ライフサイエンスコーパス: energy homeostasis

1 link between intracellular Ca(2+) levels and energy homeostasis.

2 nrecognized and influential positive role in energy homeostasis.

3 al delivery) for controlling an imbalance in energy homeostasis.

4 a new pathway through which MRAP2 regulates energy homeostasis.

5 d of ways the gut microbiota influences host energy homeostasis.

6 ing the importance of SF-1 in the control of energy homeostasis.

7 rtant role in the hypothalamic regulation of energy homeostasis.

8 is and, ultimately, for maintaining systemic energy homeostasis.

9 ocortin-4 receptor circuitry and its role in energy homeostasis.

10 inhibition in the brain improves glucose and energy homeostasis.

11 long time periods, such as those involved in energy homeostasis.

12 viability, stress response, metabolism, and energy homeostasis.

13 cular importance for an organism to maintain energy homeostasis.

14 l nucleus of the hypothalamus that regulates energy homeostasis.

15 tudies indicate that AHR is also involved in energy homeostasis.

16 e brain to adjust iBAT activity and maintain energy homeostasis.

17 on lipid droplets' biology and their role in energy homeostasis.

18 its well established function in regulating energy homeostasis.

19 of appetite, food intake and maintenance of energy homeostasis.

20 stible dietary components, have key roles in energy homeostasis.

21 synthesized by several organs and regulates energy homeostasis.

22 xis is of great importance in the control of energy homeostasis.

23 g to food availability is a key question for energy homeostasis.

24 de and a family of metabolites that regulate energy homeostasis.

25 ochondrial oxidative capacity and whole-body energy homeostasis.

26 major energy sensor that maintains cellular energy homeostasis.

27 progression and in metabolic regulation and energy homeostasis.

28 s vitamin D to the regulation of glucose and energy homeostasis.

29 memory, mood, anxiety, pain sensitivity, and energy homeostasis.

30 e that plays a prominent role in feeding and energy homeostasis.

31 e represents a critical component in healthy energy homeostasis.

32 of the brain that mediate ERalpha-dependent energy homeostasis.

33 ormally associated with feeding behavior and energy homeostasis.

34 an glucose storage cache and is critical for energy homeostasis.

35 has a fundamental role in the regulation of energy homeostasis.

36 its potentially substantial contributions to energy homeostasis.

37 trigger responses in key signals involved in energy homeostasis.

38 of autonomic neural circuits responsible for energy homeostasis.

39 , which further supports the role of mTOR in energy homeostasis.

40 factor that functions as a key regulator of energy homeostasis.

41 targets has helped explain how AMPK restores energy homeostasis.

42 es for adipocyte-derived 5-HT in controlling energy homeostasis.

43 c and promotes catabolic processes to regain energy homeostasis.

44 m the MeA recapitulated these alterations in energy homeostasis.

45 hat are associated with lipid metabolism and energy homeostasis.

46 mone leptin, which regulates food intake and energy homeostasis.

47 se tissue and play a key role in maintaining energy homeostasis.

48 ggests peripheral 5-HT may affect organismal energy homeostasis.

49 s a key role in the regulation of whole-body energy homeostasis.

50 unicates with peripheral tissues to maintain energy homeostasis.

51 ch as host defense signaling, cell fate, and energy homeostasis.

52 ssion and might be important for maintaining energy homeostasis.

53 several processes within the cell to restore energy homeostasis.

54 in animal experiments to modulate eating and energy homeostasis.

55 vestigate the role of AHR in fatty liver and energy homeostasis.

56 itochondrial deacetylase, has been linked to energy homeostasis.

57 These include controlling appetite and energy homeostasis.

58 ients upon starvation and maintains cellular energy homeostasis.

59 tissues to facilitate digestion and regulate energy homeostasis.

60 d acts to ensure normal bone acquisition and energy homeostasis.

61 a kinase that classically regulates cellular energy homeostasis.

62 ed broad role for glycogen in the control of energy homeostasis.

