The oxidative environment and protein damage

被引:1113
作者
Davies, MJ [1 ]
机构
[1] Heart Res Inst, Sydney, NSW 2050, Australia
来源
BIOCHIMICA ET BIOPHYSICA ACTA-PROTEINS AND PROTEOMICS | 2005年 / 1703卷 / 02期
基金
英国医学研究理事会; 澳大利亚研究理事会;
关键词
protein oxidation; free radical; oxidant; fragmentation; cross-linking; methionine; methionine sulfoxide;
D O I
10.1016/j.bbapap.2004.08.007
中图分类号
Q5 [生物化学]; Q7 [分子生物学];
学科分类号
071010 ; 081704 ;
摘要
Proteins are a major target for oxidants as a result of their abundance in biological systems, and their high rate constants for reaction. Kinetic data for a number of radicals and non-radical oxidants (e.g. singlet oxygen and hypochlorous acid) are consistent with proteins consuming the majority of these species generated within cells. Oxidation can occur at both the protein backbone and on the amino acid side-chains, with the ratio of attack dependent on a number of factors. With some oxidants, damage is limited and specific to certain residues, whereas other species, such as the hydroxyl radical, give rise to widespread, relatively non-specific damage. Some of the major oxidation pathways, and products formed, are reviewed. The latter include reactive species, such as peroxides, which can induce further oxidation and chain reactions (within proteins, and via damage transfer to other molecules) and stable products. Particular emphasis is given to the oxidation of methionine residues, as this species is readily oxidised by a wide range of oxidants. Some side-chain oxidation products, including methionine sulfoxide, can be employed as sensitive, specific, markers of oxidative damage. The product profile can, in some cases, provide valuable information on the species involved; selected examples of this approach are discussed. Most protein damage is non-repairable, and has deleterious consequences on protein structure and function; methionine sulfoxide formation can however be reversed in some circumstances. The major fate of oxidised proteins is catabolism by proteosomal and lysosomal pathways, but some materials appear to be poorly degraded and accumulate within cells. The accumulation of such damaged material may contribute to a range of human pathologies. (C) 2004 Elsevier B.V. All rights reserved.
引用
收藏
页码:93 / 109
页数:17
相关论文
共 191 条
[81]   Markers of protein oxidation: Different oxidants give rise to variable yields of bound and released carbonyl products [J].
Headlam, HA ;
Davies, MJ .
FREE RADICAL BIOLOGY AND MEDICINE, 2004, 36 (09) :1175-1184
[82]   Beta-scission of side-chain alkoxyl radicals on peptides and proteins results in the loss of side-chains as aldehydes and ketones [J].
Headlam, HA ;
Davies, MJ .
FREE RADICAL BIOLOGY AND MEDICINE, 2002, 32 (11) :1171-1184
[83]   MECHANISM OF THE OH. RADICAL INDUCED OXIDATION OF METHIONINE IN AQUEOUS-SOLUTION [J].
HILLER, KO ;
MASLOCH, B ;
GOBL, M ;
ASMUS, KD .
JOURNAL OF THE AMERICAN CHEMICAL SOCIETY, 1981, 103 (10) :2734-2743
[84]   OXIDATION OF METHIONINE BY X2(-) IN AQUEOUS-SOLUTION AND CHARACTERIZATION OF SOME S-X 3-ELECTRON BONDED INTERMEDIATES - A PULSE-RADIOLYSIS STUDY [J].
HILLER, KO ;
ASMUS, KD .
INTERNATIONAL JOURNAL OF RADIATION BIOLOGY, 1981, 40 (06) :583-595
[85]   Disulfide bonds as switches for protein function [J].
Hogg, PJ .
TRENDS IN BIOCHEMICAL SCIENCES, 2003, 28 (04) :210-214
[86]   AGE-RELATED-CHANGES IN THE COMPOSITION OF PROTEINS IN THE TRABECULAR MESHWORK OF THE HUMAN-EYE [J].
HORSTMANN, HJ ;
ROHEN, JW ;
SAMES, K .
MECHANISMS OF AGEING AND DEVELOPMENT, 1983, 21 (02) :121-136
[87]   METHIONINE SULFOXIDE CYTOCHROME-C [J].
IVANETICH, KM ;
BRADSHAW, JJ ;
KAMINSKY, LS .
BIOCHEMISTRY, 1976, 15 (05) :1144-1153
[88]   DYE-SENSITIZED SELECTIVE PHOTOOZIDATION OF METHIONINE [J].
JORI, G ;
GALIAZZO, G ;
MARZOTTO, A ;
SCOFFONE, E .
BIOCHIMICA ET BIOPHYSICA ACTA, 1968, 154 (01) :1-&
[89]  
JORI G, 1970, J BIOL CHEM, V245, P3375
[90]   PHOTODYNAMIC ACTION OF PORPHYRINS ON AMINO ACIDS AND PROTEINS .I. SELECTIVE PHOTOOXIDATION OF METHIONINE IN AQUEOUS SOLUTION [J].
JORI, G ;
GALIAZZO, G ;
SCOFFONE, E .
BIOCHEMISTRY, 1969, 8 (07) :2868-&