TRAIL

Litwack, Gerald

In stock
Regular price 79.500 KD inc. VAT
License
Table of contents
  • Cover
  • Contentsvii
  • Contributorsxvii
  • Prefacexxiii
  • Chapter 1. Specificity of Molecular Recognition Learned from the Crystal Structures of TRAIL and the1
  • I. Introduction: The TNF and TNF Receptor Superfamilies2
  • II. TRAIL and its Receptors3
  • III. Selective Antitumor Activity and Biologic Functions of TRAIL4
  • IV. Overall Structure of TRAIL5
  • V. Zinc Binding and its Critical Role5
  • VI. Unique Frame Insertion in the AA'' Loop8
  • VII. Structure of TRAIL:sDR5 Complex9
  • VIII. Determinants Conferring Specificity of Receptor Recognition12
  • IX. Conclusions and Perspectives13
  • References14
  • Chapter 2. Crystal Structure of RANK Ligand Involved in Bone Metabolism19
  • I. Introduction20
  • II. The OPG/RANKL/RANK System21
  • III. Three-Dimensional Structure of RANKL25
  • IV. Conclusion29
  • References30
  • Chapter 3. Promoter of TRAIL-R2 Gene35
  • I. Introduction36
  • II. Basic Structure of TRAIL-R2 Promoter37
  • III. Regulator of TRAIL-R240
  • IV. Possibility of Cancer Therapy Using TRAIL-R243
  • References45
  • Chapter 4. Transcriptional Regulation of the TRAIL-R3 Gene51
  • I. Introduction: TRAIL and its Receptors52
  • II. Decoy Receptors54
  • III. TRAIL-R356
  • IV. Future Directions60
  • References60
  • Chapter 5. Monoclonal Antibodies Against TRAIL65
  • I. Introduction66
  • II. Overview of Monoclonal Antibodies Against TRAIL67
  • III. Applications of Monoclonal Antibodies Against TRAIL70
  • IV. Physiologic Significance of TRAIL74
  • V. Future Aspects76
  • References76
  • Chapter 6. Modulation of TRAIL Signaling Complex81
  • I. TRAIL: A New Member of TNF Family82
  • II. TRAIL Death Receptors: DR4 and DR583
  • III. TRAIL Decoy Receptors. DcR1, DcR2, and OPG84
  • IV. TRAIL-Induced DISC: Cleavage of Apoptosis Initiating Protease Caspase-885
  • V. TRAIL-Induced Bid Cleavage: Activation of Mitochondrial Pathways87
  • VI. TRAIL-Induced Cell Proliferation: RIP-Mediated NF-kB Activation87
  • VII. TRAIL-Induced c-FLIP Recruitment: DISC Modulation88
  • VIII. TRAIL-Induced PED Recruitment: Differential Modulation of the DISC90
  • IX. TRAIL Physiologic Functions: Tumor Surveillance91
  • X. Recombinant TRAIL: A Novel Cancer Therapeutic Agent91
  • References93
  • Chapter 7. TRAIL and NF kB Signaling„A Complex Relationship101
  • I. Introduction102
  • II. Regulation of TRAIL-Induced Apoptosis by NFkB113
  • III. TRAIL Activates NFkB119
  • References121
  • Chapter 8. CARDINAL Roles in Apoptosis and NFkB Activation133
  • I. Introduction134
  • II. Regulation of NFkB Activation134
  • III. CARD Proteins135
  • IV. CARD Proteins and NFkB Activation135
  • V. Functions of CARDINAL138
  • VI. CARDINAL as a Negative Regulator of Diverse NFkB Activation Pathways138
  • VII. CARDINAL and Apoptosis140
  • VIII. CARDINAL and Caspase-1 Activation140
  • IX. The Inflammasome141
  • X. CARDINAL Contradictions142
  • XI. Conclusions143
  • References143
  • Chapter 9. TRAIL in the Airways149
  • I. Introduction150
  • II. TRAIL: Synthetic and Signaling Pathways150
  • III. Effects of TRAIL in the Airways153
  • IV. Conclusions162
  • References162
  • Chapter 10. TRAIL Death Receptors, Bcl-2 Protein Family, and Endoplasmic Reticulum Calcium Pool169
  • I. Introduction170
  • II. The Endoplasmic Reticulum170
  • III. Endoplasmic Reticulum CA2+ Pools and Regulation of Apoptosis172
  • IV. Concluding Remarks183
  • References185
  • Chapter 11. FLIP Protein and TRAIL-Induced Apoptosis189
  • I. Introduction190
  • II. FLIP: Structure and Mechanisms of Action190
  • III. FLIP Function in Normal Physiology and Disease194
  • IV. TRAIL and FLIP197
  • References199
  • Chapter 12. Epidermal Growth Factor and TRAIL Interactions in Epithelial-Derived Cells207
  • I. Epidermal Growth Factor Receptor–Mediated Cell Survival208
  • II. Epidermal Growth Factor Signaling Pathways209
  • III. Transcriptional Activation213
  • IV. Antiapoptotic Proteins214
  • V. Targeting Epidermal Growth Factor Receptor Signaling for Treatment of Cancer216
  • VI. TRAIL Death Receptors217
  • VII. TRAIL as a Cancer Treatment218
  • VIII. Convergence of the Epidermal Growth Factor and TRAIL Signaling Pathways219
  • References222
  • Chapter 13. TRAIL and Ceramide229
  • I. Introduction230
  • II. TRAIL231
  • III. Sphingolipids234
  • IV. TRAIL and Ceramide243
  • References244
  • Chapter 14. TRAIL and Viral Infection257
  • I. Introduction258
  • II. Apoptosis as a Process of Degradation of Host Cell and Viral Constituents259
