ライフサイエンスコーパス: brown adipose tissue

1 e by increasing energy-utilizing thermogenic brown adipose tissue.

2 re and to avoid fluorodeoxyglucose uptake in brown adipose tissue.

3 strogen-related receptor alpha (ERRalpha) in brown adipose tissue.

4 ion recovers metabolic activity of offspring brown adipose tissue.

5 and increased thermogenic gene expression in brown adipose tissue.

6 ochondrial function, energy expenditure, and brown adipose tissue.

7 n of uncoupling protein 1 (UCP1) and UCP3 in brown adipose tissue.

8 anocortins, modelled on the brain control of brown adipose tissue.

9 lar, perirenal, epididymal, subcutaneous and brown adipose tissue.

10 is, thermogenesis, and browning of white and brown adipose tissue.

11 d energy expenditure and 18FDG-PET uptake in brown adipose tissue.

12 th increased noradrenaline concentrations in brown adipose tissue.

13 marker gene, as a cold-responsive protein of brown adipose tissue.

14 and that of the rest of the body, including brown adipose tissue.

15 rotein 1 (UCP1) expression in both white and brown adipose tissue.

16 expression of uncoupling protein 1 (UCP1) in brown adipose tissue.

17 thetic innervation of subcutaneous white and brown adipose tissue.

18 in-1 and mitochondrial oxygen consumption in brown adipose tissue.

19 a3-adrenoceptor-stimulated glucose uptake in brown adipose tissue.

20 adal white adipose tissue, and interscapular brown adipose tissue.

21 suggesting a defect in sympathetic drive to brown adipose tissue.

22 of neural circuits innervating interscapular brown adipose tissue.

23 nd their production of IL-4 in the white and brown adipose tissues.

24 al vascular fraction (SVF) of both white and brown adipose tissues.

25 t advances in mTOR signaling in white versus brown adipose tissues.

26 the transcription factor Yin Yang 1 (YY1) in brown adipose tissue activates the canonical thermogenic

27 ature regimens and tested characteristics of brown adipose tissue activation.

28 ble mechanism for obesity-mediated defective brown adipose tissue activation.

29 Both peptides have opposite effects on the brown adipose tissue activity through thermoregulatory n

30 ating T3 and T4 levels, Ucp1 expression, and brown adipose tissue activity, demonstrating that DNP-me

31 tion that adult humans have heat-dissipating brown adipose tissue, an important contributor to energy

32 rough beta3-adrenergic receptors to activate brown adipose tissue and by 'browning' white adipose tis

33 es cellular mitochondrial density, activates brown adipose tissue and enhances thermogenesis.

34 preadipocytes and precursor stem cells into brown adipose tissue and increased mitochondrial respira

35 l increased expression of UCP-1 and UCP-3 in brown adipose tissue and increased UCP-3 and inhibition

36 lated to increased thermogenic activation of brown adipose tissue and induction of browning in WAT an

37 Them2 in the suppression of thermogenesis in brown adipose tissue and insulin signaling in skeletal m

38 3; Acot9 levels were substantially higher in brown adipose tissue and kidney mitochondria, as was act

39 of Pagr1 in Myf5(+) precursor cells impairs brown adipose tissue and muscle development.

40 , and downregulation of oxidative enzymes in brown adipose tissue and oxidative and lipogenic genes i

41 dh1 expression decreased 80-90% in liver and brown adipose tissue and Rdh10 expression was decreased

42 otein 1 (UCP1) and TGR5 expression levels in brown adipose tissue and skeletal muscle while increased

43 expression and mitochondrial dysfunction in brown adipose tissue and skeletal muscle.

44 te in mice resulted in heavy accumulation in brown adipose tissue and suppression of lipogenesis, mit

45 n levels affecting the oxidative capacity of brown adipose tissue and thus non-shivering thermogenesi

46 alpha, the ability of TFEB overexpression to brown adipose tissue and to elicit beneficial metabolic

47 n TAp63-null mouse embryonic fibroblasts and brown adipose tissues and by tumor necrosis factor alpha

48 a circulating protein secreted by white and brown adipose tissues and the liver.

49 uced intrathymic lipid, increased perithymic brown adipose tissue, and elevated thymic T-cell export

50 oxygen consumption in white adipose tissue, brown adipose tissue, and hepatocytes.