63 products may have nonredundant functions in energy homeostasis.

64 demonstrating a detrimental effect of age on energy homeostasis.

65 generates physiological behaviors to promote energy homeostasis.

66 estral mechanism for the control of systemic energy homeostasis.

67 is known to play a critical role in hepatic energy homeostasis.

68 role of neuronal microRNAs in the control of energy homeostasis.

69 crine network critical for regulating global energy homeostasis.

70 for the control of food intake, reward, and energy homeostasis.

71 ical roles in the control of food intake and energy homeostasis.

72 es and functions physiologically to maintain energy homeostasis.

73 E10A in the regulation of caloric intake and energy homeostasis.

74 gestion, insulin secretion, food intake, and energy homeostasis.

75 lready are known to regulate food intake and energy homeostasis.

76 iple signaling pathways to maintain cellular energy homeostasis.

77 key determinant of whole body metabolism and energy homeostasis.

78 contributing to the maintenance of cellular energy homeostasis.

79 g a role for WAT clocks in the regulation of energy homeostasis.

80 ch that controls brown adipose cell fate and energy homeostasis.

81 1a) to influence cardiovascular function and energy homeostasis.

82 n the brain to suppress feeding and maintain energy homeostasis.

83 e-body BAT activity for thermoregulation and energy homeostasis.

84 tiple metabolic pathways to warrant systemic energy homeostasis.

85 es indispensable for maintenance of cellular energy homeostasis.

86 re play essential roles in the regulation of energy homeostasis.

87 mic MANF influences food intake and systemic energy homeostasis.

88 the brain's hypothalamus where it regulates energy homeostasis.

89 key role in regulating food consumption and energy homeostasis.

90 ontrol of feeding-related traits involved in energy homeostasis.

91 he body, plays a critical role in regulating energy homeostasis.

92 d carbohydrate metabolic pathways as well as energy homeostasis.

93 enzyme responsible for maintaining cellular energy homeostasis.

94 patic glycogen stores and whole-body glucose/energy homeostasis.

95 ate that endothelial Lrp1 regulates systemic energy homeostasis.

96 role of endothelium in maintaining systemic energy homeostasis.

97 ine kinase whose activity maintains cellular energy homeostasis.

98 een eating behaviour, autonomic function and energy homeostasis.

99 uronal circuits that control food intake and energy homeostasis.

100 astrocytes is required to centrally regulate energy homeostasis.

101 ondrial biogenesis and autophagy to maintain energy homeostasis.

102 nsmission, pancreatic beta-cell function and energy homeostasis.

103 y cyclin D1 may couple cell proliferation to energy homeostasis.

104 halamic glucose detection and the control of energy homeostasis.

105 mus play a pivotal role in the regulation of energy homeostasis.

106 ant pathophysiological mediator in sleep and energy homeostasis.

107 metabolic signals such as glucose to control energy homeostasis.

108 es an ancestral mechanism governing systemic energy homeostasis.

109 entral circuits and mechanisms that modulate energy homeostasis.

110 involved in maintaining systemic glucose and energy homeostasis.

111 om the stomach and regulates food intake and energy homeostasis.

112 been implicated in the neural regulation of energy homeostasis across vertebrate phyla.

113 These results indicate that energy homeostasis alters postnatal hGH synthesis throug

114 ases, such as disturbed cellular calcium and energy homeostasis and accumulation of toxic metabolites

115 iota and the eCB system in the regulation of energy homeostasis and adipose tissue inflammation and m

116 transcription factors mainly responsible for energy homeostasis and bile acid metabolism in the liver

117 rmogenesis, suggesting an additional role in energy homeostasis and body weight regulation.

118 eptor is a critical coordinator of mammalian energy homeostasis and body weight.

119 eric protein that plays an important role in energy homeostasis and cardioprotection.

