Mechanisms of hypochlorous acid mediated neuronal cell death

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Mechanisms of hypochlorous acid mediated neuronal cell death

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MECHANISMS OF HYPOCHLOROUS ACID-MEDIATED NEURONAL CELL DEATH YAP YANN WAN (B SC (HONS.), NUS) A THESIS SUBMITTED FOR THE DEGREE OF MASTER OF SCIENCE DEPARTMENT OF BIOCHEMISTRY NATIONAL UNIVERSITY OF SINGAPORE 2006 Acknowledgements First and foremost, to my supervisor, Dr Steve Cheung, for guiding so hard on this project and for truly understanding when the experiments not working so well And to Prof Tan Chee Hong and Prof Matthew Whiteman, for their valuable suggestion and help My sincere appreciation to the entire lab, with special thanks to Meng Shyan, Vivien and Sze Jee My thanks as well to Dr Peng Zhao Feng For their generous assistance in the experiments and data analyses, I would like to acknowledge Prof Bay Boon Huat, Prof Sheu Fwu Shan and his student Ms Li Yuhong, as well as Prof Alirio J Melendez i Table of Contents Contents Page Acknowledgements i Table of Contents ii viii Summary Publications x List of Tables xi List of Figures xii List of Abbreviations Used in Text xiii Chapter 1.1 INTRODUCTION Neurons die by apoptosis in neurodegenerative disorders 1.1.1 Types of cell death: apoptosis and necrosis 1.1.2 Apoptosis – a feature of neurologic diseases 1.1.3 Executioners of apoptotic cell death 1.2 1.1.3.1 Caspases 1.1.3.2 Calpains 1.1.3.3 Lysosome and cathepsin proteases Oxidative stress and neurodegenerative diseases 1.2.1 Evidences of oxidative stress in neurodegenerative diseases 10 11 1.2.1.1 Elevation of oxidized biomolecules 11 1.2.1.2 Changes of endogenous defense mechanisms 12 1.2.2 Phagocytes are mediators of oxidative stress 13 1.2.3 Oxidants generated by activated phagocytes 14 ii Contents Page 1.3 19 HOCl: an under appreciated mediator of neurodegeneration 1.3.1 Evidences for HOCl as a mediator of neurodegeneration 1.3.1.1 Parkinson’s disease 19 1.3.1.2 Alzheimer’s disease 20 1.3.1.3 Cerebral ischemia 21 1.3.1.4 Multiple sclerosis 21 1.3.2 Possible routes of HOCl generation in diseased brain 1.3.2.1 1.3.3 Sources of H2O2 22 22 1.3.2.1.1 NADPH oxidase 22 1.3.2.1.2 Other H2O2-generating enzymes 24 1.3.2.2 1.4 19 Sources of MPO Destructive effects of HOCl generation 25 26 1.3.3.1 Direct damage of biomolecules 26 1.3.3.2 Destruction of extracellular matrix 28 1.3.3.3 Cell death 29 Rationale and objective of the study 30 1.4.1 Rationale 30 1.4.2 Objective 30 Chapter 2.1 MATERIALS AND METHODS Primary culture of mouse cortical neurons 2.1.1 Plate coating 32 33 33 iii Contents 2.1.2 Page Cell culture 33 2.2 Measurement of HOCl 34 2.3 Induction of apoptosis 34 2.4 Assessment of cellular viability 35 2.5 Morphological assessment of cell death 36 2.6 Transmission electron microscopy 36 2.7 Western blotting 37 2.7.1 Protein extraction 37 2.7.2 Protein determination 37 2.7.3 Sample preparation for protein electrophoresis 38 2.7.4 SDS-polyacrylamide gel preparation 38 2.7.4.1 Pouring resolving gel 38 2.7.4.2 Pouring stacking gel 39 2.7.5 Protein electrophoresis 39 2.7.6 Blotting Transfer proteins from gel to PVDF 39 2.7.7 Blocking 40 2.7.8 Probing the blot 40 2.7.9 Detection 41 2.7.10 Stripping and reprobing blot 41 2.8 Caspase activity measurement 41 2.9 Fluorochrome-labeled inhibitors of caspases (FLICA) staining 42 2.10 Intracellular Ca2+ measurement 42 iv Contents Page 2.11 Assessment of lysosomal membrane integrity 44 2.12 Microarray analyses 45 2.12.1 Target preparation 2.12.1.1 Total RNA extraction 45 45 2.12.1.2 Quantity, purity and integrity determination of extracted total RNA 46 2.12.1.3 One-cycle cDNA synthesis and its clean-up 46 2.12.1.4 Synthesis and clean-up of biotin-labeled cRNA 49 2.12.1.5 Quantification of cRNA 50 2.12.1.6 50 Fragmenting the cRNA 2.12.2 Target hybridization 50 2.12.2.1 Reagent preparation for target hybridization 51 2.12.2.2 Hybridization 51 2.12.3 Washing and staining of hybridized arrays 52 2.12.4 Probe array scan and data analyses 53 2.13 ATP and GSH measurement 54 2.14 Statistical analyses 55 Chapter HOCL-MEDIATED NEURONAL APOPTOSIS 56 3.1 Introduction 57 3.2 Treatment of HOCl