His primary areas of study are Climate change, Climate model, Atmospheric sciences, Earth system science and Meteorology. The various areas that Chris E. Forest examines in his Climate change study include Climatology, Environmental resource management and Greenhouse gas. Chris E. Forest works mostly in the field of Climate model, limiting it down to topics relating to Downscaling and, in certain cases, Paleoclimatology, Climatic variables and Joint probability distribution.
His work investigates the relationship between Atmospheric sciences and topics such as Climate sensitivity that intersect with problems in Aerosol. In his study, which falls under the umbrella issue of Earth system science, Global warming, Ocean current, Radiative forcing and Representative Concentration Pathways is strongly linked to Thermohaline circulation. His Meteorology research incorporates elements of Probabilistic logic, Vulcanian eruption, Forcing and Statistical model.
His primary areas of investigation include Climatology, Climate change, Climate model, Climate sensitivity and Atmospheric sciences. His study in the field of Sea surface temperature also crosses realms of Sensitivity. His Climate change research is multidisciplinary, relying on both Environmental resource management, Forcing, Earth system science and Atmospheric temperature.
His Climate model research integrates issues from Regression analysis, Troposphere, Downscaling and Atmospheric model. His study on Climate sensitivity also encompasses disciplines like
Chris E. Forest focuses on Climate change, Atmospheric sciences, Climatology, Coastal flood and Climate system. His work carried out in the field of Climate change brings together such families of science as Natural resource economics, Environmental economics and Earth system science. His Atmospheric sciences research is multidisciplinary, incorporating perspectives in Mathematical geophysics, Surface warming, Climate sensitivity, Atmospheric model and Spatial dependence.
Chris E. Forest interconnects Sampling, Probability distribution and Aerosol in the investigation of issues within Climate sensitivity. His Climatology study focuses on Sea surface temperature in particular. His Coastal flood study combines topics in areas such as Decision theory, Environmental planning and Storm surge.
The scientist’s investigation covers issues in Sorghum, Meteorology, Climate change, Sensitivity and Atmospheric sciences. His work in the fields of Meteorology, such as Atmospheric model, overlaps with other areas such as Policy analysis. The study incorporates disciplines such as Range, Precipitation and Joint probability distribution in addition to Climate change.
Among his Sensitivity studies, there is a synthesis of other scientific areas such as Seasonal forecasting, General Circulation Model, Jet, North Atlantic oscillation and Internal variability. His Atmospheric sciences study incorporates themes from Coupled model intercomparison project, Sampling, Aerosol, Probabilistic logic and Climate sensitivity. His Climate sensitivity research includes themes of Uncertainty quantification, Probability distribution, Pooling and Forcing.
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Evaluation of climate models
G. M. Flato;J. Marotzke;B. Abiodun;Pascale Braconnot.
(2013)
Quantifying Uncertainties in Climate System Properties with the Use of Recent Climate Observations
Chris E. Forest;Peter H. Stone;Andrei P. Sokolov;Myles R. Allen.
Science (2002)
Uncertainty Analysis of Climate Change and Policy Response
Mort David. Webster;Chris Eliot. Forest;John M. Reilly;Mustafa H.M. Babiker.
Climatic Change (2003)
Probabilistic forecast for twenty-first-century climate based on uncertainties in emissions (without policy) and climate parameters.
A. P. Sokolov;P. H. Stone;C. E. Forest;R. Prinn.
Journal of Climate (2009)
Paleobotanical evidence of Eocene and Oligocene paleoaltitudes in midlatitude western North America
Jack A. Wolfe;Chris E. Forest;Peter Molnar.
Geological Society of America Bulletin (1998)
Uncertainty and Climate Change Assessments
John Reilly;Peter H. Stone;Chris E. Forest;Mort D. Webster.
Science (2001)
Long-Term climate change commitment and reversibility: An EMIC intercomparison
Kirsten Zickfeld;Michael Eby;Andrew J. Weaver;Kaitlin Alexander.
Journal of Climate (2013)
Paleobotanical evidence for high altitudes in Nevada during the Miocene
Jack A. Wolfe;Howard E. Schorn;Howard E. Schorn;Howard E. Schorn;Chris E. Forest;Chris E. Forest;Chris E. Forest;Peter Molnar;Peter Molnar;Peter Molnar.
Science (1997)
MIT Integrated Global System Model (IGSM) Version 2: Model Description and Baseline Evaluation
Andrei P. Sokolov;C. Adam. Schlosser;Stephanie. Dutkiewicz;Sergey. Paltsev.
(2005)
Estimated PDFs of climate system properties including natural and anthropogenic forcings
Chris Eliot. Forest;Peter H. Stone;Andrei P. Sokolov.
Geophysical Research Letters (2006)
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