120 roteasome system plays a role in maintaining energy homeostasis and cell survival during energy starv

121 ubiquitin-independent process in maintaining energy homeostasis and cell viability under starvation c

122 in diverse physiological functions, such as energy homeostasis and cognition.

123 e peptide 1 (GLP-1) is a strong moderator of energy homeostasis and communication between the periphe

124 an organ-specific manner to maintain cardiac energy homeostasis and determines cardiac physiological

125 ecause of the critical role ghrelin plays in energy homeostasis and dopamine-dependent reward.

126 ritical neural substrate for GLP-1 impact on energy homeostasis and expands the current map of brain

127 MC4R is a critical regulator of energy homeostasis and food intake in the hypothalamus.

128 a activity in neutrophils impairs both their energy homeostasis and function.

129 olism is intimately linked to the control of energy homeostasis and glucose and lipid metabolism.

130 irus interaction explain how HCV alters host energy homeostasis and how it may also contribute to the

131 n microglial activation in the modulation of energy homeostasis and identify CX3CR1 signalling as a p

132 ge, but as an important central regulator in energy homeostasis and immunity.

133 or these metabolites in maintaining cellular energy homeostasis and in controlling signal transductio

134 otein 2 (MRAP2) is an important regulator of energy homeostasis and its loss causes severe obesity in

135 muscle metabolism, regulation of whole body energy homeostasis and lipid metabolism.

136 pivotal role in regulating major aspects of energy homeostasis and lipid metabolism.

137 ificant long-term effects on somatic growth, energy homeostasis and metabolic function in offspring.

138 arily conserved protein kinase implicated in energy homeostasis and metabolic regulation across eukar

139 Control of energy homeostasis and metabolism is achieved by integra

140 re (HF) is characterized by perturbations in energy homeostasis and metabolism.

141 mechanisms, including regulation of cellular energy homeostasis and modification of synergistic and/o

142 in regulating skin integrity and whole body energy homeostasis and offers a discussion of potential

143 Energy homeostasis and oncogenic signaling are critical

144 movements are tightly controlled to maintain energy homeostasis and prevent oxidative stress.

145 ostatin in the heart for maintaining cardiac energy homeostasis and preventing cardiac hypertrophy.

146 determine whether SLC13A5 regulates hepatic energy homeostasis and proliferation of hepatoma cells.

147 s crucial for the control of wakefulness and energy homeostasis and promotes, in OX-1R-expressing cel

148 lateral hypothalamic area (LHA) to maintain energy homeostasis and regulate food intake behavior.

149 activity, thus playing an important role in energy homeostasis and regulation of appetite.

150 data show that p32 plays a critical role in energy homeostasis and represents a potential novel targ

151 uronal populations are central regulators of energy homeostasis and reproductive function.

152 their effectiveness in maintaining cellular energy homeostasis and resistance to injury.

153 of AMPK, failed to activate AMPK and sustain energy homeostasis and resulted in apoptosis.

154 othesized that 1) brain circuits involved in energy homeostasis and reward show different functional

155 , each probing a distinct network related to energy homeostasis and reward, between obese subjects an

156 ce in a leptin-deficient background improves energy homeostasis and slows disease progression.

157 reased oxidative capacity defends whole-body energy homeostasis and suggest that the interplay betwee

158 mechanistic insights into how UGN influences energy homeostasis and suggests that UGN action in the b

159 The intestinal microbiome can regulate host energy homeostasis and the development of metabolic dise

160 velopment of neural circuits responsible for energy homeostasis and the integration of autonomic refl

161 results indicate that plasma uridine governs energy homeostasis and thermoregulation in a mechanism i

162 ds in lipid droplets (LDs) are essential for energy homeostasis and tightly coupled to cellular metab

163 host-adaptive responses to the regulation of energy homeostasis and tissue inflammation and has thera

164 sity develops in response to an imbalance of energy homeostasis and whole-body metabolism.

165 metabolic dysfunction suggests a failure of energy homeostasis and/or oxidative stress, specifically

166 an important role in xenobiotic metabolism, energy homeostasis, and cell proliferation.