causes concentration-dependent cell injury 57 3.3 HOCl mediates apoptosis-necrotic continuum neuronal cell death 59 v Contents Chapter Page THE UNDERLYING MECHANISMS OF HOCl-INDUCED APOPTOSIS 62 4.1 Introduction 63 4.2 Caspase involvement in HOCl-induced apoptosis 63 4.3 HOCl stimulates calpain activation and calpain inhibitors provide protection against HOCl-induced cell death 67 4.4 Intracellular Ca2+ levels are increased in HOCl-treated cortical neurons 69 4.5 Extracellular and intracellular pools are sources for elevated Ca2+ 70 4.6 Rupture of lysosomes followed calpain activation 72 4.7 HOCl-induced apoptosis is rescued by inhibitors of cathepsins D and L 74 Chapter APOPTOTIC AND SURVIVAL MECHANISMS INDUCED BY HOCl: A MICROARRAY STUDY 75 5.1 Introduction 76 5.2 Differentially expressed genes upon HOCl treatment 76 5.3 Validation of microarray analysis 86 5.4 HOCl induces changes on apoptosis-related genes expression 87 5.5 HOCl stimulates stress response: maintenance of cellular redox state 87 5.6 HOCl causes the salvage of energy: maintenance of cellular ATP level 88 Chapter DISCUSSION AND CONCLUSION 90 6.1 Introduction 91 6.2 HOCl mediates concentration-dependent apoptosis-necrotic continuum neuronal cell death Underlying mechanisms of neuronal apoptosis caused by HOCl 91 6.3 93 vi Contents Page 6.4 101 HOCl-induced cellular adaptation at gene expression level 6.4.1 Suppression of cell cycle genes 101 6.4.2 Induction of Nrf2-ARE pathway (namely programmed cell life pathway) 101 6.4.3 103 Energy salvage 6.5 Drawbacks of current study 105 6.6 Concluding remarks and future directions 106 References 108 vii Summary Oxidative stress has been implicated as playing a role in neurodegenerative disorders, such as ischemic stroke, Alzheimer’s, Huntington’s, and Parkinson’s disease Persuasive evidences have shown that microglial-mediated oxidative stress contributes significantly to cell loss and accompanying cognitive decline characteristic of the diseases Based on the facts that (i) levels of catalytically active myeloperoxidase are elevated in diseased brains and (ii) myeloperoxidase polymorphism is associated with the risk of developing neurodegenerative disorders, HOCl as a major oxidant produced by activated phagocytes in the presence of myeloperoxidase is therefore suggested to be involved in neurodegeneration Its association with neurodegeneration is further showed by elevated level of 3-chlorotyrosine (bio-marker of HOCl in vivo) in affected brain regions as well as HOCl scavenging ability of neuroprotectants, desferrioxamine and uric acid Therefore, primary mouse cortical neurons treated with HOCl were employed to investigate the mechanistic insight of HOCl on neuronal cell death The current study reports for the first time that HOCl mediates concentration-dependent apoptosis-necrotic continuum neuronal cell death Neurotoxicity caused by intermediate concentration of HOCl (250 μM) exhibited ATP depletion and several biochemical markers of apoptosis in the absence of caspase activation Yet, the involvement of calpains was demonstrated by data showing that calpain inhibitors protect cortical neurons from apoptosis and the formation of 145/150 kDa α-fodrin fragments Further, elevation of cytosolic calcium concentration was observed and calcium channel antagonists and EGTA prevented cleavage of α-fodrin and the induction of apoptosis Finally, calpain activation causes the onset of lysosomal pathway With the aid of DNA microarray, orphan nuclear receptor viii Nr4a1 that engaged in caspase-independent cell death was up-regulated nearly 10 folds after h of treatment In addition, three survival mechanisms such as suppression of cell cycle genes, induction of NF-E2-related factor-2-antioxidant response element (Nrf2ARE) pathway and down-regulation of genes involved in energy-dependent processes were identified at gene expression level In conclusion, the present study proposes that HOCl triggers caspase-independent 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  • 2.1 PRIMARY CULTURE OF MOUSE CORTICAL NEURONS

  • 2.4 ASSESSMENT OF CELLULAR VIABILITY

  • 2.5 MORPHOLOGICAL ASSESSMENT OF CELL DEATH

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