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1 d with individual daily activity budgets and energy expenditure).
2 in is not directly attributable to increased energy expenditure.
3 bolic rate as an adaptation to limit overall energy expenditure.
4 rgy intake without a concomitant increase in energy expenditure.
5 nhanced inguinal AT browning, with increased energy expenditure.
6 hemical energy into heat, thereby increasing energy expenditure.
7 equilibrium and can only be bypassed through energy expenditure.
8 exquisite balance between energy intake and energy expenditure.
9 to increase food intake but has no effect on energy expenditure.
10 ial means of integrating energy balance with energy expenditure.
11 s in males, without sex-dependent effects on energy expenditure.
12 adipose progenitor cell transplant augments energy expenditure.
13 ry role for DRN(Vgat) neurons in controlling energy expenditure.
14 mmendations, energy intake should not exceed energy expenditure.
15 ow-carbohydrate diets substantially increase energy expenditure.
16 ht gain and insulin resistance and increases energy expenditure.
17 therefore have significant implications for energy expenditure.
18 e Cori Cycling that contributed to increased energy expenditure.
19 , B cells can balance temporary increases of energy expenditure.
20 , consuming up to two-thirds of the neuron's energy expenditure.
21 weight during dieting by modulating T(b) and energy expenditure.
22 steatosis, without weight loss or changes in energy expenditure.
23 acid cycle and citrate synthase facilitating energy expenditure.
24 d to irreversible obesity via suppression of energy expenditure.
25 sed on reducing energy intake and increasing energy expenditure.
26 energy intake was 125+/-52 kcal/d less than energy expenditure.
27 ared with 3 meals/d, meal skipping increased energy expenditure.
28 s facilitated weight gain while exacerbating energy expenditure.
29 mentia might also be associated with altered energy expenditure.
30 rn led to differences in flight activity and energy expenditure.
31 s from increased energy intake or defects in energy expenditure.
32 ion for ~ 2 weeks and had transiently higher energy expenditure.
33 y homeostasis, whereby energy intake exceeds energy expenditure.
34 ty acids to produce heat, thereby increasing energy expenditure.
35 erations increase both aerobic and anaerobic energy expenditure.
36 winds further along the route, thus reducing energy expenditure.
37 tivity levels, and resting, active and total energy expenditure.
38 xergames) may provide short-term increase in energy expenditure.
39 e compensated for even at the cost of higher energy expenditure.
40 critical roles for both basal and inducible energy expenditure.
41 sposal, lipolysis, oxidative metabolism, and energy expenditure.
42 tissue thermogenesis and increase whole-body energy expenditure.
43 re characterized by U-shapes suggesting high energy expenditure.
44 tolerance test (ITT), body composition, and energy expenditure.
45 role of human brown adipose tissue (BAT) in energy expenditure.
46 promotes increased food intake and decreased energy expenditure.
47 and energy at 1.7 times the measured resting energy expenditure.
48 y costly, and therefore limited by overnight energy expenditure.
49 , improved insulin sensitivity, and enhanced energy expenditure.
50 approaches aimed at reactivating thermogenic energy expenditure.
51 nd fatty acid oxidation, thereby attenuating energy expenditure.
52 respiratory exchange ratios, and whole-body energy expenditure.
56 ping metabolic rate (SMR) and 24-h sedentary energy expenditure (24h-EE) were measured before and aft
57 /-) mice on a high-fat diet showed increased energy expenditure accompanying by reduced obesity, and
58 as adjusted their body temperature and daily energy expenditure according to environmental conditions
59 ascicle contraction mechanics and whole-body energy expenditure across three walking speeds (1.25, 1.
