ライフサイエンスコーパス: resting energy expenditure

1 was used to assess respiratory quotient and resting energy expenditure.

2 n insulin resistance HOMA-IR, adiposity, and resting energy expenditure.

3 ticipants without MASLD, including increased resting energy expenditure.

4 ucose provided 50% of the patient's measured resting energy expenditure.

5 Amino acids provided 20% of the resting energy expenditure.

6 on a treadmill for 5.5 h at approximately 3x resting energy expenditure.

7 protein and energy at 1.7 times the measured resting energy expenditure.

8 r, and water, which may increase satiety and resting energy expenditure.

9 which was objectively measured as a ratio to resting energy expenditure.

10 higher DIT ( approximately 30 kJ/2.5 h) and resting energy expenditure (243 kJ/d) and an anorexigeni

11 Resting energy expenditure, although very low in low-wei

12 determine the pattern of anabolic hormones, resting energy expenditure and cytokines in severely the

13 gy expenditure resulting from both increased resting energy expenditure and locomotor activity.

14 n of ALS patients possesses higher levels of resting energy expenditure and lower fat-free mass compa

15 stimulation with propranolol would decrease resting energy expenditure and muscle catabolism in pati

16 A copy number increased significantly; also, resting energy expenditure and natural running speed imp

17 e role of hemodialysis on energy metabolism, resting energy expenditure and respiratory quotient in t

18 Resting energy expenditure and respiratory quotient were

19 t calorimetry was used to determine systemic resting energy expenditure and respiratory quotient.

20 Resting energy expenditure and sepsis were also strong p

21 Resting energy expenditure and skeletal-muscle protein k

22 The average difference between measured resting energy expenditure and the Harris-Benedict predi

23 The average difference between measured resting energy expenditure and the Talbot prediction wit

24 t-free mass, and percentage of body weight), resting energy expenditure, and adaptive thermogenesis.

25 energy they contain, a possible increment in resting energy expenditure, and an augmentation of fat o

26 Thirty-five (70%) studies reported resting energy expenditure, and approximately half (k =

27 Body composition, resting energy expenditure, and concentrations of muscle

28 uted to strong satiety properties, increased resting energy expenditure, and limited lipid bioaccessi

29 index, body composition, hip circumference, resting energy expenditure, and respiratory quotient.

30 muscle size and strength, body composition, resting energy expenditure, and skeletal muscle creatine

31 olanzapine on body weight, body composition, resting energy expenditure, and substrate oxidation as w

32 wer, and nitrogen balance and an increase in resting energy expenditure as death approached.

33 duction of adiposity resulted from increased resting energy expenditure associated with increased exp

34 oxidation, oxidative glucose metabolism, and resting energy expenditure at baseline and at high level

35 ations tend to either over- or underestimate resting energy expenditure at different phases.

36 activity level (ie, total energy expenditure/resting energy expenditure); baseline anthropometric mea

37 body mass index support a role for increased resting energy expenditure before clinical onset of ALS.

38 Outcome measures such as resting energy expenditure, body composition data (measu

39 S patients are hypermetabolic with increased resting energy expenditure, but if and how hypermetaboli

40 ations have been developed for estimation of resting energy expenditure, but no study has been done t

41 The KE group exhibited 14% greater resting energy expenditure, but the total energy expendi

42 Caloric prescription exceeded predicted resting energy expenditure by 30%-100%.

43 ion by dual-energy X-ray absorptiometry, and resting energy expenditure by indirect calorimetry.