51 Mitochondria from heart, skeletal muscle, brown adipose tissue, and kidney robustly expressed Acot

52 steatosis, lower levels of lipid droplets in brown adipose tissue, and smaller white adipocytes after

53 g protein-1 expression was attenuated in the brown adipose tissue, and there was reduced browning of

54 dies identify mitochondrial ROS induction in brown adipose tissue as a mechanism that supports UCP1-d

55 The importance of brown adipose tissue as a site of nonshivering thermogen

56 t-liver axis might provide new insights into brown adipose tissue as a stress-responsive endocrine or

57 that plays critical roles in development of brown adipose tissue, as well as maintenance of adult he

58 Both brown adipose tissue (BAT) (i.e. uncoupling protein 1 (U

59 adipokine/cytokine, is a novel regulator of brown adipose tissue (BAT) activation by modulating the

60 Brown adipose tissue (BAT) activation via cold exposure

61 Here we report that, on cold exposure, brown adipose tissue (BAT) actively utilizes BCAA in the

62 reases body adiposity through attenuation of brown adipose tissue (BAT) activity, a major contributor

63 Brown adipose tissue (BAT) activity, WAT browning and en

64 rgy dissipation in association with enhanced brown adipose tissue (BAT) activity.

65 Brown adipose tissue (BAT) acts in mammals as a natural

66 Brown adipose tissue (BAT) and beige adipose tissue comb

67 simultaneous PET/MR imaging for identifying brown adipose tissue (BAT) and discriminating it from wh

68 that orchestrates lipoprotein processing in brown adipose tissue (BAT) and hepatic conversion of cho

69 PHO1 transcript is highly enriched in mature brown adipose tissue (BAT) and is further induced by col

70 ption factor Hlx is selectively expressed in brown adipose tissue (BAT) and iWAT, and is translationa

71 l neural substrate for the inhibition of rat brown adipose tissue (BAT) and shivering thermogenesis b

72 ulation of thermogenic capacity in classical brown adipose tissue (BAT) and subcutaneous inguinal (SC

73 expression of uncoupling protein 1 (UCP1) in brown adipose tissue (BAT) and subcutaneous WAT.

74 nesis and, upon cold exposure, is induced in brown adipose tissue (BAT) and subcutaneous white adipos

75 data suggest a negative correlation between brown adipose tissue (BAT) and the degree of coronary at

76 f a synthesis-free method for PET imaging of brown adipose tissue (BAT) and translocator protein 18 k

77 aining brown adipocyte phenotypes in classic brown adipose tissue (BAT) and white adipose tissue (WAT

78 White adipose tissue (WAT) and brown adipose tissue (BAT) are involved in whole-body en

79 Although recent studies have shown that brown adipose tissue (BAT) arises from progenitor cells

80 The discovery of brown adipose tissue (BAT) as a key regulator of energy

81 In eutherian (placental) mammals, brown adipose tissue (BAT) can also dissipate this proto

82 Brown adipose tissue (BAT) combusts high amounts of fatt

83 Brown adipose tissue (BAT) contains mitochondria-enriche

84 Targeting brown adipose tissue (BAT) content or activity has thera

85 Genetic ablation of Slc6a2 in SAMs increases brown adipose tissue (BAT) content, causes browning of w

86 The prevailing dogma is that thermogenic brown adipose tissue (BAT) contributes to improvements i

87 Brown adipose tissue (BAT) could facilitate weight loss

88 rnal excessive glucocorticoids (GC) on fetal brown adipose tissue (BAT) development and its long-term

89 Brown adipose tissue (BAT) dissipates energy through Ucp

90 Due to uncoupling, brown adipose tissue (BAT) dissipates energy via heat ge

91 Brown adipose tissue (BAT) dissipates nutritional energy

92 Each cycle, Brown Adipose Tissue (BAT) drives periodic arousal from

93 Promoting brown adipose tissue (BAT) function or browning of white

94 Brown adipose tissue (BAT) has attracted scientific inte

95 Recruitment of brown adipose tissue (BAT) has emerged as a potential to

96 on circadian lipid metabolism in thermogenic brown adipose tissue (BAT) has not been studied.

97 of functionally competent, energy-consuming brown adipose tissue (BAT) in adult humans, much effort

98 eral studies have explored the role of human brown adipose tissue (BAT) in energy expenditure.

