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© 2006

Modulated Temperature Differential Scanning Calorimetry

Theoretical and Practical Applications in Polymer Characterisation

  • Mike Reading
  • Douglas J. Hourston
  • First book on this topic

  • Written by the inventor and principal exponents of the technique

  • Modulated Temperature DSC can do things that conventional DSC is unable to do

  • Combines a full discussion of the theory with important illustrations of the applicability of the technique

Book

Part of the Hot Topics in Thermal Analysis and Calorimetry book series (HTTC, volume 6)

Table of contents

  1. Front Matter
    Pages i-xiii
  2. Andrew A. Lacey, Duncan M. Price, Mike Reading
    Pages 1-81
  3. Bernhard Wunderlich
    Pages 217-319
  4. Back Matter
    Pages 321-329

About this book

Introduction

MTDSC provides a step-change increase in the power of calorimetry to characterize virtually all polymer systems including curing systems, blends and semicrystalline polymers. It enables hidden transitions to be revealed, miscibility to be accurately assessed, and phases and interfaces in complex blends to be quantified. It also enables crystallinity in complex systems to be measured and provides new insights into melting behaviour. All of this is achieved by a simple modification of conventional DSC.

In 1992 a new calorimetric technique was introduced that superimposed a small modulation on top of the conventional linear temperature program typically used in differential scanning calorimetry. This was combined with a method of data analysis that enabled the sample’s response to the linear component of the temperature program to be separated from its response to the periodic component. In this way, for the first time, a signal equivalent to that of conventional DSC was obtained simultaneously with a measure of the sample’s heat capacity from the modulation. The new information this provided sparked a revolution in scanning calorimetry by enabling new insights to be gained into almost all aspects of polymer characteristics.

This book provides both a basic and advanced treatment of the theory of the technique followed by a detailed exposition of its application to reacting systems, blends and semicrystalline polymers by the leaders in all of these fields. It is an essential text for anybody interested in calorimetry or polymer characterization, especially if they have found that conventional DSC cannot help them with their problems.

Keywords

Diffusion Experiment Pharmaceutical materials Polymer science TMDSC Thermal analysis Transit basics control crystal measurement modeling polymer reading temperature

Editors and affiliations

  • Mike Reading
    • 1
  • Douglas J. Hourston
    • 2
  1. 1.University of East AngliaNorwichUK
  2. 2.Loughborough UniversityLoughboroughUK

About the editors

Michael Reading is a Professor of Pharmaceutical Characterisation Science at the University of East Anglia, Norwich, UK.

After post doctoral work in France (CNRS centre for calorimetry and thermodynamics, Marseilles), Mike Reading worked with ICI until 1997, when he left to join the IPTME in Loughborough University. In 2004 he moved to UEA to take up a chair in pharmaceutical characterisation science.

Research Posts: As a senior research scientist with ICI paints, Mike Reading was involved in a wide range of materials science and analysis projects (mainly involving polymers). One outcome from his work was Modulated Temperature Differential Scanning Calorimetry which has now become a common, commercially available technique. With co-workers Azzedine Hammiche and Hubert Pollock of Lancaster University, he invented a scanning probe microscopy based technique known as of micro thermal analysis. This has become a commercially available instrument and has won a number of awards for innovation.

 

Douglas J. Hourston is a Professor of Polymer Technology at Loughborough University, UK, with a long career in polymer colloids research and expertise in emulsion polymerization, structured latex particles, water-dispersible polyurethanes, and film integration.

 

Bibliographic information