167 its profound effects on oxygen utilization, energy homeostasis, and glucose metabolism in mammalian

168 gut-derived GLP-1's effects on food intake, energy homeostasis, and glycemic control.

169 halamus is the central regulator of systemic energy homeostasis, and its dysfunction can result in ex

170 ificant long-term effects on somatic growth, energy homeostasis, and metabolic function in offspring.

171 ch as circadian time, previous neuron usage, energy homeostasis, and stress and growth status to gene

172 The hormone leptin plays a key role in energy homeostasis, and the absence of either leptin or

173 MENTATION1-RELATED KINASE1 involved in sugar/energy homeostasis, and the posttranslational regulation

174 They are critical for lipid metabolism and energy homeostasis, and their dysfunction has been linke

175 sis, in part by regulating lipid metabolism, energy homeostasis, and tissue remodeling.

176 e that the effects of FTO-associated SNPs on energy homeostasis are due in part to the effects of the

177 ral connections with neurons, their roles in energy homeostasis are less known.

178 that other GPCRs involved in the control of energy homeostasis are likely to be regulated by MRAP2.

179 While the neural circuits controlling energy homeostasis are well-characterized, the signals c

180 potential for ambient temperature to affect energy homeostasis as well as adrenergic stress, both of

181 essential roles in fatty acid catabolism and energy homeostasis as well as cell differentiation, infl

182 that proliferating cells require to maintain energy homeostasis as well as to build plasma membranes

183 f the key hypothalamic neurons in control of energy homeostasis assigns noradrenalin an important rol

184 Adropin is a peptide hormone encoded by the Energy Homeostasis Associated (ENHO) gene whose physiolo

185 catabolism and ATP consumption, it maintains energy homeostasis at a cell-autonomous level.

186 oratory settings, neural systems involved in energy homeostasis bias foraging to maximize energy effi

187 These mice displayed normal energy homeostasis but developed late-onset glucose into

188 LDs are important in the maintenance of energy homeostasis, but the signaling mechanisms that st

189 and 4 receptors (MC3R and MC4R) can regulate energy homeostasis, but their respective roles especiall

190 el role of EWS in mitochondrial and cellular energy homeostasis by controlling PGC-1alpha protein sta

191 several beneficial effects on metabolism and energy homeostasis by controlling size, enzymatic activi

192 plays a unique role in regulating whole-body energy homeostasis by dissipating energy through thermog

193 ted protein kinase (AMPK) regulates cellular energy homeostasis by inhibiting anabolic and activating

194 ay explain unusual aspects of the control of energy homeostasis by melanocortin signalling, including

195 ed in the control of glucose utilization and energy homeostasis by orchestrating pancreatic hormone r

196 at Crtc and its binding partner CREB enhance energy homeostasis by stimulating the expression of shor

197 vated protein kinase (AMPK), which regulates energy homeostasis by suppressing anabolic and activatin

198 reveal a new set of behaviors coupled to the energy homeostasis circuit and suggest potential therape

199 astrointestinal system communicate to govern energy homeostasis, combined with emerging insights on t

200 Maintenance of energy homeostasis depends on the highly regulated stora

201 ta as a key factor orchestrating the overall energy homeostasis during increased demand.

202 at TEAD4 plays a crucial role in maintaining energy homeostasis during preimplantation development.

203 essential physiological functions including energy homeostasis, embryonic and postembryonic developm

204 The distinct role in whole-body energy homeostasis establishes the PKCdelta signalosome

205 ANCE STATEMENT Evolutionary pressure driving energy homeostasis favored detection and comparison of c

206 Obesity develops as a result of altered energy homeostasis favoring fat storage.

207 Energy homeostasis, food intake, and body weight are reg

208 The melanocortin receptors 3 and 4 control energy homeostasis, food-intake behavior, and correlated

209 pothalamic regions, suggesting a function in energy homeostasis for these neurons.