99 The presence of brown adipose tissue (BAT) in human adults opens attract

100 ly, the existence of significant deposits of brown adipose tissue (BAT) in human adults was confirmed

101 The study of brown adipose tissue (BAT) in human weight regulation ha

102 The recent rediscovery of brown adipose tissue (BAT) in humans made this tissue a

103 subcutaneous depots but not in interscapular brown adipose tissue (BAT) in mice fed a high fat diet (

104 aternal Gnas deletion impaired activation of brown adipose tissue (BAT) in mice, their responses to c

105 However, the role of brown adipose tissue (BAT) in regulating gestational met

106 O) spontaneously develop functioning ectopic brown adipose tissue (BAT) in skeletal muscle, putativel

107 In response to cold, brown adipose tissue (BAT) increases its metabolic rate

108 s (rRPa) neurons influences thermogenesis of brown adipose tissue (BAT) independent of ambient temper

109 Brown adipose tissue (BAT) is a highly thermogenic organ

110 Brown adipose tissue (BAT) is a highly vascularized orga

111 Brown adipose tissue (BAT) is a type of fat specialized

112 Brown adipose tissue (BAT) is a unique tissue that is ab

113 Brown adipose tissue (BAT) is able to rapidly generate h

114 rily functions as an energy reservoir, while brown adipose tissue (BAT) is activated during cold expo

115 Brown adipose tissue (BAT) is an attractive therapeutic

116 Thermogenesis in brown adipose tissue (BAT) is an important component of

117 Brown adipose tissue (BAT) is an important source of the

118 Brown adipose tissue (BAT) is an important tissue for th

119 Brown adipose tissue (BAT) is composed of thermogenic ce

120 Brown adipose tissue (BAT) is essential for adaptive the

121 Brown adipose tissue (BAT) is highly metabolically activ

122 In contrast to white adipose tissue, brown adipose tissue (BAT) is known to play critical rol

123 Spontaneous glucose uptake by brown adipose tissue (BAT) is lower in overweight or obe

124 Brown adipose tissue (BAT) is metabolically active in hu

125 Brown adipose tissue (BAT) is regulated by the sympathet

126 Brown adipose tissue (BAT) is rich in mitochondria and p

127 Brown adipose tissue (BAT) is specialized for energy exp

128 Brown adipose tissue (BAT) is specialized to burn lipids

129 Brown adipose tissue (BAT) is specialized to dissipate c

130 Brown adipose tissue (BAT) is the primary non-shivering

131 Detection and quantification of brown adipose tissue (BAT) mass remains a major challeng

132 lementation and a short photoperiod increase brown adipose tissue (BAT) mass.

133 Brown adipose tissue (BAT) metabolism influences glucose

134 Brown adipose tissue (BAT) mitochondria exhibit high oxi

135 tivator-1alpha) were higher in interscapular brown adipose tissue (BAT) of mice receiving the KE diet

136 1 (UCP1) expression (fold increase: 3.5) in brown adipose tissue (BAT) of the C57BL/6 control mice.

137 Brown adipose tissue (BAT) plays a unique role in regula

138 Brown adipose tissue (BAT) promotes a lean and healthy p

139 Brown adipose tissue (BAT) provides a means of nonshiver

140 was to assess the repeatability of activated brown adipose tissue (BAT) radiomic features.

141 In rodents, brown adipose tissue (BAT) regulates cold- and diet-indu

142 vation state.Current approaches to visualise brown adipose tissue (BAT) rely primarily on markers tha

143 -1R agonist, liraglutide, in mice stimulates brown adipose tissue (BAT) thermogenesis and adipocyte b

144 es sympathetic nervous system stimulation of brown adipose tissue (BAT) thermogenesis and browning of

145 ore body weight and fat, indicating impaired brown adipose tissue (BAT) thermogenesis and/or inabilit

146 Brown adipose tissue (BAT) thermogenesis increases energ

147 circulating AKG induces muscle hypertrophy, brown adipose tissue (BAT) thermogenesis, and white adip

148 to sympathetic premotor neurons that control brown adipose tissue (BAT) thermogenesis, suggesting an

149 attention has been focused on its effect on brown adipose tissue (BAT) thermogenesis, though its eff

150 PET imaging is routinely used to investigate brown adipose tissue (BAT) thermogenesis, which requires

151 sity-related metabolic disease by increasing brown adipose tissue (BAT) thermogenesis, white adipose

152 mitochondrial Ca(2+) marks the activation of brown adipose tissue (BAT) thermogenesis, yet the mechan

153 (DMH) determines the level of activation of brown adipose tissue (BAT) thermogenesis.

