

162 attack is triggered, minute ventilation and respiratory rate increase regardless of whether the subj

163 Mean cardiac and respiratory rates increase significantly at needle punct

164 idal volume did not vary between groups, but respiratory rate increased progressively from the contro

165 ptom ratings were positively correlated with respiratory rate increases, as well as with levels of ti

166 CH50911 completely prevented the decrease in respiratory rate, indicating agonism at GABA(B) receptor

167 ) nerve fibers, causing an alteration of the respiratory rate indicative of trigeminal activation.

168 vity, the faster enhancement of the cellular respiratory rate is due to intrinsic factors within the

169 ed, demonstrating that the inhibition of the respiratory rate is not due to loss of cytochrome c.

170 ible for the quantitative variation found in respiratory rates is unknown.

171 ial blood pressure, an increase in pulse and respiratory rate, lactic acidosis, and renal failure.

172 In a multivariable model including respiratory rate, left ventricular ejection fraction, di

173 age, lower systolic blood pressure, abnormal respiratory rate, lower Glasgow Coma Scale score, lower

174 fter GHB completely reversed the decrease in respiratory rate; lower doses had partial effects.

175 r=90 mm Hg, Glasgow Coma Scale score <or=12, respiratory rate <10 or >29 per minute, advanced airway

176 nclusion in the AMPT score included GCS <14, respiratory rate <10 or >29, flail chest, hemo/pneumotho

177 od pressure (> or =90 mm Hg), and 3 days for respiratory rate (< or =24 breaths/min), oxygen saturati

178 Changes in PaO2/Fio2 ratio, tidal volume, respiratory rate, mean airway pressure, plateau pressure

179 Changes in heart rate, respiratory rate, mean arterial pressure, plasma catecho

180 n between PetCO2 equilibria after changes in respiratory rate might not be dependent on moderate lung

181 Still, overall mean respiratory rate, minute ventilation, and sleep architec

182 Secondary outcomes included tidal volume, respiratory rate, minute volume, dynamic lung compliance

183 a data set recorded in awake mice containing respiratory rate modulation.

184 espiratory acidosis, encephalopathy, and the respiratory rate more quickly than air/O2 but does not p

185 .8 g/dL (odds ratio, 3.6; 95% CI, 1.1-11.9), respiratory rate more than or equal to 32 cycles/min (od

186 dal volume and its coefficient of variation, respiratory rate, neural timing components, and calculat

187 age of >65 yrs, b) altered mental status, c) respiratory rate of >30 breaths/min, d) low oxygen satur

188 rmalisation of patients' respiratory status (respiratory rate of </=20 breaths per min for adults or

189 iggers (heart rate of <40 or >140 beats/min, respiratory rate of <8 or >36 breaths/min, systolic bloo

190 ide clinical score termed quickSOFA (qSOFA): respiratory rate of 22/min or greater, altered mentation

191 -expiratory pressure of 14 +/- 6 cm H2O; and respiratory rate of 23 +/- 10 breaths/ min.

192 vious 24 hours with persisting dyspnea and a respiratory rate of 24/min or greater were eligible prov

193 a peak inspiratory pressure of 50 cm H2O, a respiratory rate of 4 breaths x min(-1), and an inspirat

194 revealed a temperature of 38.1 degrees C, a respiratory rate of 48 breaths per minute, a heart rate

195 fill volume, 17.5-20 mL.kg(-1) tidal volume, respiratory rate of 5 breaths/min, inspiratory/expirator

196 an inspiratory/expiratory ratio of 1:2.5 and respiratory rate of 6.8 breaths/min appeared to provide

197 peak inspiratory pressure of 50 cm H2O, at a respiratory rate of 8 breaths.min, with an inspiratory t

198 ists for studies that reported heart rate or respiratory rate of healthy children between birth and 1

199 children aged from 1 month to 5 years with a respiratory rate of more than 50 breaths per min in chil

200 Conversely, the respiratory rate of resting NET(-/-) mice was dramatical

201 The respiratory rate of the fruit was induced by the anoxia

202 .6, 38.6 +/- 4.5, and 23.1 +/- 5.8 mL/sec at respiratory rates of 18, 12, and 6 breaths/min, respecti

203 With respiratory rates of 20 and 30 breaths/min, systolic blo

204 ofactors at rates high enough to satisfy the respiratory rates of the cell.