60 al metabolic functions in energy storage and energy expenditure, adipose tissue is also a dynamic end
62 alter nutrition requirements by upregulating energy expenditure, altering substrate metabolism, and a
63 ed glucose and insulin tolerance and reduced energy expenditure and 18FDG-PET uptake in brown adipose
64 high-fat-diet-induced weight gain, increased energy expenditure and ameliorated insulin resistance, a
65 metabolic disease models result in increased energy expenditure and amelioration of high-fat-diet-ind
66 The Foxp1-deficient mice show an augmented energy expenditure and are protected from diet-induced o
67 role for hepatocyte p53 in the regulation of energy expenditure and body weight and suggest that VSG
69 acute cold exposure, as do increases of both energy expenditure and energy intake, suggesting the mer
70 tion of Ucp1 blocked LP-induced increases in energy expenditure and food intake, and exacerbated LP-i
71 adipose tissue uncoupling protein 1 (UCP1), energy expenditure and food intake, and these effects re
73 orial approaches targeting feeding circuits, energy expenditure and glucose metabolism in concert are
74 to clearly ascertain whether the changes in energy expenditure and homeostatic appetite markers seen
75 ance, leading to increased whole-body muscle energy expenditure and improved physical endurance, with
77 ediol diacetoacetate (BD-AcAc(2)), increases energy expenditure and markers of adipose tissue thermog
78 measurements provide an important readout of energy expenditure and mitochondrial activity in plant c
80 ing transplantation, BAs increase whole-body energy expenditure and oxygen consumption, while reducin
81 ach condition, we quantified athlete aerobic energy expenditure and performed biomechanical analyses,
83 imultaneously impacting their energy intake, energy expenditure and predation risk, and collectively
84 although silencing the broader VMN decreased energy expenditure and promoted weight gain without alte
85 p4-Cre improves cold tolerance and increases energy expenditure and protects against diet-induced obe
86 after fibre intake, increased fat oxidation, energy expenditure and PYY, and decreased lipolysis in o
87 t1 KO mice also displayed reduced whole-body energy expenditure and reduced mitochondrial oxygen cons
89 e participants underwent 24-h assessments of energy expenditure and respiratory quotient (RQ) in a wh
92 ences between men and women in the change in energy expenditure and substrate utilisation, suggests n
94 The central clock regulates food intake, energy expenditure and whole-body insulin sensitivity, a
99 revealed alterations in locomotor activity, energy expenditure, and daily food intake that are consi
100 intake required to compensate for increased energy expenditure, and data on food-related GHG emissio
101 sity, improved insulin sensitivity, enhanced energy expenditure, and fat depot-specific cellular remo
103 gatively impact fish growth due to its large energy expenditure, and future studies are warranted.
104 o mice showed reduced body weight, increased energy expenditure, and improved glucose tolerance on ch
105 that a LP diet promotes leanness, increases energy expenditure, and improves glycemic control equall
106 ) in mice impaired cold tolerance, decreased energy expenditure, and increased diet-induced obesity.
107 ved glucose tolerance, increased metabolism, energy expenditure, and locomotor activity, along with i
109 re (REE), exercise energy expenditure, sleep energy expenditure, and respiratory quotient in women at
110 mutation, a common MH mutation in humans, on energy expenditure, and voluntary wheel running in mice.
111 tion or increased activity, but by increased energy expenditure, and was accompanied by a transient i
113 ulates the sympathetic nervous system (SNS), energy expenditure, and weight loss; however, the underl
116 sought to determine if body temperature and energy expenditure are influenced by a cholinergic input
117 the homeostatic appetite control system and energy expenditure, are in fact a normalization to a low
118 to the planar 1D wave, and also compute the energy expenditure associated with the recurrent SD spir
121 oes not determine binding order but, rather, energy expenditure away from thermodynamic equilibrium.
124 reeds) exhibits seasonal adjustment of their energy expenditure, body temperature and locomotion, und
125 ave been developed for estimation of resting energy expenditure, but no study has been done to compar
126 metry has proven a powerful tool to estimate energy expenditure, but requires calibration in the wild
127 iated with loss of body weight and increased energy expenditure, but whether it can activate UCP1 is
128 ate lipid metabolism, insulin secretion, and energy expenditure by activating targets such as PPARalp
133 er, the FGF21-dependent increase in UCP1 and energy expenditure by LP has no effect on the ability to
135 ncreased locomotor activity (an indicator of energy expenditure) by 20% and 38%, respectively, compar
139 ges in overnight conditions -which may alter energy expenditure -can influence early morning calling
141 und that increased energy intake and reduced energy expenditure contributed equally to greater adipos
142 The linkage of device-measured activity to energy expenditure creates a framework for using wearabl
143 s use lactate to make glucose at the cost of energy expenditure, creating a futile intestine-liver cy
147 ed rates of glucose oxidation with increased energy expenditure, despite reduced overall food intake.
