Changes in brain activation associated with reward processing in smokers and nonsmokersA positron emission tomography study

被引:0
|
作者
C. Martin-Sölch
S. Magyar
G. Künig
J. Missimer
W. Schultz
K. Leenders
机构
[1] PET Program,
[2] Center for Radiopharmaceutical Science,undefined
[3] Paul Scherrer Institute,undefined
[4] 5232 Villigen,undefined
[5] Switzerland,undefined
[6] Institute for Psychology,undefined
[7] University of Basel,undefined
[8] Bernouillistr. 16,undefined
[9] 4056 Basel,undefined
[10] Switzerland,undefined
[11] University Hospital Groningen,undefined
[12] Department of Neurology,undefined
[13] P.O. Box 30.001,undefined
[14] 9700 RB Groningen,undefined
[15] The Netherlands,undefined
[16] University of Fribourg,undefined
[17] Institute of Physiology,undefined
[18] University of Fribourg,undefined
[19] 1700 Fribourg,undefined
[20] Switzerland,undefined
[21] University Hospital of Zurich,undefined
[22] Department of Neurology,undefined
[23] Frauenklinikstrasse 26,undefined
[24] 8091 Zurich,undefined
[25] Switzerland,undefined
来源
关键词
Reward Striatum Positron emission tomography Tobacco smokers Human;
D O I
暂无
中图分类号
学科分类号
摘要
Tobacco smoking is the most frequent form of substance abuse. Several studies have shown that the addictive action of nicotine is mediated by the mesolimbic dopamine system. This system is implicated in reward processing. In order to better understand the relationship between nicotine addiction and reward in humans, we investigated differences between smokers and nonsmokers in the activation of brain regions involved in processing reward information. Using [H215O] positron emission tomography (PET), we measured regional cerebral blood flow (rCBF) in healthy smokers and nonsmokers while they performed a prelearned, pattern-recognition task. We compared two conditions involving nonmonetary reinforcement or monetary reward with a baseline condition in which nonsense feedback was presented. With monetary reward, we found activation in the frontal and orbitofrontal cortex, occipital cortex, cingulate gyrus, cerebellum, and midbrain in both groups. Additionally, monetary reward activated typical dopaminergic regions such as the striatum in nonsmokers but not in smokers. We found a similar pattern of activation associated with nonmonetary reinforcement in nonsmokers, whereas activation was found in smokers only in the cerebellum. The different patterns of activation suggest that the brains of smokers react in a different way to reward than those of nonsmokers. This difference involves in particular the regions of the dopaminergic system including the striatum. In principle these observations could be interpreted either as a consequence of tobacco use or as a primitive condition of the brain that led people to smoke. Supported by related nonimaging studies, we interpret these differences as a consequence of tobacco smoking, even if a short-term effect of smoking prior to the experiment cannot be excluded.
引用
收藏
页码:278 / 286
页数:8
相关论文
共 50 条
  • [31] A positron emission tomography investigation of post-treatment brain activation in stutterers
    Kroll, RM
    De Nil, LF
    Kapur, S
    Houle, S
    SPEECH PRODUCTION: MOTOR CONTROL, BRAIN RESEARCH AND FLUENCY DISORDERS, 1997, 1146 : 307 - 319
  • [32] Measurement of airway inflammation in current smokers by positron emission tomography
    Garpered, Sabine
    Minarik, David
    Diaz, Sandra
    Valind, Sven
    Edenbrandt, Lars
    Wollmer, Per
    CLINICAL PHYSIOLOGY AND FUNCTIONAL IMAGING, 2019, 39 (06) : 393 - 398
  • [33] Brain activation during detrusor overactivity in patients with Parkinson's disease: A positron emission tomography study
    Kitta, T
    Kakizaki, H
    Furuno, T
    Moriya, K
    Tanaka, H
    Shiga, T
    Tamaki, N
    Yabe, I
    Sasaki, H
    Nonomura, K
    JOURNAL OF UROLOGY, 2006, 175 (03): : 994 - 998
  • [34] Measurement of airway inflammation in smokers by means of positron emission tomography
    Garpered, Sabine
    Edenbrandt, Lars
    Valind, Sven
    Wollmer, Per
    EUROPEAN RESPIRATORY JOURNAL, 2012, 40
  • [35] Brain activation during detrusor overactivity in patients with Parkinson's disease: A positron emission tomography study
    Kitta, T
    Kakizaki, H
    Furuno, T
    Moriya, K
    Tanaka, H
    Shiga, T
    Tamaki, N
    Yabe, I
    Sasaki, H
    Nonomura, K
    JOURNAL OF UROLOGY, 2005, 173 (04): : 334 - 334
  • [36] Pathways of interhemispheric transfer in normals and in a split-brain subject A positron emission tomography studyA positron emission tomography study
    C. A. Marzi
    D. Perani
    G. Tassinari
    A. Colleluori
    A. Maravita
    C. Miniussi
    E. Paulesu
    P. Scifo
    F. Fazio
    Experimental Brain Research, 1999, 126 : 451 - 458
  • [37] POSITRON EMISSION TOMOGRAPHY FOR STUDY OF INFORMATION-PROCESSING IN THE BASAL GANGLIA
    KATO, M
    TOBIMATSU, S
    BIOMEDICAL RESEARCH-TOKYO, 1992, 13 : 23 - 27
  • [38] FUNCTIONAL NEUROANATOMY OF FACE AND OBJECT PROCESSING - A POSITRON EMISSION TOMOGRAPHY STUDY
    SERGENT, J
    OHTA, S
    MACDONALD, B
    BRAIN, 1992, 115 : 15 - 36
  • [39] LANGUAGE ACTIVATION STUDIES WITH POSITRON EMISSION TOMOGRAPHY
    WISE, R
    HADAR, U
    HOWARD, D
    PATTERSON, K
    CIBA FOUNDATION SYMPOSIA, 1991, 163 : 218 - +
  • [40] Brain glucose metabolic changes associated with chronic spontaneous pain due to brachial plexus avulsion:a preliminary positron emission tomography study
    CHEN FuyongTAO WeiCHENG XinWANG HongyanHU YongshengZHANG Xiaohua and LI Yongjie Beijing Institute of Functional Neurosurgery Positron Emission Tomography Center Xuanwu HospitalCapital Medical UniversityBeijing China Positron Emission Tomography CenterPeking Union Medical College HospitalChinese Academy of Medical SciencesPeking Union Medical CollegeBeijing China
    中华医学杂志(英文版), 2008, (12) : 1096 - 1100