edited by Tushar Kshirsagar
High Throughput-Screening in Drug Discovery describes the application of parallel synthesis to lead optimization and the design and synthesis of targeted libraries.
Features:
- Describes parallel synthesis approaches in combination with structure-based design of molecules that inhibit protein-protein interactions
- Covers the expansion of medicinal chemistry design concepts in the synthesis of HIV reverse transcription inhibitors
- Explores the development of novel ALK inhibitors and the melanocortin receptor agonists
- Elucidates the use of L- and D-amino acids for the synthesis of anticancer, antiviral, and anti-inflammatory compounds
- Explains the optimization of peptides, natural products, and glycoconjugates for a range of targets
- Discusses the synthesis of nucleotide-based libraries as potential antibiotics
- Illustrates several synthetic approaches for the efficient use and effective synthesis of focused libraries using parallel synthesis
Contents
- Introduction and Review
- Application of Parallel Synthesis to the Optimization of Inhibitors of the ZipA-FtsZ Protein-Protein Interaction
- Case Studies of Parallel Synthesis in Hit Identification, Hit Exploration, Hit-to-Lead, and Lead Optimization Programs
- A Successful Application of Parallel Synthesis to Computer-Assisted Structural Optimization of New Leads Targeting Human Immunodeficiency Virus-1 Reverse Transcriptase: The Case of Acylthiocarbamates and Thiocarbamates
- How High-Throughput Medicinal Chemistry Can Expedite Lead Discovery, Lead Optimization
- Rapid Lead Identification of Inhibitors of Adenine Nucleotide Translocase: A Case Study of Applying Combinatorial Chemistry Techniques in Drug Discovery
- Parallel Synthesis of Anticancer, Antiinflammatory, and Antiviral Agents Derived from L-and D-Amino Acids
- Application of Solid-Phase Parallel Synthesis in Lead Optimization Studies
- High-Throughput Solid-Phase Synthesis of Nucleoside-Based Libraries in the Search for New Antibiotics
Index