44 king annual measures of body composition and resting energy expenditure (by indirect calorimetry) and

45 Degree of agreement between resting energy expenditure calculated by predictive equa

46 None of the resting energy expenditure calculated from predictive eq

47 Although none of the resting energy expenditure calculated from predictive eq

48 ytokine or counterregulatory hormone levels, resting energy expenditure, caloric intake, pulmonary fu

49 Changes in resting energy expenditure, cardiac function, and body c

50 t, weight, body composition, serum hormones, resting energy expenditure, cardiac function, muscle str

51 Resting energy expenditure declined by 10.5% during the

52 Resting energy expenditure decreased less with the low-g

53 Sleeping and resting energy expenditures decreased in proportion to c

54 d heart rate and percentage of the predicted resting energy expenditure, decreased accumulation of ce

55 xpenditure as these mice exhibited decreased resting energy expenditure, decreased body temperature,

56 cantly lower in the EB period (P=0.001), and resting energy expenditure did not differ significantly

57 Changes in resting energy expenditure did not differ significantly

58 ngle-bout control groups, SIT did not affect resting energy expenditure (EE: ventilated hood techniqu

59 ces were seen between measured and predicted resting energy expenditure either within or between grou

60 rospective observational study that compared resting energy expenditure estimated by 15 commonly used

61 0.002) and less closely with their measured resting energy expenditure expressed as kcal/d (r = 0.69

62 enditure from doubly labeled water minus the resting energy expenditure from indirect calorimetry, wa

63 Resting energy expenditure further increased significant

64 by using a stress-related correction to the resting energy expenditure grossly overestimate MEE.

65 ectations, fasting, a condition that reduces resting energy expenditure, has been reported to increas

66 n body mass, food intake, glucose tolerance, resting energy expenditure, hind limb muscle mass, dener

67 se, lipids, alanine, insulin resistance, and resting energy expenditure in LBW participants versus co

68 hondrial oxidative capacity while decreasing resting energy expenditure in severely burned children.

69 es could explain > 45% of the variability of resting energy expenditure in subjects 130-159% of ideal

70 Resting energy expenditure in the fed and fasting states

71 Beta-blockade decreased the heart rates and resting energy expenditure in the propranolol group, bot

72 a rebound increase in oxygen consumption and resting energy expenditure in the recovery phase of seps

73 ing brain consumes a lifetime peak of 66% of resting energy expenditure in the years preceding the AR

74 ars to be the only useful way of determining resting energy expenditure in these patients.

75 sed fasting fat oxidation (P < 0.01), whilst resting energy expenditure increased after HA and HP com

76 Overall, insulin sensitivity and resting energy expenditure increased and serum gamma-glu

77 ric (kcal/kg/day) prescription and predicted resting energy expenditure (kcal/kg/day).

78 we describe how sleep deprivation increases resting energy expenditure, leading to the development o

79 One key characteristic of cachexia is higher resting energy expenditure levels than in healthy indivi

80 emodialysis patients have higher than normal resting energy expenditure levels, which is further incr

81 cal Activity Level (total energy expenditure/resting energy expenditure </= 1.75), only 17% (n=7) of

82 iture calculated by predictive equations and resting energy expenditure measured by indirect calorime

83 nt differences (F= 3.447; p = 0.034) in mean resting energy expenditure measured by indirect calorime

84 ) with caloric intake 20% to 30% above their resting energy expenditure measured by indirect calorime

85 5 commonly used predictive equations against resting energy expenditure measured by indirect calorime

86 edictive equations differing by +/- 10% from resting energy expenditure measured by indirect calorime

87 d respiratory data had better agreement with resting energy expenditure measured by indirect calorime

88 Sigma(K(i) x T(i)), where REE is whole-body resting energy expenditure measured by indirect calorime

89 Pairwise comparison showed mean resting energy expenditure measured by indirect calorime

90 Resting energy expenditure, measured by indirect calorim

91 fter burn, height, weight, body composition, resting energy expenditure, muscle strength, and serum h

92 Neither resting energy expenditure nor respiratory quotient were

93 In contrast, resting energy expenditure (normal protein diet: 160 kca

94 y when a standard 1.5 g/kg/day protein and a resting energy expenditure of 120% to 130% of calories i

95 Because this process requires energy, the resting energy expenditure of ill patients increases.

96 ialysis patients have a significantly higher resting energy expenditure on a nondialysis day (1.18 +/

97 These mice also exhibited increased resting energy expenditure on both chow and high fat die

98 ntake, greater lipid fuel preference and non-resting energy expenditure, one-half the body fat, and b

99 tation also had no effect on blood pressure; resting energy expenditure; oxidation rates of lipid; ec

100 the postdialysis period and nondialysis day resting energy expenditure (P < 0.001 for both).

