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Calcium signalling in cancer / Gajanan V. Sherbet.
Holman Biotech Commons RC268.5 .S53 2001
Available
- Format:
- Book
- Author/Creator:
- Sherbet, G. V. (Gajanan V.)
- Language:
- English
- Subjects (All):
- Carcinogenesis.
- Calcium-binding proteins.
- Metastasis.
- Cancer invasiveness.
- Neoplasm Proteins--physiology.
- Calcium Signaling--physiology.
- Calcium-Binding Proteins--physiology.
- Cell Differentiation--physiology.
- Neoplasm Invasiveness.
- Neoplasm Metastasis.
- Medical Subjects:
- Neoplasm Proteins--physiology.
- Calcium Signaling--physiology.
- Calcium-Binding Proteins--physiology.
- Cell Differentiation--physiology.
- Neoplasm Invasiveness.
- Neoplasm Metastasis.
- Physical Description:
- 361 pages : illustrations ; 24 cm
- Place of Publication:
- Boca Raton : CRC, [2001]
- Summary:
- Calcium Signaling in Cancer is a concise up-to-date treatise on the transduction signals that are induced by calcium. It also considers how alterations in this calcium-dependent signal transduction pathway are related to a number of human diseases, especially focusing on neoplastic transformation. This authoritative text examines the various signaling pathways along with associated mechanisms and examines a broad range of topics-from mechanisms and significance of calcium homeostasis for normal cell function to calcium signaling pathways and the transduction of the calcium signal especially in proliferation, cell motility, cancer invasion and metastasis with emphasis on the role played by calcium binding proteins in these processes.
- Contents:
- Chapter 2 The Calcium Signalling Pathway 5
- Homeostasis of Cell Calcium 5
- The Plasma Membrane Ca[superscript 2+]-ATPase Pump 5
- The Sarcoplasmic-Endoplasmic Reticulum Ca[superscript 2+]-ATPase Pump 7
- Voltage-Gated Calcium Channels 8
- The Deregulation of Calcium Homeostasis as a Primary Event in Carcinogenesis 9
- Phospholipid Signalling 10
- PTEN Phosphatase in the Regulation of Lipid Signalling 11
- The Protein Kinase C Pathway 13
- Protein Kinase C and Its Isoforms in Signal Transduction 14
- Inositol Phosphates in Calcium Signal Transduction 16
- Deregulation of Inositol 1,4,5-Trisphosphate Pathway and Its Consequences 18
- Ryanodine and Related Receptors in Calcium Mobilisation 20
- Cyclic AMP in Calcium Signalling 21
- Architectural Aspects of the Signal Transduction Machinery 25
- The Role of Caveolae in Signal Transduction 25
- Caveolin Expression in Cancer 28
- Chapter 3 Calcium Binding Proteins and Their Natural Classification 29
- Chapter 4 Non-EF-Hand Calcium Binding Proteins 35
- Annexins 35
- Structure 35
- Biologic Functions 36
- Annexins in Cancer Growth and Progression 38
- Annexins in Morphogenesis and Differentiation 39
- The Gelsolin Family of Calcium Binding Proteins 40
- Gelsolin in Severing and Capping of Actin Filaments 40
- Gelsolin in Embryonic Development and Morphogenesis 41
- Gelsolin Expression in Amyloidosis 42
- Gelsolin in Cancer 42
- Severin and Cytoskeletal Reorganisation 44
- Villin in Differentiation and Neoplasia 44
- Calreticulin and Its Functional Diversity 46
- Structure and Molecular Features of Calreticulin 46
- Regulation of Calreticulin Expression 46
- Phosphorylation of Calreticulin 47
- Intracellular Distribution of Calreticulin 48
- Calreticulin in Intracellular Calcium Storage 48
- Calreticulin and Calnexin as Molecular Chaperones 49
- Calreticulin in Cell Proliferation and Differentiation 50
- Calreticulin in Cell Adhesion 50
- Calreticulin in Neoplasia 51
- Immunological Implications of Calreticulin Function 52
- Calsequestrin and Intracellular Calcium Storage 53
- Osteocalcin in Bone Metabolism and Osteotropism of Cancer 54
- The Biology of Osteocalcin 54
- Calcium-Binding Properties of Osteocalcin 55
- Osteocalcin Gene Structure and Function 55
- Regulation of Osteocalcin by Vitamin D3 56
- Osteocalcin in Cell Proliferation and Differentiation 57
- Osteotropism of Metastatic Dissemination 60
- Chapter 5 The EF-Hand Calcium-Binding Proteins 63
- Molecular Organisation of Calcium Binding EF-Hand Proteins 63