154 In particular, the impact of PLA2G2A on the brown adipose tissue (BAT) thermogenic gene expression w

155 in alcohol sensing enhances thermogenesis of brown adipose tissue (BAT) through sympathetic nerve act

156 nse of inguinal WAT (iWAT) and interscapular brown adipose tissue (BAT) to an acute (48 h) cold stres

157 Importantly, direct exposure of brown adipose tissue (BAT) to light in living mice signi

158 The capacity for brown adipose tissue (BAT) to protect against obesity an

159 , to determine the contribution of liver and brown adipose tissue (BAT) towards metabolic improvement

160 Brown adipose tissue (BAT) utilizes glucose and free fat

161 e mechanisms that regulate the adaptation of brown adipose tissue (BAT), a key organ for non-shiverin

162 Brown adipose tissue (BAT), a specialized fat that dissi

163 ssed in several metabolic tissues, including brown adipose tissue (BAT), but it is unknown which spec

164 white adipose tissue (WAT) and interscapular brown adipose tissue (BAT), causing decreased expression

165 Brown adipose tissue (BAT), characterized by the presenc

166 beled lipoprotein-like emulsion particles by brown adipose tissue (BAT), decreased the intracellular

167 l role in determining the metabolic state of brown adipose tissue (BAT), due to its direct roles in t

168 nsumption impairs retinoic acid signaling in brown adipose tissue (BAT), leading to impaired BAT func

169 conducted on inguinal white adipose (IWAT), brown adipose tissue (BAT), liver, and skeletal muscle.

170 During beta-adrenergic stimulation of brown adipose tissue (BAT), p38 phosphorylates the activ

171 comprises 65% of the total GPAT activity in brown adipose tissue (BAT), we characterized BAT functio

172 ed by deep sequencing (ChIP-seq) analyses in brown adipose tissue (BAT), we reveal that PRDM16 bindin

173 lically active organs, such as the heart and brown adipose tissue (BAT), where substrate preference c

174 reduction in white adipose tissue (WAT) and brown adipose tissue (BAT), whereas mice lacking both IR

175 Brown adipose tissue (BAT)-induced thermogenesis is a pr

176 en stimulated by the recent recognition that brown adipose tissue (BAT)-long known to promote heat pr

177 shows a robust and specific PD-L1 signal in brown adipose tissue (BAT).

178 remotor neurons controlling thermogenesis of brown adipose tissue (BAT).

179 maintaining the integrity of mitochondria in brown adipose tissue (BAT).

180 mmortalized preadipocytes derived from mouse brown adipose tissue (BAT).

181 of nonshivering thermogenesis (NST) besides brown adipose tissue (BAT).

182 ng the oxidative and thermogenic activity of brown adipose tissue (BAT).

183 nt of insulin-stimulated glucose uptake into brown adipose tissue (BAT).

184 c imbalance including thermogenic defects in brown adipose tissue (BAT).

185 and activation of adaptive thermogenesis in brown adipose tissue (BAT).

186 that express Opn5 regulate thermogenesis in brown adipose tissue (BAT).

187 te-labeled VLDL-like emulsion particles into brown adipose tissue (BAT).

188 ional regulator of adaptive thermogenesis in brown adipose tissue (BAT).

189 -specific protein present in mitochondria of brown adipose tissue (BAT).

190 lipolysis and beta-adrenergic activation of brown adipose tissue (BAT).

191 lays a central role in energy dissipation in brown adipose tissue (BAT).

192 nd there is a surprising accumulation in the brown adipose tissue (BAT).

193 role in thermoregulation of species lacking brown adipose tissue (BAT).

194 ation of PDC in tissues of muscle origin and brown adipose tissue (BAT).

195 and UCP1 mRNAs were not induced in liver or brown adipose tissue (BAT).

196 ve identified a novel hepatoprotective brain/brown adipose tissue (BAT)/liver axis.

197 pR) neurons as a critical component of a SNS/brown adipose tissue (BAT)/thermogenesis axis.

198 VN leptin slowly increases SNA to muscle and brown adipose tissue, because it induces the expression

199 s that determine the thermogenic capacity of brown adipose tissue before environmental cold are unkno

200 Despite loss of brown adipose tissue, BMAT volume was not reduced in Ucp

201 Transplantation of both white and brown adipose tissue-brown especially-into ADicerKO mice

202 eases the expression of thermogenic genes in brown adipose tissue but also induces the expression of

203 ctively binds to the vascular endothelium of brown adipose tissue, but not of intraperitoneal white a

204 t of Kbtbd2 accumulate p85alpha in white and brown adipose tissues, causing insulin resistance, moder

205 ction in glucose metabolism in the white and brown adipose tissue, compared with that in the WT mice.