101 mpared to controls (P = 0.002) and increased resting energy expenditure (P = 0.045) and total energy

102 ased serum IL-1beta and TNF-alpha as well as resting energy expenditure, P < 0.05.

103 Resting energy expenditure (PBMR), predicted energy expe

104 showing decreases in weight, blood pressure, resting energy expenditure, percentage body fat, free tr

105 ily energy expenditure is mainly composed of resting energy expenditure, physical activity energy exp

106 Resting energy expenditure rates and those after meal in

107 The combined resting energy expenditure (REE) and handgrip strength p

108 tyrate- R-1,3-butanediol monoester increases resting energy expenditure (REE) and markers of brown an

109 Weight change affects resting energy expenditure (REE) and metabolic risk fact

110 This was a cross-sectional study in which resting energy expenditure (REE) and NB were measured an

111 energy expenditure (TEE) and its components, resting energy expenditure (REE) and physical activity e

112 determined the reproducibility of measuring resting energy expenditure (REE) and the effect on REE o

113 Resting energy expenditure (REE) and the thermic effect

114 is study was to characterize total (TEE) and resting energy expenditure (REE) and to assess the accur

115 This study compared measured with predicted resting energy expenditure (REE) and total energy expend

116 ntake from a 9835-kcal food array (n = 185), resting energy expenditure (REE) by using indirect calor

117 Resting energy expenditure (REE) can be depressed in aff

118 Measurements of resting energy expenditure (REE) can be used to determin

119 Lean mass and resting energy expenditure (REE) decrease with age.

120 Resting energy expenditure (REE) equations could noninva

121 Body composition and resting energy expenditure (REE) have not been examined

122 d feeding studies and measures of short-term resting energy expenditure (REE) have suggested that the

123 pediatric population to describe and predict resting energy expenditure (REE) in a cohort of pediatri

124 lop a clinically useful equation to estimate resting energy expenditure (REE) in adolescents with SCA

125 Resting energy expenditure (REE) in adults with untreate

126 Lower resting energy expenditure (REE) in African American wom

127 he fat-free mass (FFM)-independent change in resting energy expenditure (REE) in response to caloric

128 o analyze the influence of age and gender on resting energy expenditure (REE) in severely burned chil

129 Knowledge on resting energy expenditure (REE) in spinal muscular atro

130 Resting energy expenditure (REE) is commonly measured in

131 Accurate measurement of resting energy expenditure (REE) is helpful in determini

132 Accurate estimation of children's resting energy expenditure (REE) is important for planni

133 Previous studies showed that resting energy expenditure (REE) is lower in obese Afric

134 rate organs (HMROs) mediates variability in resting energy expenditure (REE) is unknown.

135 30-150% of estimated energy expenditure, but resting energy expenditure (REE) may be lower than expec

136 Patients with newly diagnosed CRC had resting energy expenditure (REE) measured by indirect ca

137 We previously derived a whole-body resting energy expenditure (REE) prediction model by usi

138 African Americans have a lower resting energy expenditure (REE) relative to fat-free ma

139 African Americans may have a lower resting energy expenditure (REE) than do whites, althoug

140 fat-free mass (FFM)-independent reduction of resting energy expenditure (REE) to caloric restriction

141 This study aimed to determine resting energy expenditure (REE) trajectories in hospita

142 o studies conducted in Pima Indians, in whom resting energy expenditure (REE) was found to be inverse

143 Resting energy expenditure (REE) was measured by indirec

144 Total daily energy expenditure (TDEE) and resting energy expenditure (REE) were measured and AEE w

145 erminants of total energy expenditure (TEE), resting energy expenditure (REE), and activity-related e

146 xyprogesterone acetate) affects food intake, resting energy expenditure (REE), and body weight in you

147 ences in energy balance [ie, dietary intake, resting energy expenditure (REE), and physical activity]