205 aths 1-5 [mean+/-SD], 49+/-41% baseline) and respiratory rate often sufficient to sustain minute vent

206 therefore also be used for the titration of respiratory rate on the PetCO2 for a wider range of path

207 In addition to reductions in respiratory rate, opioids also cause aspiration and diff

208 s was due to ventilator-induced increases in respiratory rate or VT.

209 44, 95% CI .17-1.07, p = .076), and baseline respiratory rate (OR 2.03 per sd, 95% CI 1.38-3.08, p <

210 s in the mean number of days of fever, rapid respiratory rate, or hypoxia, whether these endpoints we

211 er from the controls in terms of heart rate, respiratory rate, or rectal temperature.

212 al volume, positive end-expiratory pressure, respiratory rate, oxygen administration, and head-of-bed

213 Measurements of respiratory rate, oxygen saturation, and arterial blood

214 condary end points including height, weight, respiratory rate, oxygen saturation, cough, or respirato

215 Respiratory rate, oxygen saturation, end-tidal CO(2), an

216 001), lower PaCO2 (p < .05), and a lower set respiratory rate (p < .0001) as compared with the SIMV-t

217 (p = 0.001), blood pressure (p < 0.001), and respiratory rate (p < 0.001).

218 improved oxygenation (P < 0.001) and lowered respiratory rate (P < 0.01), DeltaPes (P < 0.01), and pr

219 Low body mass index (P = .002) and elevated respiratory rate (P = .01) at tuberculosis diagnosis ind

220 r operating characteristic curve [AUC] 0.7), respiratory rate (p<.001, AUC 0.71), and oxygen saturati

221 increasing respiratory rate has no effect on respiratory rate pattern.

222 PetCO2 values were correlated with respiratory rate, PCO2, and pH.

223 sive vital sign monitoring data (heart rate, respiratory rate, peripheral oximetry) recorded on all a

224 Respiratory rate, pH, PaCO2, and encephalopathy score im

225 istress Syndrome Network protocol plus lower respiratory rate plus minimally invasive Co2 removal.

226 The strategy of lower respiratory rate plus minimally invasive extracorporeal

227 riables: pH, Glasgow Coma Scale, spontaneous respiratory rate, positive end-expiratory pressure, and

228 spiratory rates, whereas increasingly higher respiratory rates progressively and significantly impair

229 PetCO2 and pH (r =.88, p =.0001), Petco2 and respiratory rate (r = -.79, p =.0001), and respiratory r

230 ight ventricular dysfunction, and heart rate/respiratory rate ratio <3.6.

231 was in direct proportion to the increase in respiratory rate reflecting the level of conditioned fea

232 Nevertheless, state 3 respiratory rates remained depressed, and cytochrome c r

233 vate and lactate, with similar state 3 and 4 respiratory rates, respiratory control (state 3/state 4)

234 ands exhibited larger minute ventilation and respiratory rate responses relative to comparisons.

235 Elevated respiratory rate resulted in hypocapnia.

236 The respiratory rate rose by 5.1% per standard deviation inc

237 Mild illness (n = 23) was defined as a respiratory rate (RR) < 55 and room air oxygen saturatio

238 was a statistically significant decrease in respiratory rate (RR) at normocapnia, an elevated RR dur

239 of positive end-expiratory pressure (PEEP), respiratory rate (RR), and plateau pressure minus PEEP (

240 athing parameters showed significantly lower respiratory rates (RR) (36.6 +/- 17.9 versus 52.8 +/- 23

241 ublished reference ranges for heart rate and respiratory rate show striking disagreement, with limits

242 gic states, but also that "normal" or higher respiratory rates significantly compromise hemodynamics,

243 of spontaneous breathing was assessed by the respiratory rate standardized to age, the presence of re

244 n model are PaO2/FiO2 ratio, platelet count, respiratory rate, systolic blood pressure, and days of h

245 significantly lower tidal volumes and higher respiratory rates than C lambs.

