I'm a research scientist at the California Institute of Technology, working at both campus and Jet Propulsion Lab. My research centers at the understanding of the human impacts on weather systems and climate. Specifically, I conduct research related to aerosol-cloud-precipitation interactions and their climatic implications, aerosol properties and haze formation, cloud microphysics and dynamics, and the assessment of the greenhouse gas/aerosol forcings on the atmosphere, ocean, and cryosphere. I develop and use hierarchical/multiscale weather and climate models in combination with space-borne and in situ measurements to address those scientific questions. I work closely with satellite teams at JPL to improve current aerosol and cloud retrievals and to design future missions.
As an important greenhouse gas, water vapor has great potential to modulate global climate by altering the infrared opacity of the atmosphere. Wang et al. [2017, Clim. Dyns.] assess the interactions between stratospheric water vapor and surface temperature using satellite observations and the coupled CESM.
We show significant impacts of Saharan dust on the radiative budget, hydrological cycle, and large-scale environments relevant to tropical cyclone activity over the Atlantic, by imposing temperature inversion, reducing surface solar radiation, and suppressing hurricane [Pan et al., 2018, J. Clim.].
To reconcile the influence of aerosols and greenhouse gases on precipitation extremes, Wang et al. [2016, JGR] implemented an in-situ diagnostics of precipitation PDF in CAM5 and a series of simulations suggest aerosols primarily account for the light precipitation suppression in Eastern China.
Wang et al. [2018, J. Clim.] employs a state-of-the-art fully coupled climate model to explore effects of man-made aerosols on historical and future variations of the Arctic sea ice in comparison with the GHG forcing. Aerosol-induced cloud forcing and subsequent feedback processes are found critical.
Caltech: S. Mudd 165B
Pasadena, CA 91125