148 ion analyses, peak O2 consumption (VO2peak), resting energy expenditure (REE), and sex were independe

149 Resting energy expenditure (REE), body composition, and

150 The aim of this study was to assess the resting energy expenditure (REE), body composition, and

151 Resting energy expenditure (REE), but not body compositi

152 To test the hypothesis that resting energy expenditure (REE), estimated total daily

153 e to profile total energy expenditure (TEE), resting energy expenditure (REE), exercise energy expend

154 has been shown that Black women have a lower resting energy expenditure (REE), factors affecting REE

155 ossover study included serial assessments of resting energy expenditure (REE), fat and carbohydrate o

156 We examined the relation of DEE to pretrial resting energy expenditure (REE), FFM, REE derived from

157 Resting energy expenditure (REE), oxygen consumption, an

158 Secondary endpoints included resting energy expenditure (REE), plasma metabolites, an

159 (P < 0.01) and derived metabolic variables [resting energy expenditure (REE), respiratory quotient (

160 (SP) diets on weight loss, body composition, resting energy expenditure (REE), satiety and appetite,

161 ains unclear.We studied the relation between resting energy expenditure (REE), the estimated energy b

162 MAIN OUTCOME MEASURES: Primary outcome was resting energy expenditure (REE), with secondary outcome

163 cterized by loss of muscle mass and elevated resting energy expenditure (REE).

164 ect of prolonged elevation of epinephrine on resting energy expenditure (REE).

165 red continuously by using accelerometry) and resting energy expenditure (REE).

166 taneous fat and is associated with increased resting energy expenditure (REE).

167 syndromes are also associated with increased resting energy expenditure (REE).

168 s expressed as 1) unadjusted PAEE [TEE minus resting energy expenditure (REE); in MJ/d], 2) PAEE adju

169 ergy expenditure pattern was determined from resting energy expenditure (REE, n = 61 SQCP; n = 37 con

170 position (dual energy x-ray absorptiometry), resting energy expenditure (REE; indirect calorimetry),

171 , and secondarily on body composition (DXA), resting energy expenditure (REE; indirect calorimetry),

172 Results were analyzed according to the resting energy expenditure (REE; Schofield formula).

173 The 24-h resting energy expenditure (respiratory chamber) measure

174 sistance [HOMA-IR]), trunk-to-leg fat ratio, resting energy expenditure, respiratory quotient, and fa

175 In the short term, resting energy expenditure significantly decreased (p <

176 Resting energy expenditure significantly increased postt

177 Resting energy expenditure, total energy expenditure, an

178 Resting energy expenditure values calculated from predic

179 Measured resting energy expenditure was 4.72 +/- 2.53 MJ/d.

180 Resting energy expenditure was determined by indirect ca

181 as estimated by using activity monitors, and resting energy expenditure was determined by indirect ca

182 Resting energy expenditure was determined daily for < or

183 Resting energy expenditure was lower (P < 0.0001) and le

184 The resting energy expenditure was measured by indirect calo

185 Resting energy expenditure was measured by indirect calo

186 Resting energy expenditure was measured by using indirec

187 Resting energy expenditure was measured during hospital

188 y dual-energy x-ray absorptiometry biweekly, resting energy expenditure was measured weekly by ventil

189 aptive thermogenesis; however, the change in resting energy expenditure was significantly greater in

190 Resting energy expenditure was similar between control a

191 Mean physical activity level (TEE/resting energy expenditure) was 1.56 (SD 0.39) at age 3

192 ucose, lipid, and insulin concentrations and resting energy expenditure were measured before and afte

193 by using a 4-compartment model, sleeping and resting energy expenditures were assessed by using a cha

194 ss three phases and could be used to predict resting energy expenditure when indirect calorimetry is

195 onist propranolol decreases cardiac work and resting energy expenditure while increasing peripheral l

196 included in the data analysis consisting of resting energy expenditure, whole body and liver insulin

197 CE significantly increased resting energy expenditure, whole-body glucose disposal,

198 -Benedict nor the Talbot method will predict resting energy expenditure with acceptable precision for