- Calcium Binding and the Molecular Configuration of Calcium-Binding Proteins 65
- The Structure and Organisation of S100 Family Genes 68
- Alternatively Spliced Variants of S100A4 68
- Functional Significance of Alternatively Spliced Isoforms 69
- Regulation of Expression of S100 Family Genes 71
- Transcriptional Regulation of S100 Genes 71
- Regulation of Gene Expression by DNA Methylation 72
- DNA Methylation in Cancer 72
- Regulation of S100 Gene Transcription by Methylation 74
- Chapter 6 The Calmodulin Family of Calcium Binding Proteins 75
- Calmodulin and Its Physiological Function 75
- Structure and Mode of Action of Calmodulin 75
- Calmodulin-Mediated Signal Transduction 76
- Calmodulin and Cell Proliferation 77
- Calmodulin in Neoplasia 78
- Recoverin Subfamily of Neural Calcium-Binding Proteins and Their Function 79
- The G-Protein Signalling Pathway 79
- Recoverin and Its Function 80
- Mode of Action of Recoverin 82
- Post-translational Modification of Recoverin 82
- Recoverin and Cancer-Associated Retinopathy 83
- Recoverin and Cancer-Associated Retinopathy in Small Cell Lung Cancer 83
- Retinopathy Associated with Other Forms of Human Cancer 84
- Is Recoverin Involved in Retinitis Pigmentosa? 85
- Guanylate Cyclase-Activating Proteins 85
- Chapter 7 The Structure of Contractile Proteins 87
- The Actin Component of Contractile Machinery of the Cell 87
- Actin Isoforms 87
- Regulation of Actin Dynamics 88
- Cofilin in the Regulation of Actin Dynamics 88
- Profilin in the Regulation of Actin Dynamics 90
- Rho GTPases in Actin Dynamics and Signal Transduction 90
- Interaction of Formin with Profilin and Rho GTPases 92
- The Role of Thymosin Family Actin-Binding Proteins in Actin Dynamics 93
- Sequestration of Actin by Thymosins 93
- Effects of Thymosins on Cell Proliferation 93
- Thymosins and Cell Motility and Differentiation 94
- Expression of Thymosins in Embryonic Development 94
- Potential Role of Thymosins in Cancer Progression 95
- The Fimbrin Family of Actin-Binding Proteins 96
- Molecular Features of Fimbrin 96
- Function of Fimbrin in Cytoskeletal Organisation 97
- Regulation of Fimbrin Expression 99
- Is Fimbrin Involved in Cancer? 100
- Modulation of Actin Dynamics and Cancer Cell Dissemination 101
- [alpha]-Actinin 102
- Molecular Structure of [alpha]-Actinin 102
- [alpha]-Actinin Isoforms 103
- Function of [alpha]-Actinin 104
- Actinins in Cell Adhesion, Motility, and Signal Transduction 104
- The Cadherin
- Catenin Complex in Signal Transduction and Cell Adhesion 104
- Myosin Filaments 110
- Myosin Heavy Chain (MHC) Isoforms 111
- Actomyosin Assembly 112
- Myosin Light Chain (MLC) Phosphorylation and Function 115
- Troponins and Tropomyosins in the Regulation of Muscle Cell Contraction 118
- The Regulatory Role of Troponins and Tropomyosins in Muscle Contraction 118
- Tropomyosin Isoforms in Benign and Malignant Cells 119
- The Regulatory Role of Caldesmon 121
- Calponin: Its Function and Regulation 122
- Caltropin-Mediated Reversal of Myosin-ATPase Inhibition by Caldesmon and Calponin 124
- Chapter 8 Structure and Biology of Calbindin 125
- Calbindin in Neuronal Populations 125
- Neural Cell Lineage and the Regulation of Calbindin Expression 125
- Calbindin Expression in Embryonic Development and Ageing 126
- Physiological Function of Calbindin 127
- Neuroprotective Function of Calbindin 129
- Calbindin Expression and the Metastatic Phenotype 129
- Chapter 9 Calretinin: Its Role in Cell Differentiation and as a Potential Tumour Marker 131
- Calretinin and Its Alternatively Spliced Isoforms 131
- Regulation of Calretinin Expression 132
- Calretinin Expression in Cell Proliferation and Differentiation 133
- Calretinin and Its Possible Neuroprotective Property 133
- Calretinin as a Potential Tumour Marker 133
- Chapter 10 Calcineurin in Cell Proliferation, Cell Adhesion, and Cell Spreading 135
- Molecular Features of Calcineurin 135
- Calcineurin in Cell Proliferation and Adhesion-Related Phenomena 136
- Putative Role of Calcineurin in Cell Cycle Progression 136
