| STAFF | ||||
|---|---|---|---|---|
| |
PhD | Professer | Science of Terretial planet's atmosphere and cosmic space | |
| PhD | Earth and Planetary science | |||
| PhD | ||||
| PhD | ||||
| PhD | ||||
| Researcher | ||||
| Jun KIMURA | PhD | |||
| Koichiro SUGIYAMA | PhD | |||
| Graduate students | ||||
| Yohei SASAKI | D3 | Numerical simulation of dynamo | ||
| Takashi FUKUI | D3 | Material and chemical evolution of early Solar system | ||
| Takahisa OHISHI | D3 | Observations of Venus by using UV wavelength | ||
| Tomoko IWAHORI | D2 | Thermal history of Mercury | ||
| Tatsuya YAMASHITA | D1 | |||
| Hiroaki SAITO | M2 | |||
| Yoshiya TOKUNAGA | M2 | |||
| Kengo YOSHITA | M2 | |||
| Toshitaka ADACHI | M1 | |||
| Tsutomu KONDO | M1 | |||
| Shotaro SAKAI | M1 | |||
| Naoki TAKE | M1 | |||
| Takeaki BABA | M1 | |||
| Yoshinori YANAGI | M1 | |||
| Undergraduate Students | ||||
| Takafumi UMEMOTO | B4 | |||
| Hidetaka OKADA | B4 | |||
| Yasuto TAKAHASHI | B4 | |||
| Fumiyoshi HAYASHI | B4 | |||
| Keisuke YAMADA | B4 | |||
Astrophysics and Cosmochemistry
Snow and Ice Physics/Planetary Sciences (in Inst. Low Temp. Sci.)
Earth and Planetary Atmospheric Science (in Kobe Univ.)
Center for Planetary Science (in Kobe Univ.)
Phenomena and Structures (Chief=Watanabe and Sato)
- Targets
- Structure and dynamics of planetary atmospheres, ionospheres and magnetospheres
- Atmospheric escape
- Planetary auroras
- Discharge phenomena: Sprite, Lightning, etc.
- Methods
- Observations from space and ground
- Data analysis: Akebono, Nozomi, etc.
- Numerical modeling
Origin and Evolution (Chief=Kuramoto)
- Targets
- Planetary differentiation processes (formation of atmosphere, mantle and core)
- Evolution of materials in primitive solar nebula
- Evolution of planetary interiors and surface environments
- Methods
- Theoretical analysis
- Numerical modeling
Geophysical Fluid Dynamics (Chief=Ishiwatari and Odaka)
- Targets
- Aerography: Earth, Mars, Jupiter, etc.
- Runaway greenhouse effect
- Snowball earth
- Atmospheric convection: Mars
- Cloud convection: Jupiter
- Dynamo
- Methods
- Theoretical analysis
- Numerical modeling