206 Brown adipose tissue contained a heterogeneous morpholog

207 dipose tissue which, together with classical brown adipose tissue, contributes to maintaining body te

208 These results indicate that YY1 in brown adipose tissue controls antagonistic gene expressi

209 tein 1 (UCP1) is the established mediator of brown adipose tissue-dependent thermogenesis.

210 UCP1 is also found outside classical brown adipose tissue depots, in adipocytes that are term

211 importance of miRNA processing in white and brown adipose tissue determination and provide a potenti

212 ound unexpectedly that GR is dispensable for brown adipose tissue development in mice.

213 pensable for adipogenesis in culture and for brown adipose tissue development in mice.

214 l, primary adipocyte precursors of white and brown adipose tissue differentiated in vitro produced fe

215 Enhanced WAT thermogenic potential, brown adipose tissue differentiation, and/or insulin sen

216 is implicated in the regulation of white and brown adipose tissue differentiation.

217 Brown adipose tissue dissipates energy as heat, a proces

218 eacetylase 3 (HDAC3) is required to activate brown adipose tissue enhancers to ensure thermogenic apt

219 sources, such as Huh7 cells, mouse liver and brown adipose tissue, et al.

220 tissue and reduced mitochondrial activity in brown adipose tissue even in the absence of beta3-AR sti

221 Brown adipose tissue expends energy in the form of heat

222 te adipocytes and brite cells, interscapular brown adipose tissue for brown adipocytes, and ear mesen

223 Ectopic brown adipose tissue formation within skeletal muscle af

224 re was observed both in primary cultures and brown adipose tissue from cold-exposed mice.

225 In panel g, the image of brown adipose tissue from SCD-fed Tph1 GKO mice (top-rig

226 We conclude that brown adipose tissue function in mice does not require t

227 ortant site of thermogenesis especially when brown adipose tissue function is lacking.

228 Here we show 5-HT regulates white and brown adipose tissue function.

229 abnormal fat accumulation in both white and brown adipose tissues, glucose intolerance and insulin r

230 Mechanistically, FL-PGC-1alpha(-/-) brown adipose tissue had an increased capacity to oxidiz

231 ifically in intestinal endocrine L-cells and brown adipose tissue, has made it a promising therapeuti

232 glucose uptake identifies the interscapular brown adipose tissue (iBAT) as a primary source where gl

233 mental [ADP] on respiration in interscapular brown adipose tissue (IBAT) mitochondria, wherein DeltaP

234 UCP1 protein were observed in interscapular brown adipose tissue (iBAT) of ppHF dams, Ucp1 gene dele

235 creased energy expenditure and interscapular brown adipose tissue (iBAT) thermogenesis accompanied by

236 Energy dissipation through interscapular brown adipose tissue (iBAT) thermogenesis is an importan

237 In interscapular brown adipose tissue (iBAT), cold exposure increased pro

238 rs of uncoupling protein-1 (UCP1) in classic brown adipose tissue in female mice, we found that LXRs,

239 ls of metabolic intermediates are altered in brown adipose tissue in response to cold exposure.

240 w that FABP4 is secreted from white, but not brown, adipose tissue in response to lipolytic stimulati

241 an oxidative tissues (skeletal muscle, heart brown adipose tissue) in the fed state.

242 UCP3, expressed in both skeletal muscle and brown adipose tissue, in thermoregulatory physiology is

243 pressing SCF systemically or specifically in brown adipose tissue increases thermogenesis and reduces

244 Brown adipose tissue is a metabolically beneficial organ

245 Brown adipose tissue is a thermogenic organ that dissipa

246 show that acutely activated thermogenesis in brown adipose tissue is defined by a substantial increas

247 Recent studies showed that brown adipose tissue is present in adult humans and may

248 Brown adipose tissue is the primary site for thermogenes

249 excess energy in the form of triglycerides, brown adipose tissue is thermogenic, dissipating energy

250 oupling protein 1 (UCP1) is nearly absent in brown adipose tissue lacking HDAC3, and there is also ma

251 f this work was to quantify these changes in brown adipose tissue lipid content (fat-signal fraction

252 ue, by the up-regulation of angiogenesis and brown adipose tissue markers.