- The Effects of Calcineurin on Cell Adhesion and Motility 138
- Calcineurin in Alzheimer's Disease 140
- Calcineurin in Immunosuppression 141
- Chapter 11 Centrins (Caltractins) and Their Biological Functions 145
- Chapter 12 Reticulocalbin Family of EF-Hand Proteins 149
- Molecular Features of Reticulocalbin Homologues 150
- Putative Functions of Reticulocalbin and Its Homologues 150
- Chapter 13 Calpains in Normal and Aberrant Cell Physiology 153
- The Calpain Family of Calcium-Binding Proteins 153
- Molecular Organisation of Calpains 154
- Regulation of Physiological Events by Proteolytic Function 155
- Involvement of Calpains in Development and Differentiation 157
- Calpains in Cell Proliferation and Apoptosis 158
- Calpains in Cell Spreading and Migration 160
- Calpains in Integrin-Mediated Cell Adhesion and Signal Transduction 161
- Calpains in Cancer Growth and Progression 162
- Calpains in Myelodegenerative Diseases 163
- Calpains in Muscular Dystrophy 165
- Association of Calpains with Duchenne Muscular Dystrophy 165
- Calpains and Limb Girdle Muscular Dystrophy 166
- Chapter 14 Caspases in Apoptosis, Cell Migration, Proliferation, and Neoplasia 169
- Caspases in Apoptotic Cell Death 169
- Poly (ADP-Ribose) Polymerase as a Marker of Apoptosis 172
- Caspase-Mediated Apoptosis and Cell Growth Inhibition in Tumour Expansion 173
- Caspase-Mediated Proteolysis of Fodrin: Implications for Apoptosis, Cell Adhesion, Cell
- Migration, and Neoplastic Transformation 176
- Caspases and Neuronal Loss in Alzheimer's Disease 177
- Chapter 15 Parvalbumins in Neuronal Development, Differentiation, and Proliferation 181
- Chapter 16 Osteonectin in Cell Function and Behaviour 183
- Molecular Structure of Osteonectin 183
- Functions and Functional Domains of Osteonectin 184
- Regulation of Osteonectin Expression 184
- Osteonectin in the Remodelling of the Extracellular Matrix 186
- Osteonectin in Embryonic Development and Differentiation 187
- Modulation of Cellular Adhesion, Cell Shape, and Motility by Osteonectin 188
- Modulation of Cell Proliferation by Osteonectin 190
- Effects of Osteonectin on Angiogenesis 191
- Osteonectin Expression in Cancer Development and Progression 193
- Osteonectin Involvement in Other Disease States 196
- Osteonectin Homologues and Their Putative Tumour Suppressor Properties 197
- Chapter 17 S100 Proteins: Their Biological Function and Role in Pathogenesis 199
- S100 Proteins in Cell Differentiation, Motility, and Cancer Invasion 202
- Profilaggrin (FLG) in Keratinocyte Differentiation 202
- The Molecular Characteristics of Profilaggrin 202
- Trichohyalin (THH) 205
- Effects of S100 Proteins on Cell Deformability and Cellular Morphology 205
- Cell Adhesion and Invasive Potential of Cancer Cells 210
- S100 Proteins in Remodelling of the Extracellular Matrix 213
- S100 Proteins in Cell Proliferation 214
- Cell Cycle-Related Expression of S100 Proteins 217
- Postulated Mechanism of Cell Cycle Control by S100A4 219
- S100A Isoforms 222
- S100A2 as a Putative Tumour Suppressor 223
- S100A3 Expression in Cell Differentiation and Neoplasia 224
- Molecular Features of S100A3 224
- S100A3 Expression in Cell Differentiation and Human Gliomas 225
- S100A4 in Cancer Development and Progression 225
- S100A4 Expression and Metastatic Potential of Cancers 225
- Clinical Potential of S100A4 as a Marker for Cancer Prognosis 230
- S100A4 in Human Breast Cancer 230
- S100A4 in Other Forms of Human Cancer 234
- S100A6 (Calcyclin) in Cancer 235
- The Biological Properties of S100A7 (Psoriasin) 236
- Structure and Molecular Properties of S100A7 236
- S100A7 in Skin Pathology 237
- S100A7 in Neoplastic Disease 238
- S100A8 and S100A9 Proteins in Inflammatory Diseases 239
- S100A11 (S100C) and Possible Modes of its Function 239
- S100P in Cancer Progression 241
- S100P and Its Putative Functions 241
- Potential Value of S100 Proteins as Markers of Cancer Progression and Prognosis 243.
- Notes:
- Includes bibliographical references (pages 249-348) and index.
- ISBN:
- 0849309425
- OCLC:
- 44721140
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