This comprehensive text describes the atmospheric processes, numerical methods, and
computational techniques required for a scientist to successfully study air pollution and …

A novel, particle‐based, probabilistic approach for the simulation of cloud microphysics is
proposed, which is named the super‐droplet method (SDM). This method enables the …

This paper describes new and modified numerical techniques for solving the size‐and time‐
dependent aerosol processes of nucleation, coagulation, condensation, dissolution, and …

This book focuses specifically on bin and bulk parameterizations for the prediction of cloud
and precipitation at various scales-the cloud scale, mesoscale, synoptic scale, and the …

The impact of the collisional warm-rain microphysical processes on the polarimetric radar
variables is quantified using a coupled microphysics–electromagnetic scattering model. A …

For decades, enhancement of ice concentrations above those of active ice nucleus aerosols
was observed in deep clouds with tops too warm for homogeneous freezing, indicating …

The aggregation of ice crystals and its temperature dependence is studied in the laboratory
using a large ice cloud chamber. This process is important to the evolution of ice clouds in …

A companion paper presented a numerical one‐dimensional model of the marine boundary
layer (MBL) including chemical reactions in the gas and aqueous phase, focusing on the …

In situ high resolution aircraft measurements of cloud microphysical properties were made in
coordination with ground based remote sensing observations of a line of small cumulus …

We present a novel Monte‐Carlo ice microphysics model, McSnow, to simulate the evolution
of ice particles due to deposition, aggregation, riming, and sedimentation. The model is an …