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An analytic radiative-convective model for planetary atmospheres
Tyler D. Robinson, David C. Catling
Research output
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Contribution to journal
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Article
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peer-review
72
Scopus citations
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Keyphrases
Sunlight
100%
Planetary Atmospheres
100%
Radiative Convective Model
100%
Attenuation
66%
Atmospheric Pressure
66%
Thermal Structure
66%
Adiabat
66%
Convective Boundary
66%
Optical Depth
33%
Model Atmospheres
33%
Condensation
33%
Model Complexity
33%
Jupiter
33%
Temperature Profile
33%
Giant Planets
33%
Hydrostatic Equilibrium
33%
Venus
33%
General Behavior
33%
Pressure-temperature
33%
Atmospheric Attenuation
33%
Scale Parameter
33%
Analytic Expression
33%
Hot Jupiters
33%
Convective Flux
33%
Two-streams Hypothesis
33%
Flux Profile
33%
Thermal Radiative
33%
Thermal Optical
33%
Power-law Scaling
33%
Thermal Radiative Transfer
33%
Mid-troposphere
33%
Physics
Planetary Atmosphere
100%
Atmospheric Pressure
100%
Planetary Atmosphere
100%
Radiative Transfer
50%
Extrasolar Gas Giants
50%
Temperature Profile
50%
Condensation
50%
Hot Jupiters
50%
Atmospheric Attenuation
50%
Troposphere
50%
Earth and Planetary Sciences
Planetary Atmosphere
100%
Atmospheric Pressure
100%
Thermal Structure
100%
Planetary Atmosphere
100%
Power Law
50%
Radiative Transfer
50%
Temperature Profile
50%
Troposphere
50%
Atmospheric Attenuation
50%