
Title:
Drug-Acceptor InteractionsSubtitle:
Modeling theoretical tools to test and evaluate experimental equilibrium effectsAuthor:
Niels Bindslev, MD, Associate Professor and Lecturer in Physiology at the Department of Biomedical Sciences, Faculty of Health Sciences, University of Copenhagen, DenmarkPrint ISBN: 978-91-977071-0-7
Electronic ISBN: 978-91-977071-1-4
About this book:
Drug-Acceptor Interactions: Modeling theoretical tools to test and evaluate experimental equilibrium effects suggests novel theoretical tools to test and evaluate drug interactions seen with combinatorial drug therapy. The book provides an in-depth, yet controversial, exploration of existing tools for analysis of dose-response studies at equilibrium or steady state.The book is recommended reading for post-graduate students and researchers engaged in the study of systems biology, networks, and the pharmacodynamics of natural or industrial drugs, as well as for medical clinicians interested in drug application and combinatorial drug therapy. Even people without mathematical skills will be able to follow the pros and cons of reaction schemes and their related distribution equations. Chapter 9 is a hands-on guide for software to plot, fit and analyze ones own data.
The author suggests that:
- a sharp distinction be observed for models between ligand-binding and functional experiments,
- an insightful and erudite selection be made between one-state intervention and two-state allosteric models, thus separating the ternary-complex model from genuine allosteric models,
- a serious consideration of the allosteric two-state model by Hall be tested when applying two drugs simultaneously,
- an application of the homotropic two-state models be tried when auto-inhibitory responses show up,
- classical methods such as the Lineweaver-Burk plot be abandoned and non-linear fits used instead,
- the use of Hill’s modified equation be revised,
- the Schild plot be dropped and replaced with an inhibition curve approach,
- new ways to evaluate synergy effects be implemented, i.e. the synergy effect of more than one drug in for instance pain relief, cancer cure, or asthma treatment, and that
- a paradigm surrounding the functional form of the Monod-Wyman-Changeux formulation be altered.
Table of Contents
Interview:
Senior Publisher at Co-Action Publishing, Anne Bindslev, speaks with the author about the book. See interview here.
Keywords:
natural drugs, industrial drugs, ligand receptor interactions, synergy, pharmacodynamics, combinatorial drug therapy, toxicology, physiological processes, enzymology, molecular biology, plant biology, systems biology, synthetic biology, biological regulation, network analysis, epigenetics, dose-response, allosteric, homotropic, heterotropic, theoretical modeling, one-state models, two-state models, equilibrium, steady-state, dose-response curves, reaction schemes, co-operativity, auto-modulation, auto-inhibition, auto-intervention, receptors, channels, co-transporters, pumps, G protein-coupled receptors (GPCRs), carriers, bell-shaped synagics
Readership:
pharmacologists, biochemists, enzymologists, molecular biologists, physiologists, plant biologists, toxicologists and other researchers studying systems biology, networks, and the pharmacodynamics of natural or industrial drugs, as well as medical clinicians interested in drug application and combinatorial drug therapy.
Size:
210 x 280 mm
Number of pages:
428 pages
Number of illustrations:
Ca 260 illustrations of which 140 in colour
Preservation:
The book is supported by the LOCKSS system to ensure a safe and permanent e-archive with the libraries.
Copyright:
© 2008 Niels Bindslev (except for rights associated with commercial use, which reside with Co-Action Publishing).
This is an Open Access book distributed under the terms of the Creative Commons Attribution-NonCommercial 3.0 Unported license which permits unrestricted use, distribution, and reproduction in any medium, provided the original author and source are credited. No permission required except for commercial use, distribution, and reproduction.

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