Fractionation of human brain by differential and isopycnic equilibration techniques

被引:3
作者
Luabeya, MK
Vanisberg, MA
Jeanjean, AP
Baudhuin, P
Laduron, PM
Maloteaux, JM
机构
[1] Catholic Univ Louvain, Lab Pharmacol & Neurochim, B-1200 Brussels, Belgium
[2] Catholic Univ Louvain, Unite Biol Cellulaire, B-1200 Brussels, Belgium
[3] Int Inst Cellular & Mol Pathol, B-1200 Brussels, Belgium
[4] Catholic Univ Louvain, Sch Pharm, B-1200 Brussels, Belgium
来源
BRAIN RESEARCH PROTOCOLS | 1997年 / 1卷 / 01期
关键词
human brain; differential centrifugation; isopycnic equilibration; subcellular structure; electron microscopy; marker enzyme;
D O I
10.1016/S1385-299X(96)00011-6
中图分类号
Q5 [生物化学];
学科分类号
071010 ; 081704 ;
摘要
Fractionation of brain tissue by either differential or isopycnic centrifugation is a useful cytological and biochemical tool to study the intracellular localization of neuronal elements involved in neurotransmission. Several neuroreceptors and uptake sites were found to display a subcellular bimodal distribution in rat brain [10]. However, in the human brain, little is known about the subcellular distribution of neurotransmitter receptors and amine uptake sites. Despite the inevitable post-mortem delay which seems to induce many more morphological changes than modifications of enzymatic [20] or receptor distribution profile [14] from the subcellular fractions, fractionation of human brain areas remains a valid procedure [13] to explore the subcellular localization of neuronal constituents. This paper describes the methods used to separate human brain tissue. As we have previously demonstrated in rat and dog brains [12,14], our results indicate that differential and isopycnic fractionation techniques, used with a large number of markers such as enzymes, receptors and uptake sites, make it possible to separate tissue fractions enriched in nerve endings, dendrites, dendritic spines, plasma membranes or vesicles.
引用
收藏
页码:83 / 90
页数:8
相关论文
共 50 条
  • [21] Evolution and genomics of the human brain
    Rosales-Reynoso, M. A.
    Juarez-Vazquez, C. I.
    Barros-Nunez, P.
    NEUROLOGIA, 2018, 33 (04): : 254 - 265
  • [22] Neurotransmission and the ontogeny of human brain
    Retz, W
    Kornhuber, J
    Riederer, P
    JOURNAL OF NEURAL TRANSMISSION, 1996, 103 (04) : 403 - 419
  • [23] The Antisense Transcriptome and the Human Brain
    James D. Mills
    Bei Jun Chen
    Uwe Ueberham
    Thomas Arendt
    Michael Janitz
    Journal of Molecular Neuroscience, 2016, 58 : 1 - 15
  • [24] Differential Postmortem Delay Effect on Agonist-Mediated Phospholipase Cβ Activity in Human Cortical Crude and Synaptosomal Brain Membranes
    M. Asier Garro
    Maider López de Jesús
    Iñigo Ruíz de Azúa
    Luis F. Callado
    J. Javier Meana
    Joan Sallés
    Neurochemical Research, 2004, 29 : 1461 - 1465
  • [25] N-terminal splice variants of the NMDAR1 glutamate receptor subunit: differential expression in human and monkey brain
    Meoni, P
    Bunnemann, BH
    Trist, DG
    Bowery, NG
    NEUROSCIENCE LETTERS, 1998, 249 (01) : 45 - 48
  • [26] HUMAN BRAIN IMAGING IN 2012
    Hugonet, Pierre
    BULLETIN DE L ACADEMIE VETERINAIRE DE FRANCE, 2012, 165 (03): : 239 - 241
  • [27] Building a Human Brain for Research
    Bitar, Maina
    Barry, Guy
    FRONTIERS IN MOLECULAR NEUROSCIENCE, 2020, 13
  • [28] The Antisense Transcriptome and the Human Brain
    Mills, James D.
    Chen, Bei Jun
    Ueberham, Uwe
    Arendt, Thomas
    Janitz, Michael
    JOURNAL OF MOLECULAR NEUROSCIENCE, 2016, 58 (01) : 1 - 15
  • [29] COMPUTERS VS HUMAN BRAIN
    Marinov, Pencho
    Boyanov, Kiril
    COMPTES RENDUS DE L ACADEMIE BULGARE DES SCIENCES, 2019, 72 (06): : 796 - 802
  • [30] Epitopes of human brain acetylcholinesterase
    Zhang, XM
    Liu, G
    Sun, MJ
    BRAIN RESEARCH, 2000, 868 (01) : 157 - 164