- Merlivat & Nief 1967:
- Miyake et al. 1968:
- Van Hook 1968:
- Gedzelman & Arnold 1994:
- Bolot et al. 2013:
- Graf et al. 2019:
- Lamb et al. 2017:
- Pierchala et al. 2022:
-
Shima et al. 2009 (Box model, coalescence only, test case employing Golovin analytical solution):
-
Berry 1967 (Box model, coalescence only, test cases for realistic kernels):
-
Bieli et al. 2022 (Box model, coalescence and breakup with fixed coalescence efficiency):
-
deJong et al. 2023 (Box model, coalescence and breakup):
-
deJong and Azimi (Ongoing research: Box model, coalescence only):
- Alpert & Knopf 2016 (stochastic immersion freezing with monodisperse vs. lognormal immersed surface areas):
- Arabas et al. 2023 (singular vs. time-dependent immersion freezing)
-
Arabas & Shima 2017 (monodisperse size spectrum activation/deactivation test case):
-
Yang et al. 2018 (polydisperse size spectrum activation/deactivation test case):
-
Abdul-Razzak & Ghan 2000 (aerosol activation parameterization for GCMs):
-
Pyrcel documentation example (externally mixed polydisperse size spectrum activation test case):
-
Lowe et al. 2019 (externally mixed polydisperse size spectrum with surface-active organics case):
-
Grabowski & Pawlowska 2023 (polydisperse size spectrum activation test case):
-
Jensen & Nugent 2017 (multi-modal + GCCN measurement-based spectrum, updraft-downdraft cycle):
- Kreidenweis et al. 2003 (Adiabatic parcel, polydisperse size spectrum, aqueous‐phase SO2 oxidation test case):
- Jaruga and Pawlowska 2018 (same test case as above, different numerical settings):
-
deJong et al. 2023 (Kinematic setup as in Shipway and Hill, including breakup with Berry 1967 coalescence efficiency):
-
deJong and Azimi (Ongoing research: Similar kinematic setup as in Shipway and Hill, but with no condensation (coalescence only) and with power-series representation of the terminal velocity):
-
Bartman et al. (in preparation):
-
Arabas et al. 2023 (singular vs. time-dependent immersion freezing)