151 ct time does not explain variance in rate of energy expenditure during locomotion, once speed and bod
152 eir background metabolic rate to limit daily energy expenditure during periods when other energy cost
153 lates to shoes soles reduces athlete aerobic energy expenditure during running (improves running econ
155 o the molecular origins of eating behaviour, energy expenditure, dyslipidaemia and insulin resistance
156 le knockout mice, characterized by decreased energy expenditure (EE) and decreased expression of unco
157 ibroblast growth factor 21 (FGF21) regulates energy expenditure (EE) and influences weight change dur
158 abolic adaptation, defined as an increase in energy expenditure (EE) beyond what is expected with wei
161 e in which energy intake chronically exceeds energy expenditure (EE), and prevention and treatment st
162 e were accompanied by increased FI and lower energy expenditure (EE), leading to obesity, along with
165 ve observational study that compared resting energy expenditure estimated by 15 commonly used predict
167 is driven by reduced food intake, increased energy expenditure, excess catabolism, and inflammation.
168 low protein (LP) diets to assess changes in energy expenditure, food intake and other metabolic endp
170 cronutrient distribution on thermogenesis or energy expenditure for weight loss and maintenance.
172 ANCOVA and with Chair Stand repetitions and energy expenditure from total PA with multivariable line
173 factors that affect the link between DBA and energy expenditure, from the deployment of the tag, thro
174 de novo lipogenesis, culminating in reduced energy expenditure, glucose tolerance, and insulin sensi
175 cine) supplementation is often beneficial to energy expenditure; however, increased circulating level
176 ulties in feeding during infancy and reduced energy expenditure, hyperphagia, and developmental delay
178 y reveals how higher-order cooperativity and energy expenditure impact boundary location and sharpnes
179 Furthermore, the mice exhibited decreased energy expenditure, impaired lipid metabolism, and insul
180 mice with putative NURR1 agonists increases energy expenditure, improves glucose tolerance, and conf
181 we collected heart rate data as a proxy for energy expenditure in 52 known individual grey seal (Hal
185 y lead to a therapeutic strategy to increase energy expenditure in obesity and related metabolic diso
186 ing may be an important strategy to increase energy expenditure in obesity, however, brown adipose ti
187 celerometry can be used to reliably estimate energy expenditure in penguins, and we provide calibrati
189 ity were accompanied by higher REE and total energy expenditure in the KE group compared to PF after
191 ater understanding of the physiology driving energy expenditure in the postpartum period is needed to
193 n consumes a lifetime peak of 66% of resting energy expenditure in the years preceding the AR, and br
195 e, blood flow, adipocyte differentiation and energy expenditure, including adipose browning to produc
196 gets implicated in the central regulation of energy expenditure, including the hypothalamus and exten
198 r example, reducing protein intake increases energy expenditure, increases insulin sensitivity and de
199 p obesity, along with reduced metabolism and energy expenditure, independent of estradiol levels.
200 sed plasma triglyceride levels and decreased energy expenditure, indicating a less favorable metaboli
201 an osteoblast-derived hormone that increases energy expenditure, insulin sensitivity, insulin secreti
202 ents modulating feeding-related behavior and energy expenditure is crucial to combating obesity and i
203 ments revealed that the largest variation in energy expenditure is due to body composition, ambient t
206 e significantly elevated metabolic rates and energy expenditure leading to lower body weights and low
208 al studies, leptin treatment does not affect energy expenditure, lipid utilization, SNS activity, hea
209 We estimated year-round activity budgets, energy expenditure, location, colony attendance and fora
210 at: (i) lactating humpback whales keep their energy expenditure low by devoting a significant amount
211 t in eukaryotes, chromatin accessibility and energy expenditure may call for a different framework.
213 rences (F= 3.447; p = 0.034) in mean resting energy expenditure measured by indirect calorimetry amon
214 ly used predictive equations against resting energy expenditure measured by indirect calorimetry at d
215 atory data had better agreement with resting energy expenditure measured by indirect calorimetry comp
216 Pairwise comparison showed mean resting energy expenditure measured by indirect calorimetry in l
217 equations differing by +/- 10% from resting energy expenditure measured by indirect calorimetry was
218 lculated by predictive equations and resting energy expenditure measured by indirect calorimetry was
220 e concentrated on the mechanisms involved in energy expenditure, most notably adaptive thermogenesis.
