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A02:The Numerical Value Modeling of Extrasolar Planet Atmosphere and the Theory of Planet Formation and Evolution
Organization
Representative Researcher
Specialty: planetary physics
Share: coordination of researches
Assigning Researchers
Specialty: theoretical planetary science
Share: theory of habitable planets and atmospheric radiation
Specialty: geophysical fluid dynamics
Share: development of numerical simulator for planetary atmospheres
Specialty: theoretical planetary science
Share: formation, structure and radiation of atmosphere
Specialty: experimental planetary science
Share: atmospheric chemistry and atmospheric aerosol properties
Cooperating Researchers
Specialty: geophysical fluid dynamics
Share: development of numerical simulator for planetary atmospheres and atmospheric radiation
Specialty: theoretical planetary science
Share: development of numerical simulator
Specialty: planet fluid dynamics
Share: development of numerical simulator
Specialty:geophysical fluid dynamics
Share:Development of numerical simulator engine for global circulation model
Specialty:geophysical fluid dynamics
Share:Development of fluid convention simulator in 3D spherical geometry
Specialty:planetary atmospheric sciences
Share:Development of numerical model for atmospheric convection and cloud processes
Research Objectives
By developing the world’s most competitive numerical model group hierarchy and giving a variety of conditions of extrasolar planets, we develop the models that are able to simulate the vertical structures of atmosphere, atmospheric circulation, heat balance and mass balance to detect sufficient samples of spectral characteristics as planetary emissions and their characteristics of temporal variation. We will expand the theory of planet formation and evolution for the atmosphere of habitable aquatic planets which will give us leading ideas such as the formation theory of oceans. This helps us logically understand the variety in the structure of the planets’ atmospheres and surfaces which are in the evolutionary process under a variety of conditions. With this project, we make a prediction of the atmosphere structure and surface environment of extrasolar planets which team A01 will detect to give ideas of new projects towards conducting direct spectroscopic observations. Based on the data of direct spectroscopic observation from team A01, we estimate the atmosphere structure, circulation and heat balance of extrasolar jovian planets to construct theories of planetary atmospheres which are generalized to provide the new observation guidelines. Also based on the various formation theories that team B02 estimates, we proceed to understand the variation of atmosphere formation and evolutionary pathways.