210 nes with functions related to metabolite and energy homeostasis, glucose and insulin signaling and be

211 nd exposure to different nutrition influence energy homeostasis in a rat model.

212 detector of the internal metabolic state or energy homeostasis in addition to its classical function

213 well known for its role in the regulation of energy homeostasis in adults, a mechanism that at least

214 Regulation of food intake is fundamental to energy homeostasis in animals.

215 but is fundamentally important for lipid and energy homeostasis in animals.

216 otein kinase (AMPK) is a master regulator of energy homeostasis in eukaryotes.

217 Mechanistically, RANK rewires energy homeostasis in human and murine lung cancer cells

218 es and is crucial for regulating satiety and energy homeostasis in humans and animals.

219 consistent effects of MCHR1 polymorphisms on energy homeostasis in humans may partly be attributable

220 neurons known to be involved in feeding and energy homeostasis in mammals show conserved distributio

221 ) promotes early improvements in glucose and energy homeostasis in obese diabetic patients.

222 To determine the effect of age on energy homeostasis in response to experimental hyperthyr

223 MPK), a key sensor and regulator of cellular energy homeostasis in response to metabolic stresses.

224 munication is critical to control organismal energy homeostasis in response to temporal changes in fe

225 lopmental programming and disrupts offspring energy homeostasis in rodents.

226 g the effects of cross-system changes in the energy homeostasis in stomach tissue are scarce.

227 ssue during development, thereby influencing energy homeostasis in the adult.

228 important role in maintaining metabolic and energy homeostasis in the cell.

229 fatty acids and is essential for maintaining energy homeostasis in the human body.

230 critical to maintain cellular metabolism and energy homeostasis in Tregs.

231 ulation disrupts mitochondrial integrity and energy homeostasis in vivo.

232 is highly expressed in tissues that regulate energy homeostasis, including adipose tissue, liver, and

233 ll as regions of the mouse brain involved in energy homeostasis, including hypothalamus and brainstem

234 t AMPK inhibitor and a critical regulator of energy homeostasis, including lipid and glucose metaboli

235 ich AMPK could potentially maintain cellular energy homeostasis independently of Thr172 phosphorylati

236 ling blocks the influence of maternal HFD on energy homeostasis, inflammation, and hypothalamic and l

237 Signals of energy homeostasis interact closely with neural circuits

238 We review how signals of energy homeostasis interact with these regions to influe

239 Altered brain energy homeostasis is a key adaptation occurring in the

240 In normal cells, energy homeostasis is controlled by AMPK; however, its r

241 Maintaining energy homeostasis is crucial for the survival and healt

242 Maintenance of energy homeostasis is essential for cell survival.

243 suggest the regulatory role of this miRNA in energy homeostasis is highly conserved.

244 diate the effect of this nuclear receptor on energy homeostasis is unknown.

245 a vital role in controlling food intake and energy homeostasis; its activity is modulated by neurope

246 lysis by insulin is important for whole-body energy homeostasis; its disruption has been implicated a

247 ellular survival depends upon maintenance of energy homeostasis, largely by AMP-activated protein kin

248 severe cardiac hypertrophy with deregulated energy homeostasis leading to dilated cardiomyopathy in

249 and this Sarm1-MAPK pathway disrupts axonal energy homeostasis, leading to ATP depletion before phys

250 Several microRNAs (miRNAs) are involved in energy homeostasis, lipid metabolism, and HFD-induced we

251 that MRAP2 is an important modulator of the energy homeostasis machinery that operates through the r

252 olecular networks, how pathways that control energy homeostasis may affect cell fate decisions is lar

253 the Mfn1 gene (Mfn1LKO) and monitored their energy homeostasis, mitochondrial function, and suscepti

254 ceptor expression in brain areas involved in energy homeostasis, namely the hypothalamus and brainste

255 olymorphisms in genes of key hormones of the energy homeostasis network that have been shown to predi

256 It is involved in the overall energy homeostasis not only as passive energy storage bu

257 composition and play a critical role in the energy homeostasis of all tissues.

