Literature DB >> 21914754

Association of heat production with 18F-FDG accumulation in murine brown adipose tissue after stress.

Edward A Carter1, Ali A Bonab, Kasie Paul, John Yerxa, Ronald G Tompkins, Alan J Fischman.   

Abstract

Previous studies have demonstrated that cold stress results in increased accumulation of (18)F-FDG in brown adipose tissue (BAT). Although it has been assumed that this effect is associated with increased thermogenesis by BAT, direct measurements of this phenomenon have not been reported. In the current investigation, we evaluated the relationship between stimulation of (18)F-FDG accumulation in BAT by 3 stressors and heat production measured in vivo by thermal imaging. Male SKH-1 hairless mice were subjected to full-thickness thermal injury (30% of total body surface area), cold stress (4°C for 24 h), or cutaneous wounds. Groups of 6 animals with each treatment were kept fasting overnight and injected with (18)F-FDG. Sixty minutes after injection, the mice were sacrificed, and biodistribution was measured. Other groups of 6 animals subjected to the 3 stressors were studied by thermal imaging, and the difference in temperature between BAT and adjacent tissue was recorded (ΔT). Additional groups of 6 animals were studied by both thermal imaging and (18)F-FDG biodistribution in the same animals. Accumulation of (18)F-FDG in BAT was significantly (P < 0.0001) increased by all 3 treatments (burn, ∼5-fold; cold, ∼15-fold; and cutaneous wound, ∼15-fold), whereas accumulation by adjacent white adipose tissue was unchanged. Compared with sham control mice, in animals exposed to all 3 stressors, ΔTs showed significant (P < 0.001) increases. The ΔT between stressor groups was not significant; however, there was a highly significant linear correlation (r(2) = 0.835, P < 0.0001) between the ΔT measured in BAT versus adjacent tissue and (18)F-FDG accumulation. These results establish, for the first time to our knowledge, that changes in BAT temperature determined in vivo by thermal imaging parallel increases in (18)F-FDG accumulation.

Entities:  

Mesh:

Substances:

Year:  2011        PMID: 21914754      PMCID: PMC4082963          DOI: 10.2967/jnumed.111.090175

Source DB:  PubMed          Journal:  J Nucl Med        ISSN: 0161-5505            Impact factor:   10.057


  17 in total

1.  Thermogenesis inhibition in brown adipocytes is a specific property of volatile anesthetics.

Authors:  Kerstin B E Ohlson; Sten G E Lindahl; Barbara Cannon; Jan Nedergaard
Journal:  Anesthesiology       Date:  2003-02       Impact factor: 7.892

2.  Effects of burn injury, cold stress and cutaneous wound injury on the morphology and energy metabolism of murine brown adipose tissue (BAT) in vivo.

Authors:  Edward A Carter; Ali A Bonab; Victoria Hamrahi; Justin Pitman; Daniel Winter; Lacey J Macintosh; Erika M Cyr; Kasie Paul; John Yerxa; Walter Jung; Ronald G Tompkins; Alan J Fischman
Journal:  Life Sci       Date:  2011-05-04       Impact factor: 5.037

Review 3.  The brown adipose cell: a unique model for understanding the molecular mechanism of insulin resistance.

Authors:  Angela M Valverde; Manuel Benito
Journal:  Mini Rev Med Chem       Date:  2005-03       Impact factor: 3.862

Review 4.  Thermogenic mechanisms in brown fat.

Authors:  D G Nicholls; R M Locke
Journal:  Physiol Rev       Date:  1984-01       Impact factor: 37.312

5.  Uncoupling protein 1 is necessary for norepinephrine-induced glucose utilization in brown adipose tissue.

Authors:  Ken-ichi Inokuma; Yuko Ogura-Okamatsu; Chitoku Toda; Kazuhiro Kimura; Hitoshi Yamashita; Masayuki Saito
Journal:  Diabetes       Date:  2005-05       Impact factor: 9.461

6.  Molecular mechanism(s) of burn-induced insulin resistance in murine skeletal muscle: role of IRS phosphorylation.

Authors:  Qin Zhang; Edward A Carter; Bang-Yi Ma; Morris White; Alan J Fischman; Ronald G Tompkins
Journal:  Life Sci       Date:  2005-06-27       Impact factor: 5.037

Review 7.  The brown adipocyte: update on its metabolic role.

