Physical Chemistry of Fast Reactions: Volume 1: Gas Phase Reactions of Small Molecules.

Levitt, B.:

ISBN 10: 0306350912 / ISBN 13: 9780306350917

Published by New York / London, Plenum Press., 1973

About this Item

332 , 277 S., with figures, Guter Zustand / good condition. Bibl.-Ex. / Ex.-library. Spine faded. Sprache: Englisch Gewicht in Gramm: 915.

Seller Inventory # 624740

Bibliographic Details

• Title: Physical Chemistry of Fast Reactions: Volume 1: Gas Phase Reactions of Small Molecules.
• Publisher: New York / London, Plenum Press.
• Publication Date: 1973
• Language: English
• ISBN 10: 0306350912
• ISBN 13: 9780306350917
• Binding: Hardcover.
• Condition: Gut
• Weight: 915 grams
• Seller catalogs:
  • Chemie

About this title

Synopsis

The chapters in this book are devoted to the elementary reactions of small molecules in the gas phase, with some emphasis on reactions important in combustion. The first three chapters cover experimental measurements made at high temperatures, mainly using shock waves and flames; the final chapter describes discharge flow methods near room temperature. The authors-all active in the fields they describe­ were asked to aim at a level intermediate between a textbook and a review, designed for readers not already familiar with this branch of chemical kinetics. We hope the book will prove especially useful to research workers in related subjects, to research students, and perhaps as source material for the preparation of lectures. The examples have been chosen to illustrate the theoretical basis of the topics rather than attempt a complete coverage. Professors Wagner and Troe describe the remarkable progress made in recent years in measuring dissociation rates for small molecules. Tests ofunimolecular reaction theories are usually made in the 'fall-off' region of pressure: the kinetics change from first order to second order as the pressure is reduced. For large molecules this region lies below atmospheric pressure and is relatively easily accessible. For molecules with four or less atoms, however, the fall-off region lies well above atmospheric pressure: it has been explored using the high pressure shock tube techniques developed by the authors.