246 SV-infected mice showed significantly higher respiratory rates than did controls (409.2 vs. 305.2 bre

247 ntilation for patients with COPD such as low respiratory rates that maximize expiratory time and care

248 nd slow (60/min) representing the underlying respiratory rate, the other fast (> 300/min) and limited

249 tion coinciding with the increase in overall respiratory rate; this acquired capability was accompani

250 ysis was performed on each of the factors of respiratory rate, tidal volume, and inspiratory/expirato

251 In these studies, the parameters of respiratory rate, tidal volume, and minute volume were m

252 ements of respiratory function were made for respiratory rate, tidal volume, lung volume, airway cond

253 g reported as work per liter of ventilation, respiratory rate, tidal volume, negative change in esoph

254 t rate-systolic blood pressure products, and respiratory rate/tidal volume ratios were obtained for p

255 iratory chain activity by calcium allows the respiratory rate to change severalfold with only small o

256 to 91 (range, 62-114; P <.001) and the mean respiratory rate to increase an average of 12 breaths pe

257 ncentration), others influence VRG to adjust respiratory rate to optimize partial pressure CO(2), and

258 teau pressure; it also recommends increasing respiratory rate to prevent hypercapnia.

259 es , 30 degrees , 40 degrees ) elevation and respiratory rate (to achieve a DeltaETco2 = +/-3-4 mm Hg

260 correlation between H(2)O(2) production and respiratory rates under different conditions of NO(radic

261 ment for age, degree of hypercarbia, maximal respiratory rate, use of an arterial catheter, and Pedia

262 0% of eupneic VT) with and without increased respiratory rate, using controlled and assist control me

263 We measured heart rate and respiratory rate variability by spectral analysis in the

264 arly, sedation interruption led to increased respiratory rate variability for low multiple organ dysf

265 sedation reduces heart rate variability and respiratory rate variability in critically ill patients

266 nuously monitored heart rate variability and respiratory rate variability in critically ill patients.

267 er restoration of heart rate variability and respiratory rate variability in patients with low organ

268 suggest that both heart rate variability and respiratory rate variability increased during sedation i

269 fied as the apnoea-hypopnoea index (AHI) and respiratory rate variability index (RRVI).

270 and quantified by an apnoea-hypopnoea index, respiratory rate variability index and the coefficient o

271 Respiratory rate variability index, coefficient of varia

272 se to injury were explored by heart rate and respiratory rate variability measured with non-invasive

273 but in contrast, a further deterioration in respiratory rate variability occurred in the high multip

274 Mean heart rate variability and respiratory rate variability were computed over two peri

275 Mean maximal mitochondrial respiratory rate was 104.4 (+/-21.58) pmolO2/second/mg a

276 Tidal volume was set at 8 ml/kg, and respiratory rate was adjusted to maintain arterial Pco2

277 Respiratory rate was always 15 breaths/min.

278 When respiratory rate was controlled by artificially ventilat

279 /- 2.6 vs. 21.3 +/- 2.9 cm H2O, p <.01) when respiratory rate was decreased from 12 to 6 breaths/min

280 /- 2.8 vs. 23.3 +/- 2.6 cm H2O, p <.01) when respiratory rate was decreased from 18 to 12 breaths/min

281 1) during maximum exercise increased whereas respiratory rate was lower (28 +/- 6 versus 32 +/- 7 bre

282 ar, but refusal rate was lower, reduction in respiratory rate was more rapid, and there were fewer co

283 During the lower respiratory rate condition, respiratory rate was reduced from 30.5 +/- 3.8 to 14.2 +

284 ation, minute ventilation, tidal volume, and respiratory rate were calculated by indirect calorimetry

285 ically significant and the correlations with respiratory rate were inversely related to pH and PetCO2

286 Tidal volume and respiratory rate were recorded from the ventilator.

287 Ventilation and respiratory rate were reduced at isotime points under th

288 Changes in cardiac and respiratory rates were evaluated after establishment of

289 Respiratory rates were lower in airway pressure release

290 tochondria from Gq versus wild-type mice and respiratory rates were lower; these changes in mitochond

291 n contrast to WT hearts, complex I-dependent respiratory rates were protected against ischemic damage

292 Cardiac and respiratory rates were recorded at penetration of skin,

293 Respiratory rates were then sequentially changed every 1

294 While whole tissue respiratory rates were unaltered in roots and shoots, TC

295 r stimulation (i.e., increase in BP, HR, and respiratory rate) were located in a midline region just

296 on and acid-base status with lower-frequency respiratory rates, whereas increasingly higher respirato

297 ulla-spinal cord preparation revealed a high respiratory rate with short inspiratory duration and fre

298 ding pressure, small tidal volumes and rapid respiratory rates with the intent to recruit atelectatic

299 We hypothesised that respiratory rates would differ by fewer than 4 breaths p

300 (VEI = 3800/[peak airway pressure - PEEP] x respiratory rate x PacO2), or static compliance as compa