,

Anticancer Drug Development

Specificaties
Gebonden, blz. | Engels
Elsevier Science | e druk, 2001
ISBN13: 9780120726516
Rubricering
Elsevier Science e druk, 2001 9780120726516
Verwachte levertijd ongeveer 9 werkdagen

Samenvatting

Here in a single source is a complete spectrum of ideas on the development of new anticancer drugs. Containing concise reviews of multidisciplinary fields of research, this book offers a wealth of ideas on current and future molecular targets for drug design, including signal transduction, the cell division cycle, and programmed cell death. Detailed descriptions of sources for new drugs and methods for testing and clinical trial design are also provided.

Specificaties

ISBN13:9780120726516
Taal:Engels
Bindwijze:Gebonden

Inhoudsopgave

<br>Contributors </br><br>Preface</br><br>Chapter 1 A Brief History of Cancer Chemotherapy</br><br> Summary </br><br> 1. Introduction </br><br> 2. Genotoxic (Cytotoxic) Therapy </br><br> 3. Growth Control Pathways </br><br> 4. Host–Tumor Interactions </br><br> 5. Conclusions </br><br> References </br><br>Chapter 2 Novel Targets in the Cell Cycle and Cell Cycle Checkpoints</br><br> Summary </br><br> 1. Introduction </br><br> 2. Molecular Regulation of Cell Cycle Progression </br><br> 3. Molecular Regulation of Cell Cycle Checkpoints </br><br> 4. Rationale for Targeting Cyclin-Dependent Kinases and Cell Cycle Checkpoint Pathways</br><br> 5. Agents and Strategies for Therapeutic Interference </br><br> 6. Conclusions </br><br> References </br><br>Chapter 3 Growth Factor and Signal Transduction Targets for Cancer Therapy</br><br> Summary </br><br> 1. Introduction </br><br> 2. The ErbB Family of Receptor Tyrosine Kinases (RTKs) </br><br> 3. The Ras-Raf-MEK-ERK Signaling Pathway </br><br> 4. c-Src Kinase, Signal Transduction, Transformation, and Cancer </br><br> 5. Akt </br><br> 6. Nuclear Hormone Receptors as Targets for Cancer Therapy </br><br> 7. Implications for Drug Discovery and Development </br><br> References </br><br>Chapter 4 Cell Death Pathways as Targets for Anticancer Drugs</br><br> Summary </br><br> 1. Introduction </br><br> 2. Two Main Pathways for Drug-Induced Apoptosis </br><br> 3. Modulation of Drug-Induced Cell Death by Bcl-2 and Related Proteins </br><br> 4. The Central Role of Caspases in Drug-Induced Apoptosis </br><br> 5. Synergy between Death Receptors and Cytotoxic Drugs </br><br> 6. The Rel/NF-kB/IkB Proteins </br><br> 7. Conclusion </br><br> References </br><br>Chapter 5 Drug Resistance Pathways as Targets</br><br> Summary </br><br> 1. Introduction </br><br> 2. Targeting Drug Transport </br><br> 3. Targeting Cellular Stress Responses </br><br> 4. Targeting DNA Repair Systems </br><br> 5. Conclusions </br><br> References </br><br>Chapter 6 Role of Matrix Metalloproteinases and Plasminogen Activators in Cancer Invasion and Metastasis: Therapeutic Strategies</br><br> Summary </br><br> 1. Introduction </br><br> 2. The Extracellular Matrix </br><br> 3. Cancer Invasion and Metastasis </br><br> 4. Cell Adhesion in Cancer </br><br> 5. Cancer Cell Motility </br><br> 6. Inflammatory Response to Cancer </br><br> 7. Proteolytic Enzymes Implicated in Cancer Invasion </br><br> 8. MMPIs as Novel Anticancer Agents </br><br> 9. Sheddases </br><br> 10. The uPA System: Proteolytic Control of MMP Activation </br><br> References </br><br>Chapter 7 Tumor Vasculature as a Target</br><br> Summary </br><br> 1. Introduction </br><br> 2. How to Inhibit Tumor Angiogenesis </br><br> 3. Concluding Remarks </br><br> References </br><br>Chapter 8 Gene-Directed Enzyme Prodrug Therapy</br><br> Summary </br><br> 1. Introduction </br><br> 2. Background </br><br> 3. Enzyme-Prodrug Systems </br><br> 4. Tailored Prodrugs for GDEPT </br><br> 5. The Activation Process </br><br> 6. Augmenting the Effect </br><br> 7. Exploiting the Bystander Effect and Acquired Immunity </br><br> 8. Conclusions </br><br> References </br><br>Chapter 9 Tumor Antigens as Targets for Anticancer Drug Development</br><br> Summary </br><br> 1. Introduction </br><br> 2. Antigen Targets for Cancer Vaccines </br><br> 3. Tumor Antigens as Targets for Antibody-Based Therapeutics </br><br> References </br><br>Chapter 10 Structure-Based Drug Design and its Contributions to Cancer Chemotherapy</br><br> Summary </br><br> 1. Introduction</br><br> 2. Antimetabolites </br><br> 3. Protease Inhibitors </br><br> 4. Protein Kinase Inhibitors </br><br> 5. Other Targets</br><br> 6. Novel Methods in Structure-Based Drug Design </br><br> 7. Conclusions and Current Questions </br><br> References </br><br>Chapter 11 The Contribution of Synthetic Organic Chemistry to Anticancer Drug Development</br><br> Summary </br><br> 1. Introduction </br><br> 2. Early Rationality </br><br> 3. The Random Screening Era: Directly from Screen to Clinic </br><br> 4. Organic Synthesis Catches Up: Development of National Product Leads </br><br> 5. Development of Synthetic Compounds: Structure–Activity Relationships </br><br> 6. Immunotoxins: Synthetic Organic Chemistry Applied to Large Molecules </br><br> 7. Organic Synthesis in Rational Design: Tumor-Activated Prodrugs of Cytokines </br><br> 8. Early Genomics: Inhibitors of Transmembrane Tyrosine Kinases </br><br> 9. The Genomics/Proteomics Era: Combinatorial Chemistry </br><br> 10. Conclusion </br><br> References </br><br>Chapter 12 Biosynthetic Products for Anticancer Drug Design and Treatment: The Bryostatins</br><br> Summary </br><br> 1. Introduction </br><br> 2. Background to the Bryostatins </br><br> 3. Comprehensive Review of Bryostatin Scientific and Medical Reports </br><br> References </br><br>Chapter 13 DNA-Encoded Peptide Libraries and Drug Discovery</br><br> Summary </br><br> 1. Introduction </br><br> 2. Methods for DNA-Encoded Peptide Display </br><br> 3. Applications for DNA-Encoded Peptide Libraries </br><br> 4. Conclusions </br><br> References </br><br>Chapter Mechanism-Based Highthroughput Screening for Novel Anticancer Drug Discovery</br><br> Summary </br><br> 1. Importance of Mechanism-Based Targets in Postgenomic Drug Discovery </br><br> 2. High-Throughput Screening </br><br> 3. Assay Technologies </br><br> 4. Assay Performance and Downstream Evaluation of Bits </br><br> 5. Compounds for HTS </br><br> 6. Examples of Compounds Identified Through Screening Approaches </br><br> 7. Future HTS Developments </br><br> 8. Concluding Remarks </br><br> References </br><br>Chapter 15 Tumor Cell Cultures in Drug Development</br><br> Summary </br><br> 1. Introduction </br><br> 2. Growth Inhibition Assays </br><br> 3. Clonogenic Assays </br><br> 4. Three-Dimensional Cell Cultures: Modeling Extravascular Drug Transport </br><br> 5. Modeling of in Vivo Activity by in Vitro Assays </br><br> 6. Perspective </br><br> References </br><br>Chapter 16 Screening Using Animal Systems</br><br> Summary </br><br> 1. Introduction </br><br> 2. Choice of in Vivo Systems for Large-Scale Drug Development </br><br> 3. Combined in Vitro/in Vivo Testing Procedure Using Human Tumor Xenografts—The Freiburg Experience </br><br> 4. Use of Transgenic Animals in the Search for New Drugs </br><br> 5. Screening for Angiogenesis Inhibitors </br><br> References </br><br>Chapter 17 Relevance of Preclinical Pharmacology and Toxicology to Phase I Trial Extrapolation Techniques: Elevance of Animal Toxicology</br><br> Summary </br><br> 1. Introduction </br><br> 2. Historical Perspective </br><br> 3. Special Toxicity Evaluations </br><br> 4. Recent Examples of Drug Development at NCI </br><br> 5. Predictability of Nonclinical Animal Data </br><br> 6. Conclusions </br><br> References </br><br>Chapter 18 Clinical Trial Design: Incorporation of Pharmacokinetic, Pharmacodynamic, and Pharmacogenetic Principles</br><br> Summary </br><br> 1. Introduction </br><br> 2. Rationale for Chemotherapy Optimization</br><br> 3. Pharmacokinetic–Pharmacodynamic Relationships </br><br> 4. Pharmacogenetics </br><br> 5. Strategies to Improve Therapeutic Index </br><br> 6. Conclusion and Perspectives </br><br> References </br><br>Chapter 19 Tumor Imaging Applications in the Testing of New Drugs</br><br> Summary </br><br> 1. Introduction </br><br> 2. Positron Emission Tomography </br><br> 3. PET in New Drug Evaluation </br><br> 4. Conclusions </br><br> References </br><br>Chapter 20 Mechanistic Approaches to Phase I Clinical Trials</br><br> Summary </br><br> 1. Introduction </br><br> 2. Mechanism-Based Studies of Established Anticancer Agents to Assess Target Inhibition </br><br> 3. Mechanistic Trial Perspectives on Anticancer Agents with Novel Mechanisms </br><br> 4. Potential of PET Scanning in the Assessment of Pharmacodynamic End Points </br><br> 5. Conclusion </br><br> References </br><br>Index </br>

Rubrieken

Populaire producten

    Personen

      Trefwoorden

        Anticancer Drug Development