258 etabolic pathways responsible for regulating energy homeostasis of cancer cells.

259 To maintain energy homeostasis, orexigenic (appetite-inducing) and a

260 is a transcriptional coregulator involved in energy homeostasis, ovulation, and mammary gland develop

261 ur data show that AHR contributes to hepatic energy homeostasis, partly through the regulation of FGF

262 control of reproduction (Rfrp and Kiss1) and energy homeostasis (Pomc, Npy, and Somatostatin) are reg

263 Highlighted genes implicate cellular energy homeostasis, post-transcriptional gene silencing

264 lting in impaired function of these critical energy homeostasis-regulating neurons.

265 However, the primary mediators that affect energy homeostasis remain ill defined.

266 reased muscle PLIN5 expression on whole-body energy homeostasis remains unclear.

267 nce of FSP27 in adipose tissue on whole-body energy homeostasis remains unclear.

268 R stress pathways underlie ATM regulation of energy homeostasis remains unclear.

269 Disruptions in energy homeostasis severely affect reproduction in many

270 involving several neuropeptides that control energy homeostasis, suggesting that variations in the ge

271 ction has been linked to the deregulation of energy homeostasis, the precise mechanism is poorly unde

272 odulates lipid metabolism and the control of energy homeostasis; therefore, PPARdelta agonists are pr

273 uscle plays a central role in the control of energy homeostasis through consumption of energy and sig

274 ortant role of ARC glia in the regulation of energy homeostasis through its interaction with distinct

275 Genes encoding proteins that regulate energy homeostasis through lipolysis are thus likely to

276 Intestine contributes to energy homeostasis through the absorption, metabolism, a

277 Lipolysis regulates energy homeostasis through the hydrolysis of intracellul

278 n 2 (MRAP2) was previously shown to regulate energy homeostasis through the modulation of the activit

279 he role of SLC13A5 from facilitating hepatic energy homeostasis to influencing hepatoma cell prolifer

280 The pathophysiological relevance of abnormal energy homeostasis to motor neuron disease remains uncle

281 egulate the hepatic acute phase response and energy homeostasis under stress conditions.

282 thereby tailor protein synthesis to maintain energy homeostasis under stress conditions.

283 changes central to mechanisms of growth and energy homeostasis universal to hyperphagia-associated c

284 determined the role of LepRb(POA) neurons in energy homeostasis using cre-dependent viral vectors to

285 through which beige fat controls whole-body energy homeostasis via Ca(2+) cycling.

286 Neuronal sNPF was found to promote energy homeostasis via gut enterocyte sNPF receptors, wh

287 to chronic caloric excess and maintenance of energy homeostasis via integration of metabolic and immu

288 IEX-1 is a novel physiological regulator of energy homeostasis via its action in WAT.

289 bone and that the skeleton influences global energy homeostasis via mechanisms independent of osteoca

290 meostasis via the paraventricular nuclei and energy homeostasis via the arcuate nuclei.

291 cuate nucleus, one key center for control of energy homeostasis, via specific adeno-associated virus

292 e role of peptide YY (PYY) as a regulator of energy homeostasis was first highlighted only in 2002, o

293 ppaB signaling in the control of glucose and energy homeostasis, we genetically inhibited this pathwa

294 ssion of genes involved in the regulation of energy homeostasis were found to relate to fetal growth

295 e main cause of obesity is a perturbation in energy homeostasis, whereby energy intake exceeds energy

296 espite the emerging importance of SLC13A5 in energy homeostasis, whether perturbation of SLC13A5 affe

297 s a key regulator of cellular and whole-body energy homeostasis, which acts to restore energy homoeos

298 ps1 is endowed with a regulatory function in energy homeostasis, which is essential to withstand adve

299 is a protein kinase involved in maintaining energy homeostasis within cells.

300 ntral to melanocortin-mediated regulation of energy homeostasis within the PVN.