Bulletin of the American Meteorological Society · 2019 · 342 citations · 178 references
Natural SciencesEarth SciencesMeteorologyClimatologyHydrometeorologyMountain MeteorologyMountain HydrometeorologyPrecipitationPrecipitation EstimationSnow Cover Remote SensingSnow MeasurementSnow ObservationAtmospheric Model ResolutionMountain Cryosphere ModelingMountain MicroclimatesMountain Rain-on-snow ProcessesPrecipitation ObservationsSnow Hydrology Observation NetworksSnow Observation NetworksSnowfall Climatology
Abstract In mountain terrain, well-configured high-resolution atmospheric models are able to simulate total annual rain and snowfall better than spatial estimates derived from in situ observational networks of precipitation gauges, and significantly better than radar or satellite-derived estimates. This conclusion is primarily based on comparisons with streamflow and snow in basins across the western United States and in Iceland, Europe, and Asia. Even though they outperform gridded datasets based on gauge networks, atmospheric models still disagree with each other on annual average precipitation and often disagree more on their representation of individual storms. Research to address these difficulties must make use of a wide range of observations (snow, streamflow, ecology, radar, satellite) and bring together scientists from different disciplines and a wide range of communities.
178
Orographic effects on precipitating clouds
Robert A. Houze · Reviews of Geophysics · 2011 · 951 citations · Full text