Simon Gaisford & Mark Saunders 
Essentials of Pharmaceutical Preformulation 

Essentials of Pharmaceutical Preformulation is a study guide which describes the basic principles of pharmaceutical physicochemical characterisation. Successful preformulation requires knowledge of fundamental molecular concepts (solubility, ionisation, partitioning, hygroscopicity and stability) and macroscopic properties (physical form, such as the crystalline and amorphous states, hydrates, solvates and co-crystals and powder properties), familiarity with the techniques used to measure them and appreciation of their effect on product performance, recognising that often there is a position of compromise to be reached between product stability and bioavailability.

This text introduces the basic concepts and discusses their wider implication for pharmaceutical development, with reference to many case examples of current drugs and drug products. Special attention is given to the principles and best-practice of the analytical techniques that underpin preformulation (UV spectrophotometry, TLC, DSC, XRPD and HPLC). The material is presented in the typical order that would be followed when developing a medicine and maps onto the indicative pharmacy syllabus of the Royal Pharmaceutical Society of Great Britain

Undergraduate-level pharmacy students and R&D / analytical scientists working in the pharmaceutical sector (with or without a pharmaceutical background) will find this text easy to follow with relevant pharmaceutical examples.

* Essential study guide for pharmacy and pharmaceutical science students

* Covers the pharmaceutical preformulation components of the Royal Pharmaceutical Society of Great Britain’s indicative syllabus

* Easy to follow text highlighted with relevant pharmaceutical examples

* Self-assessment assignments in a variety of formats

* Written by authors with both academic and industrial experience

* Companion website with further information to maximise learning

About the author

Dr Simon Gaisford from the University of London. Dr. Gaisford is a senior lecturer in Pharmaceutics. His research interests include: Thermal analysis, isothermal calorimetry, differential scanning calorimetry (DSC), solution calorimetry, titration calorimetry (ITC), dynamic mechanical analysis (DMA), thermal ink-jetting, polymorphism, amorphous content quantification, inhalation, oral fast-dissolving films, personalised-dose medicines

Mark Saunders was awarded his first degree in Biological and Medicinal Chemistry from the University of Exeter and his Ph D from the London School of Pharmacy under the supervision of Professors Kevin Taylor and Duncan Craig. His Ph D programme was sponsored by Glaxo Smith Kline and involved the design and characterisation of novel injectable lipid-based carrier vehicles for the treatment of Cystic Fibrosis.
After finishing his Ph D, Mark consulted for the London based legal firm SJ Berwin, providing independant laboratory services in support of a successful major patent litigation trial on Paxil (Paroxetine Hydrochloride). After this, Mark was appointed Physical Scientist at a London based Contract Research Organisation (CRO), where he oversaw the growth and development of the company through to a commercial sell in 2007.
After spending 5 years in the Research and Development support arm of the company and having set up both the Physical Properties and Screening laboratories, Mark moved into Strategic Development where he directly lead the successful set up of a Japanese Business Development office in Tokyo. After 2 years in this position and havng seen the company grow significantly, Mark moved from this role and was involved in the commercial set up of Kuecept Ltd, of which he is a co-founder. Mark is also a member of UK and US Controlled Release Societies, Royal Society of Chemistry, Association of Pharmaceutical Scientists (APS), Internation Society of Aerosol Medicines, sits on the committee of the APS Materials Science Focus Group and has co-authored over 20 peer reviewed papers and 2 book chapters on preformulation.