The scientist’s investigation covers issues in Aerosol, Environmental science, Atmospheric sciences, Radiative forcing and Single-scattering albedo. His studies deal with areas such as Precipitation, Remote sensing and Arctic as well as Aerosol. Many of his research projects under Remote sensing are closely connected to Total Ozone Mapping Spectrometer with Total Ozone Mapping Spectrometer, tying the diverse disciplines of science together.
His Environmental science research overlaps with Arctic haze and Sea salt. His Atmospheric sciences research incorporates elements of Mineral dust, Optical depth, Planetary boundary layer and Climate model. His work on Atmosphere and Humidity is typically connected to Instrumentation and Asymmetry as part of general Meteorology study, connecting several disciplines of science.
His main research concerns Environmental science, Aerosol, Atmospheric sciences, Remote sensing and Meteorology. Many of his Environmental science research pursuits overlap with Water vapor, Sun photometer, Troposphere, Albedo and Climatology. His work carried out in the field of Aerosol brings together such families of science as Lidar, Satellite and Radiometer.
Beat Schmid has researched Atmospheric sciences in several fields, including Planetary boundary layer, Optical depth, Plume and Radiative forcing. His Radiometry study in the realm of Remote sensing interacts with subjects such as Photometer, Spectrometer, Photometry and Instrumentation. In his work, Arctic is strongly intertwined with Climate model, which is a subfield of Meteorology.
Beat Schmid focuses on Environmental science, Meteorology, Aerosol, Atmospheric sciences and Remote sensing. Beat Schmid works mostly in the field of Meteorology, limiting it down to topics relating to Climate model and, in certain cases, Synoptic scale meteorology, Satellite, Cloud physics and Global warming. When carried out as part of a general Aerosol research project, his work on Mineral dust and Sun photometer is frequently linked to work in Ground truth and Errors-in-variables models, therefore connecting diverse disciplines of study.
The Atmospheric sciences study combines topics in areas such as Lidar, Cloud condensation nuclei, Radiative forcing and Precipitation. His Precipitation research incorporates themes from Plume, Water vapor and Altitude. His work on Radiometer and Imaging spectroscopy as part of general Remote sensing study is frequently linked to Airborne visible/infrared imaging spectrometer and Coincident, bridging the gap between disciplines.
Beat Schmid focuses on Environmental science, Meteorology, Aerosol, Remote sensing and Atmosphere. His Environmental science study spans across into subjects like Atmospheric sciences, Convection, Precipitation, Troposphere and Scale. His Atmospheric sciences study integrates concerns from other disciplines, such as Lidar, Optical depth and Nadir.
In the field of Meteorology, his study on Radiosonde, Atmospheric models and Sun photometer overlaps with subjects such as Drone and Errors-in-variables models. He interconnects Radiometer and Moderate-resolution imaging spectroradiometer in the investigation of issues within Aerosol. His Remote sensing research integrates issues from Albedo and Cloud top.
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Comparison of methods for deriving aerosol asymmetry parameter
Elisabeth Andrews;Patrick J. Sheridan;Markus Fiebig;Markus Fiebig;Allison McComiskey.
Journal of Geophysical Research (2006)
Indirect and semi-direct aerosol campaign: The impact of Arctic aerosols on clouds
Greg M. McFarquhar;Steven Ghan;Johannes Verlinde;Alexei Korolev.
Bulletin of the American Meteorological Society (2011)
Comparison of Sun photometer calibration by use of the Langley technique and the standard lamp.
Beat Schmid;Christoph Wehrli.
Applied Optics (1995)
Ground-Based Lidar Measurements of Aerosols During ACE-2 Instrument Description, Results, and Comparisons with Other Ground-Based and Airborne Measurements
Ellsworth J. Welton;Kenneth J. Voss;Howard R. Gordon;Hal Maring.
Tellus B (2000)
The Reno Aerosol Optics Study: An Evaluation of Aerosol Absorption Measurement Methods
Patrick J. Sheridan;W. Patrick Arnott;John A. Ogren;Elisabeth Andrews.
Aerosol Science and Technology (2005)
Polarimetric remote sensing of aerosols over land
F. Waquet;Brian Cairns;Kirk D. Knobelspiesse;J. Chowdhary.
Journal of Geophysical Research (2009)
Comparison of columnar water-vapor measurements from solar transmittance methods.
Beat Schmid;Joseph J. Michalsky;Donald W. Slater;James C. Barnard.
Applied Optics (2001)
Direct aerosol forcing: Calculation from observables and sensitivities to inputs
Allison McComiskey;Stephen E. Schwartz;Beat Schmid;Hong Guan.
Journal of Geophysical Research (2008)
Comparison of Aerosol Optical Depth from Four Solar Radiometers During the Fall 1997 ARM Intensive Observation Period
B. Schmid;J. Michalsky;R. Halthore;M. Beauharnois.
Geophysical Research Letters (1999)
Influence of humidity on the aerosol scattering coefficient and its effect on the upwelling radiance during ACE-2
S. Gassó;D. A. Hegg;D. S. Covert;D. Collins.
Tellus B (2000)
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