  • III. Death Receptor/Ligand Systems260
  • IV. The Cytotoxic Activity of TRAIL Against Virus-Infected Cells262
  • V. Viral Strategies to Circumvent TRAIL-Induced Apoptosis264
  • VI. TRAIL in Virus-Induced Immunosuppression265
  • VII. Viruses and TRAIL in Malignant Disease266
  • VIII. Conclusions268
  • References269
  • Chapter 15. Modulation of TRAIL Signaling for Cancer Therapy275
  • I. Introduction276
  • II. The Core Apoptotic Machinery277
  • III. TRAIL and its Receptors278
  • IV. TRAIL Signaling278
  • V. Defective TRAIL Signaling in Cancers279
  • VI. TRAIL and Cancer Therapy281
  • VII. Conclusions284
  • References285
  • Chapter 16. Interferon-Gamma and TRAIL in Human Breast Tumor Cells291
  • I. Introduction292
  • II. Interferon-y293
  • III. TRAIL System297
  • IV. Regulation by IFN-y of TRAIL-Induced Apoptosis in Breast Tumor Cells303
  • V. Conclusions308
  • References309
  • Chapter 17. Retinoids and TRAIL: Two Cooperating Actors to Fight Against Cancer319
  • I. Introduction320
  • II. Origin of Retinoids322
  • III. Mechanism of Retinoid Action322
  • IV. Anticancer Activity of Retinoic Acids325
  • V. Retinoid Action on Human Cancers328
  • VI. APO2L/TRAIL and its Receptors330
  • VII. Preventive and Therapeutic Potential of Retinoids: The TRAIL Connection334
  • VIII. Future Directions336
  • References338
  • Chapter 18. Potential for TRAIL as a Therapeutic Agent in Ovarian Cancer347
  • I. Introduction348
  • II. Ovarian Cancer348
  • III. Tumor Necrosis Factor–Related Apoptosis-Inducing Ligand351
  • IV. Interleukin-8354
  • V. Role of p38 MAPK in Apoptosis356
  • VI. Summary357
  • References358
  • Chapter 19. TRAIL and Chemotherapeutic Drugs in Cancer Therapy365
  • I. Introduction366
  • II. Receptors for TRAIL367
  • III. Signaling Pathways of TRAIL Receptors368
  • IV. Bioactivity of TRAIL369
  • V. Synergistic Effect of TRAIL and Chemotherapeutic Drugs372
  • VI. Molecular Mechanisms of the Synergistic Effect372
  • VII. Conclusions and Prospects376
  • References377
  • Chapter 20. Additive Effects of TRAIL and Paclitaxel on Cancer Cells: Implications for Advances in C385
  • I. Introduction386
  • II. Tumor Necrosis Factor–Related Apoptosis-Inducing Ligand388
  • III. Paclitaxel392
  • IV. Biologic and Clinical Benefits of TRAIL and Paclitaxel Combination Therapy397
  • V. Conclusions402
  • References403
  • Chapter 21. Regulation of Sensitivity to TRAIL by the PTEN Tumor Suppressor409
  • I. Introduction411
  • II. Regulation of TRAIL-Induced Apoptosis411
  • III. Regulation of the Phosphatidylinositol-3 Kinase Pathway by PTEN414
  • IV. Modulation of TRAIL Sensitivity by the Phosphatidylinositol-3 Kinase/PTEN/Akt Pathway416
  • V. Downstream Targets of the Phosphatidylinositol-3 Kinase/PTEN/Akt Pathway417
  • VI. Strategies for Overcoming TRAIL Resistance419
  • VII. Conclusion421
  • References422
  • Chapter 22. TRAIL and Malignant Glioma427
  • I. Malignant Glioma428
  • II. Apoptosis in Cancer430
  • III. Apoptosis Pathways Overview433
  • IV. TRAIL435
  • V. TRAIL and Glioma437
  • VI. Future Directions444
  • References444
  • Chapter 23. Regulation of TRAIL-Induced Apoptosis by Ectopic Expression of Antiapoptotic Factors453
  • I. Introduction454
  • II. Negative Regulation of TRAIL-Induced Apoptosis458
  • III. Inhibitors of Antiapoptotic Factors as Therapeutic Agents471
  • IV. Effect of TRAIL on Normal Cells473
  • V. Conclusions474
  • References475
  • Index485
Book details
  • Vendor Elsevier S & T
  • SKU 9780127098678
  • ISBN-13 9780080522876
  • Author Litwack, Gerald
  • Category Medical
  • Subject Endocrinology & Metabolism

Do you have questions about this book?

Ask an expert!

The discovery of TRAIL (TNF Related Apoptosis Inducing Ligand), also referred to as Apo-2, is in an era of intense research because TRAIL induces many cancer cells to undergo programmed cell death (apoptosis), while having no effect on normal cells. This important protein deserves extensive review at a formative time in the devlopement of our knowledge concerning its mechanism of action and the ways in which it can be used as a cancer chemotherapeutic agent. Consequently, this voume reviews the current status of research on TRAIL.

Selected Contents:
* Crystal Structure of RANK Ligand involved in bone metabolism
* Promoter of TRAIL-R2 Gene
* Monoclonal Antibodies against TRAIL
* Modulation of TRAIL signaling complex
* TRAIL in the airways
* FLIP Protein and TRAIL-Induced Apoptosis
* TRAIL and Ceramide
* TRAIL and Viral Infection
* TRAIL and Malignant Glioma