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Cutting-edge investigators review the current status of the entire field, from the biology of MMPs through the current clinical studies. The authors include many leading scientists from pharmaceutical companies who present all the latest concepts and results on the preferred design strategies for MMP inhibitors, their molecular mechanisms, and their substrates. In addition, they fully describe their personal research on specific MMP inhibitors, detailing vanguard design strategies, their in vitro activity, the outcome of animal model studies and, where available, their toxicology, safety, efficacy in human clinical trials. Comprehensive and state-of-the-art, Matrix Metalloproteinase Inhibitors in Cancer Therapy offers basic and clinical investigators alike a richly informative summary of all the latest research on these powerful new drugs, and their high promise as emerging cancer therapeutics.
An in depth review of our latest understanding of the molecular events that regulate cell death and those molecules that provide targets for developing agonists or antagonists to modulate death signaling for therapeutic purposes. The authors focus on the extrinsic system of death receptors, their regulation and function, and their abnormalities in cancer. Topics of particular interest include resistance to apoptosis, TRAIL signaling, death receptors in embryonic development, mechanisms of caspase activation, and death receptor mutations in cancer. Additional chapters address death signaling in melanoma, synthetic retinoids and death receptors, the role of p53 in death receptor regulation, immune suppression of cancer, and combination therapy with death ligands.
Whether to promote platelet recovery or to ameliorate the complications of cancer and the side effects of chemotherapy, hematopoietic growth factors (HGFs) now account for more than $5 billion per year of the US health care budget. In Hematopoietic Growth Factors in Oncology: Basic Science and Clinical Therapeutics, leading oncologists, hematologists, and nephrologists comprehensively review the role of HGFs in clinical practice, explain the molecular basis of their effects, and consider potential future developments. The authors focus on the use of HGFs in oncology, describing their cutting-edge application to patients with lung cancer, Hodgkin's and non-Hodgkin's lymphoma, breast cancer, c...
Prominent investigators and clinicians summarize in a balanced blend of fundamental science, basic research, experimental therapeutics, and early clinical experiences, what is known about oncogenes and oncogenesis, and describe how that knowledge can be used to treat the cancer. The contributors explain how, why, and under what conditions certain proteins acquire the ability to transform eukaryotic cells, and detail the crucial biological consequences of this oncogenic transformation, particularly for cellular mitogenesis, survival, differentiation, migration, proteolysis, or angiogenic competence. Their articles thoroughly explicate the premises, principles, techniques, and approaches to oncogene targeting in various types of human cancer by using signal transduction inhibitors, immunological targeting methods, and antisense gene therapy.
A panel of leading investigators summarizes and synthesizes the new discoveries in the rapidly evolving field of histone acetylation as a key regulatory mechanism for gene expression. The authors describe what has been learned about these proteins, including the identification of the enzymes, the elucidation of the enzymatic mechanisms of action, and the identification of their substrates and their partners. They also review the structures that have been solved for a number of enzymes-both alone and in complex with small molecule inhibitors-and the biological roles of the several histone deacetylases (HDAC) genes that have been knocked out in mice.
Free energy calculations represent the most accurate computational method available for predicting enzyme inhibitor binding affinities. Advances in computer power in the 1990s enabled the practical application of these calculations in rationale drug design. This book represents the first comprehensive review of this growing area of research and covers the basic theory underlying the method, numerous state of the art strategies designed to improve throughput and dozen examples wherein free energy calculations were used to design and evaluate potential drug candidates.
An authoritative survey of the scientific background for therapeutic cancer vaccines, the challenges to their development, and their current uses in treating cancer. The authors examine the basic issues that effect all vaccines (such as immune adjuvants and prime-boost strategies), describe the methods for antigen discovery, and review the preclinical development phases for each major vaccine strategy. They also spell out the clinical results for cancer vaccines now beginning to be used in the treatment of many common cancers.
Leading international experts comprehensively review all aspects of platinum anticancer drugs and their current use in treatment, as well as examining their future therapeutic prospects. Writing from a variety of disciplines, these authorities discuss the chemistry of cisplatin in aqueous solution, the molecular interaction of platinum drugs with DNA, and such exciting new areas as DNA mismatch repair and replicative bypass, apoptosis, and the transport of platinum drugs into tumor cells. The emergent platinum drugs of the future-orally active agents, the sterically hindered ZD0473, and the polynuclear charged platinum BBR3464-are also fully considered. Timely and interdisciplinary, Platinum-Based Drugs in Cancer Therapy offers cancer therapeutics specialists an illuminating survey of every aspect of platinum drugs from mechanisms of action to toxicology, tumor resistance, and new analogs.
Expert physician-scientists and clinicians review those combinations of novel target agents classic chemotherapies that hold the most promise for the future of medical oncology, and detail their optimal sequence, pharmacokinetic interactions, and interaction with downstream cellular signals. The combinations run the gamut of targeted therapies against cell surface receptors (EGF-R and HER2), the cell cycle (the CDKs), signal transduction events (PKC and NF-kB), apoptosis (bcl-2), as well as focused therapies in ovarian cancer, hematologic diseases, and breast cancer. The authors emphasize novel translational approaches that are rapidly moving from the laboratory bench top to the patient's bedside for the future treatments in cancer therapy.
A critical review our current understanding of camptothecins, their shortcomings, and of the possibilities for improving their clinical performance. The authors discuss new camptothecin analog development, drug delivery issues for optimizing their anticancer activity, and their potential use in a variety of different cancers. Additional chapters describe what is known about the biochemistry, the pharmacology, and the chemistry of the camptothecins, including the mechanism of topoisomerase and how camptothecins poison this enzyme, the use of animal models in defining the anticancer potential of camptothecins, and the question of camptothecin resistance.