This book provides the most comprehensive treatment to date of the microphysical processes which lead to cloud and precipitation formation. Emphasis is placed on presenting a quantitative description of the various mechanisms (e.g. nucleation, diffusional growth and evaporation, collisional growth and breakup) which lead to the formation of cloud and precipitation particles, individually and in populations. The second edition of this highly acclaimed book has been extensively updated to incorporate new research reported in a large number of articles and dozens of books and conference proceedings published since the first edition. Some highlights include: a new chapter on cloud chemistry; improved statistical mechanics models for homogeneous and heterogeneous ice nucleation; better data on aerosol size distribution and on fundamental properties of water; new data and models for asymmetric flow past particles of various shapes and for drop oscillation and breakup; extended treatment of drop coalescence and particle collision cross-sections, including some new effects of turbulence; more complete simulations of stochastic growth; expanded treatment of growth modes of graupel, rime and hailstones; new field data and modelling concerning effects of electric fields and charges on cloud microphysics. Audience: The book is directed primarily at undergraduate and graduate level students of cloud physics, as well as at specialists in the field of aerosol physics, cloud dynamics, climate modelling, air chemistry, air pollution, and weather modification.

The title page identifies this volume as the "Second revised and enlarged edition with an introduction to cloud chemistry and cloud electricity" (the first edition was published in 1989). It is directed primarily to upper division and graduate level students who are interested in cloud physics or aerosol physics; no specialized knowledge in meteorology or other geophysical sciences is presumed. Providing a comprehensive treatment of the microphysical processes which lead to cloud and precipitation formation, it emphasizes qualitative descriptions of the various mechanisms (such as nucleation, diffusional growth and evaporation). A sampling of topics: statistical mechanics models for ice nucleation, aerosol size distribution, drop coalescence and particle collision cross-sections, and effects of electrical fields and charges on cloud microphysics.
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Includes bibliographical references (p. 874-934) and index.