Molecular events associated with reactive oxygen species and cell cycle progression in mammalian cells

被引:581
|
作者
Boonstra, J [1 ]
Post, JA [1 ]
机构
[1] Univ Utrecht, Dept Cell Biol, Inst Biomembranes, NL-3584 CH Utrecht, Netherlands
关键词
signal transduction; cell cycle checkpoints; apoptosis; growth arrest; ROS;
D O I
10.1016/j.gene.2004.04.032
中图分类号
Q3 [遗传学];
学科分类号
071007 ; 090102 ;
摘要
Cell cycle progression is regulated by a wide variety of external factors, amongst them are growth factors and extracellular matrix factors. During the last decades evidence has been obtained that reactive oxygen species (ROS) may also play an important role in cell cycle progression. ROS may be generated by external and internal factors. In this overview we describe briefly the generation of ROS and their effects on processes that have been demonstrated to play an essential role in cell cycle progression, including such systems as signal transduction cascades, protein ubiquitination and degradation, and the cytoskeleton. These different effects of ROS influence cell cycle progression dependent upon the amount and duration of ROS exposure. Activation of growth factor stimulated signaling cascades by low levels of ROS result in increased cell cycle progression, or, in case of prolonged exposure, to a differentiation like growth arrest. From many studies it seems clear that the cyclin kinase inhibitor protein p21 plays a prominent role, leading to cell cycle arrest at higher but not directly lethal levels of ROS. Dependent upon the nature of p21 induction, the cell cycle arrest may be transient, coupled to repair processes, or permanent. At high concentrations of ROS all of the above processes are activated, in combination with enhanced damage to the building blocks of the cell, leading to apoptosis or even necrosis. (C) 2004 Elsevier B.V. All rights reserved.
引用
收藏
页码:1 / 13
页数:13
相关论文
共 50 条
  • [1] The influence of reactive oxygen species on cell cycle progression in mammalian cells
    Verbon, Eline Hendrike
    Post, Jan Andries
    Boonstra, Johannes
    [J]. GENE, 2012, 511 (01) : 1 - 6
  • [2] Reactive oxygen species and cell cycle progression of vascular smooth muscle cells
    Sorescu, D
    Lassegue, B
    Chung, AB
    Grant, SL
    Griendling, KK
    [J]. CIRCULATION, 1999, 100 (18) : 479 - 479
  • [3] Requirement of reactive oxygen species for cell cycle progression in vascular smooth muscle cells
    Sorescu, D
    LassEgue, B
    Chung, AB
    Grant, SL
    Griendling, KK
    [J]. FREE RADICAL BIOLOGY AND MEDICINE, 1999, 27 : S116 - S116
  • [4] In Vitro Effects of Papaverine on Cell Proliferation, Reactive Oxygen Species, and Cell Cycle Progression in Cancer Cells
    Gomes, Daniella A.
    Joubert, Anna M.
    Visagie, Michelle H.
    [J]. MOLECULES, 2021, 26 (21):
  • [5] RASA3 Is Involved in Cell Cycle Progression, Hemoglobinization and Generation of Reactive Oxygen Species during Mammalian Erythropoiesis
    Dulmovits, Brian M.
    Zhao, Yue
    Peters, Luanne L.
    Blanc, Lionel
    [J]. BLOOD, 2015, 126 (23)
  • [6] Reactive oxygen species, cell growth, cell cycle progression and vascular remodeling in hypertension
    Vokurkova, Martina
    Xu, Shaoping
    Touyz, Rhian M.
    [J]. FUTURE CARDIOLOGY, 2007, 3 (01) : 53 - 63
  • [7] Reactive oxygen species (ROS), peacemakers between cellular metabolism and cell cycle progression
    Kalen, AL
    Sarsour, EH
    Menon, SG
    Aykin-Burns, N
    Venkataraman, S
    Goswami, PC
    [J]. FREE RADICAL BIOLOGY AND MEDICINE, 2005, 39 : S145 - S145
  • [8] REACTIVE OXYGEN SPECIES ARE MUTAGENIC TO MAMMALIAN-CELLS
    HSIE, AW
    [J]. ANTICARCINOGENESIS AND RADIATION PROTECTION, 1987, : 115 - 119
  • [9] Autophagy, reactive oxygen species and the fate of mammalian cells
    Szumiel, Irena
    [J]. FREE RADICAL RESEARCH, 2011, 45 (03) : 253 - 265
  • [10] Piperine impairs cell cycle progression and causes reactive oxygen species-dependent apoptosis in rectal cancer cells
    Yaffe, Paul B.
    Doucette, Carolyn D.
    Walsh, Mark
    Hoskin, David W.
    [J]. EXPERIMENTAL AND MOLECULAR PATHOLOGY, 2013, 94 (01) : 109 - 114