Authors:  Henrike Sell; Yves Deshaies; Denis Richard
Journal:  Int J Biochem Cell Biol       Date:  2004-11       Impact factor: 5.085

8.  Involvement of nitric oxide in noradrenaline-induced increase in blood flow through brown adipose tissue.

Authors:  T Nagashima; H Ohinata; A Kuroshima
Journal:  Life Sci       Date:  1994       Impact factor: 5.037

9.  Intense (18)F-FDG uptake in brown fat can be reduced pharmacologically.

Authors:  Mitsuaki Tatsumi; James M Engles; Takayoshi Ishimori; O'Bod Nicely; Christian Cohade; Richard L Wahl
Journal:  J Nucl Med       Date:  2004-07       Impact factor: 10.057

10.  Efficient stereospecific synthesis of no-carrier-added 2-[18F]-fluoro-2-deoxy-D-glucose using aminopolyether supported nucleophilic substitution.

Authors:  K Hamacher; H H Coenen; G Stöcklin
Journal:  J Nucl Med       Date:  1986-02       Impact factor: 10.057

View more
  14 in total

1.  In vivo noninvasive characterization of brown adipose tissue blood flow by contrast ultrasound in mice.

Authors:  David M Baron; Maeva Clerte; Peter Brouckaert; Michael J Raher; Aidan W Flynn; Haihua Zhang; Edward A Carter; Michael H Picard; Kenneth D Bloch; Emmanuel S Buys; Marielle Scherrer-Crosbie
Journal:  Circ Cardiovasc Imaging       Date:  2012-07-09       Impact factor: 7.792

Review 2.  The use of infrared thermography in the measurement and characterization of brown adipose tissue activation.

Authors:  James Law; Jane Chalmers; David E Morris; Lindsay Robinson; Helen Budge; Michael E Symonds
Journal:  Temperature (Austin)       Date:  2018-01-29

3.  Insights into Brown Adipose Tissue Physiology as Revealed by Imaging Studies.

Authors:  Chioma Izzi-Engbeaya; Victoria Salem; Rajveer S Atkar; Waljit S Dhillo
Journal:  Adipocyte       Date:  2014-11-14       Impact factor: 4.534

4.  Brown adipose tissue and its modulation by a mitochondria-targeted peptide in rat burn injury-induced hypermetabolism.

Authors:  Kikuo Yo; Yong-Ming Yu; Gaofeng Zhao; Ali A Bonab; Naoki Aikawa; Ronald G Tompkins; Alan J Fischman
Journal:  Am J Physiol Endocrinol Metab       Date:  2012-11-20       Impact factor: 4.310

5.  CPEB2-dependent translation of long 3'-UTR Ucp1 mRNA promotes thermogenesis in brown adipose tissue.

Authors:  Hui-Feng Chen; Chen-Ming Hsu; Yi-Shuian Huang
Journal:  EMBO J       Date:  2018-09-03       Impact factor: 11.598

6.  Activation of brown adipose tissue in diet-induced thermogenesis is GC-C dependent.

Authors:  Nikola Habek; Marina Dobrivojević Radmilović; Milan Kordić; Katarina Ilić; Sandra Grgić; Vladimir Farkaš; Robert Bagarić; Siniša Škokić; Alfred Švarc; Aleksandra Dugandžić
Journal:  Pflugers Arch       Date:  2020-01-15       Impact factor: 3.657

7.  Brown fat activity determined by infrared thermography and thermogenesis measurement using whole body calorimetry (BRIGHT Study).

Authors:  S H Tay; H J Goh; P Govindharajulu; J Cheng; S G Camps; S Haldar; S S Velan; L Sun; Y Li; C J Henry; M K-S Leow
Journal:  Physiol Res       Date:  2019-12-19       Impact factor: 1.881

8.  The relationship between brown adipose tissue activity and neoplastic status: an (18)F-FDG PET/CT study in the tropics.

Authors:  Yung-Cheng Huang; Tai-Been Chen; Chien-Chin Hsu; Shau-Hsuan Li; Pei-Wen Wang; Bi-Fang Lee; Ching-Yuan Kuo; Nan-Tsing Chiu
Journal:  Lipids Health Dis       Date:  2011-12-20       Impact factor: 3.876

9.  Supraclavicular skin temperature as a measure of 18F-FDG uptake by BAT in human subjects.

Authors:  Mariëtte R Boon; Leontine E H Bakker; Rianne A D van der Linden; Lenka Pereira Arias-Bouda; Frits Smit; Hein J Verberne; Wouter D van Marken Lichtenbelt; Ingrid M Jazet; Patrick C N Rensen
Journal:  PLoS One       Date:  2014-06-12       Impact factor: 3.240

10.  A standardized infrared imaging technique that specifically detects UCP1-mediated thermogenesis in vivo.

Authors:  Justin D Crane; Emilio P Mottillo; Troy H Farncombe; Katherine M Morrison; Gregory R Steinberg
Journal:  Mol Metab       Date:  2014-04-21       Impact factor: 7.422

View more

北京卡尤迪生物科技股份有限公司 © 2022-2023.