Drug Stability for Pharmaceutical Scientists
- 1st Edition - January 30, 2013
- Author: Thorsteinn Loftsson
- Language: English
- Paperback ISBN:9 7 8 - 0 - 1 2 - 4 1 1 5 4 8 - 4
- eBook ISBN:9 7 8 - 0 - 1 2 - 4 1 1 5 6 2 - 0
Drug Stability for Pharmaceutical Scientists is a clear and easy-to-follow guide on drug degradation in pharmaceutical formulation. This book features valuable content on both… Read more
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Request a sales quoteDrug Stability for Pharmaceutical Scientists is a clear and easy-to-follow guide on drug degradation in pharmaceutical formulation. This book features valuable content on both aqueous and solid drug solutions, the stability of proteins and peptides, acid-base catalyzed and solvent catalyzed reactions, how drug formulation can influence drug stability, the influence of external factors on reaction rates and much more. Full of examples of real-life formulation problems and step-by-step calculations, this book is the ideal resource for graduate students, as well as scientists in the pharmaceutical and related industries.
- Illustrates important theoretical concepts with numerous examples, figures, calculations, learning problems and questions for self-study and retention of material
- Provides answers and explanations to test your knowledge
- Enables you to better understand key concepts such as rate and order of reaction, reaction equilibrium, complex reaction mechanisms and more
- Includes an in-depth discussion of both aqueous and solid drug solutions and contains the latest international regulatory requirements on drug stability
The book is intended for graduate students taking courses in physical pharmacy or drug stability as well as for pharmaceutical scientists in industry (drug formulators, drug registration etc.) and for individuals working in related fields (e.g. cosmetics).
Dedication
Chapter 1. Introduction
Chapter 2. Principles of Drug Degradation
2.1 Zero-Order Reactions
2.2 First-Order Reactions
2.3 Second-Order Reactions
2.4 Third-Order Reactions
2.5 Determination of the Order of a Reaction
2.6 Complex Reactions
2.7 Effect of Temperature
2.8 Specific Acid/Base Catalysis and pH-Rate Profiles
2.9 General Acid/Base Catalysis or Buffer Catalysis
2.10 Effects of Ionic Strength (Salt Effects)
2.11 Solvent Effects
2.12 Disperse Colloidal Systems (Micelle Effect)
2.13 Effect of Complexation
2.14 Effect of Light (Photodegradation) and Oxygen
References
Chapter 3. Degradation Pathways
3.1 Hydrolysis
3.2 Oxidation
3.3 Isomerization
3.4 Photochemical Degradation
3.5 Decarboxylation
3.6 Dehydration
3.7 Polymerization
References
Chapter 4. Drug Degradation in Semisolid Dosage Forms
4.1 Tretinoin
4.2 Betamethasone 17-valerate
References
Chapter 5. Stability of Peptides and Proteins
5.1 Physical Degradation
5.2 Chemical Degradation
5.3 Insulin
References
Chapter 6. Drug Degradation in Solid State
6.1 Chloramphenicol Palmitate
6.2 Nitroglycerin
6.3 Chemical Degradation
References
Chapter 7. Stability Testing
7.1 Guidelines for Stability Testing
7.2 Dorzolamide Eye Drops
References
Chapter 8. Problems
8.1 Racemization of (R)-Oxazepam
8.2 Consecutive Degradation of Prostaglandin
8.3 Effect of Buffer Salts on Lomustine Degradation
8.4 pH-rate Profile for Amoxicillin
8.5 Effect of Glucose on Amoxicillin Degradation
8.6 pH-rate Profile and Specific Acid/Base Catalysis
8.7 Aztreonam Polymerization
8.8 Aqueous Drug Suspension
8.9 Racemization of Ropivacaine
8.10 Degradation of Scopolamine
8.11 Primary Salt Effect
8.12 Leaving Groups
8.13 The Shelf-Life of Tetracycline Under Acidic Conditions
8.14 Parenteral Formulation Containing β-Lactam Antibiotic
References
Appendix
Answers to Learning Questions and Problems
Answers to Problems in Chapter 8:
References
- No. of pages: 170
- Language: English
- Edition: 1
- Published: January 30, 2013
- Imprint: Academic Press
- Paperback ISBN: 9780124115484
- eBook ISBN: 9780124115620
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