253 ter insulin challenge, decreased thermogenic brown adipose tissue mass, and exaggerated hepatic endoc

254 Our data indicate that alcohol's effects on brown adipose tissue may be mediated through altered ret

255 UCP1 and UCP3 in brown adipose tissue mediate early and late phases of sy

256 e increased insulin resistance and decreased brown adipose tissue-mediated glucose disposal.

257 ease energy expenditure in obesity, however, brown adipose tissue metabolic activity is lower with ob

258 Energy expenditure and brown adipose tissue metabolism in Asxl2DeltaLysM mice w

259 omous protection was through preservation of brown adipose tissue metabolism, which was increased in

260 xchange mechanism in its primary function in brown adipose tissue mitochondria.

261 evated in the white adipose tissue (WAT) and brown adipose tissue of AdSod2 KO mice fed an HFD, and t

262 In contrast, interscapular brown adipose tissue of AF2KO mice accumulated few but l

263 Expression of a human-specific miRNA in the brown adipose tissue of one mouse in vivo can also regul

264 The brown adipose tissues of cavin-1-null mice exhibited dec

265 ignificant phenotype in the subcutaneous and brown adipose tissues of KO mice, with greater vasculari

266 Using adipogenic cells from the brown adipose tissues of LSD2-knockout (KO) mice, we fou

267 dative stress in the thyroid, but not in the brown adipose tissue or liver.

268 Brown adipose tissue oxidizes chemical energy for heat g

269 ondrial fatty acid oxidation capacity of the brown adipose tissue, reduced whole-body energy expendit

270 Brown adipose tissue regions of interest were defined, a

271 Salicylate is also able to stimulate brown adipose tissue respiration independent of uncoupli

272 IP] followed by deep sequencing) analyses in brown adipose tissue showed that EBF2 binds and regulate

273 Mice with brown adipose tissue-specific genetic ablation of HDAC3

274 ad impaired glucose homeostasis, compromised brown adipose tissue structure, and high insulin and low

275 in tibialis anterior and soleus muscles and brown adipose tissue, suggesting that the transplanted s

276 ain a critical capacity for thermogenesis in brown adipose tissue that can be rapidly engaged upon ex

277 promising approach has been the expansion of brown adipose tissues that express uncoupling protein (U

278 Although Sik2 is highly expressed in brown adipose tissue, the male and female Sik2(S587A) mi

279 On one hand, brain UGN induces brown adipose tissue thermogenesis, as well as browning

280 3 polyunsaturated fatty acids (PUFA) promote brown adipose tissue thermogenesis.

281 DNP-mediated heat generation substituted for brown adipose tissue thermogenesis.

282 In addition, the YS mice have more brown adipose tissue thermogenic capacity than their lit

283 in cardiac muscle, white adipose tissue, and brown adipose tissue through a mechanism that was partia

284 bited autophagy necessary for homeostasis of brown adipose tissue through suppression of Sestrin2 and

285 alter the redox status of cysteine thiols in brown adipose tissue to drive increased respiration, and

286 Nonshivering thermogenesis occurs in brown adipose tissue to generate heat in response to col

287 s necessary for maximal sympathetic drive to brown adipose tissue to maintain thermoregulation during

288 k across the mitochondrial inner membrane of brown adipose tissue to produce heat, and could help com

289 Brown adipose tissue undergoes a dynamic, heterogeneous

290 (Them1) is transcriptionally up-regulated in brown adipose tissue upon exposure to the cold and suppr

291 a3-adrenoceptors stimulate glucose uptake in brown adipose tissue via a signaling pathway that is com

292 PET-CT scans quantified brown adipose tissue volume and activity, and we conduct

293 M2 phenotype and expanded the interscapular brown adipose tissue volume.

294 % of total adipose mass, yet unlike white or brown adipose tissues (WAT or BAT) its metabolic functio

295 ss, food intake (FI), and ucp1 expression in brown adipose tissue were also increased.

296 E and activation of thermogenesis in WAT and brown adipose tissue were lost in Fgf21(-/-) mice.

297 ling protein 1 (UCP1) is highly expressed in brown adipose tissue, where it generates heat by uncoupl

298 nic capacity of the interscapular and aortic brown adipose tissues, whereas exercise markedly suppres

299 s in the liver and enhanced thermogenesis in brown adipose tissue which was coincident with a signifi

300 cits a dynamic and heterogeneous response in brown adipose tissue, with areas initially rich with lip