221 difference was found in resting or sleeping energy expenditure, normalised to lean tissue weight (p
224 gvisomant) attenuates the fall of whole-body energy expenditure of food-deprived mice, similarly as s
227 t negative reciprocity can arise either from energy expenditure or from a mixture of positive and neg
233 estigated how device-based physical activity energy expenditure (PAEE) and different intensity profil
234 ng protein synthesis, the error rate and the energy expenditure per peptide bond is proven to be inde
236 epigenetically impairs BAT thermogenesis and energy expenditure, predisposing offspring to metabolic
240 tigated the phylogenetic correlation between energy expenditure rate and foot contact time, condition
241 R-1,3-butanediol monoester increases resting energy expenditure (REE) and markers of brown and white
242 udy compared measured with predicted resting energy expenditure (REE) and total energy expenditure (T
243 c population to describe and predict resting energy expenditure (REE) in a cohort of pediatric patien
245 atients with newly diagnosed CRC had resting energy expenditure (REE) measured by indirect calorimetr
246 file total energy expenditure (TEE), resting energy expenditure (REE), exercise energy expenditure, s
251 [HOMA-IR]), trunk-to-leg fat ratio, resting energy expenditure, respiratory quotient, and fasting gl
252 e effect of hepatocyte p53 ablation to lower energy expenditure, resulting in a greater improvement i
253 , resting energy expenditure (REE), exercise energy expenditure, sleep energy expenditure, and respir
254 capsulated placebo mixture, measurements of energy expenditure, substrate oxidation, core temperatur
255 gates differences in pre- to post-expedition energy expenditure, substrate utilisation and body compo
256 oid IIA+ mice did not increase; however, the energy expenditure, substrate utilization, insulin sensi
258 rmine the optimal method of estimating total energy expenditure (TEE) in adults (aged >=65 y) through
260 current space agency requirements upon total energy expenditure (TEE), oxygen (O(2)) consumption, car
261 The aims of this study were to profile total energy expenditure (TEE), resting energy expenditure (RE
262 ased orexigenic drive to eat and the reduced energy expenditure that follow weight loss are the main
263 s of transport (e.g. driving) have increased energy expenditure that may be compensated with increase
264 from an imbalance between caloric intake and energy expenditure that promotes adipose tissue expansio
265 formin had effects on both energy intake and energy expenditure that were dependent on GDF15, but ret
266 s the two sessions did not differ in overall energy expenditure, the respiratory exchange ratio (RER)
267 chondrial oxidative metabolism and increases energy expenditure, thereby improving glucose control.
268 n of the PVH decreases feeding and increases energy expenditure, thereby promoting negative energy ba
269 in mitochondria and plays important roles in energy expenditure, thermogenesis, and glucose homeostas
270 by ambient heat and bidirectionally regulate energy expenditure through changes in both thermogenesis
271 The ability of adipose tissue to undergo energy expenditure through heat generation is termed ada
272 acultative incorporation into UCP1, elevated energy expenditure through thermogenic adipose tissue, a
274 rowth and development, regulation of stress, energy expenditure, tissue compound, and psychological p
277 he differences in metabolites generated from energy expenditure, tri-carboxylic acid cycle, tocophero
278 y to adjust their body temperature and daily energy expenditure under adverse environmental condition
280 refore, cafestol increased fat oxidation and energy expenditure via DAF-12-dependent pathway in C. el
281 expression in hypothalamic neurons controls energy expenditure via sympathetic control of adipose ti
282 he following: low lean mass, exhaustion, low energy expenditure, walking limitations, and weakness.
287 e to chronic G(q) signaling in AgRP neurons, energy expenditure was not altered but adiposity and lip
290 sed to lean tissue weight (p > 0.05); nor in energy expenditure when exercising at 80, 100 and 120 st
291 phases and could be used to predict resting energy expenditure when indirect calorimetry is not avai
292 een reported to significantly increase human energy expenditure when measured using doubly labeled wa
293 e resource acquisition rates with respect to energy expenditure, which may involve alteration of stra
294 that individual variation in childhood brain energy expenditure will help explain variation in the ti
295 re) mice exhibited increased food intake and energy expenditure with no net effect on body weight.
296 nd by the percentage of women with predicted energy expenditure within 10% of measured values ("accur
299 Y involved in the neurological regulation of energy expenditure) without any effects on lipogenesis,