Chae Kyung Sim
Kyung Hee University
Network
Latest external collaboration on country level. Dive into details by clicking on the dots.
Publication
Featured researches published by Chae Kyung Sim.
Proceedings of SPIE | 2014
Chan Park; Daniel T. Jaffe; In-Soo Yuk; Moo-Young Chun; Soojong Pak; Kang-Min Kim; Michael Pavel; Hanshin Lee; Heeyoung Oh; Ueejeong Jeong; Chae Kyung Sim; Hye-In Lee; Huynh Anh Nguyen Le; Joseph Strubhar; Michael Gully-Santiago; Jae Sok Oh; Sang-Mok Cha; Bongkon Moon; Kwijong Park; Cynthia B. Brooks; Kyeongyeon Ko; Jeong-Yeol Han; Jakyoung Nah; Peter C. Hill; Sungho Lee; Stuart I. Barnes; Young Sam Yu; Kyle Kaplan; Gregory N. Mace; Hwihyun Kim
The Immersion Grating Infrared Spectrometer (IGRINS) is a compact high-resolution near-infrared cross-dispersed spectrograph whose primary disperser is a silicon immersion grating. IGRINS covers the entire portion of the wavelength range between 1.45 and 2.45μm that is accessible from the ground and does so in a single exposure with a resolving power of 40,000. Individual volume phase holographic (VPH) gratings serve as cross-dispersing elements for separate spectrograph arms covering the H and K bands. On the 2.7m Harlan J. Smith telescope at the McDonald Observatory, the slit size is 1ʺ x 15ʺ and the plate scale is 0.27ʺ pixel. The spectrograph employs two 2048 x 2048 pixel Teledyne Scientific and Imaging HAWAII-2RG detectors with SIDECAR ASIC cryogenic controllers. The instrument includes four subsystems; a calibration unit, an input relay optics module, a slit-viewing camera, and nearly identical H and K spectrograph modules. The use of a silicon immersion grating and a compact white pupil design allows the spectrograph collimated beam size to be only 25mm, which permits a moderately sized (0.96m x 0.6m x 0.38m) rectangular cryostat to contain the entire spectrograph. The fabrication and assembly of the optical and mechanical components were completed in 2013. We describe the major design characteristics of the instrument including the system requirements and the technical strategy to meet them. We also present early performance test results obtained from the commissioning runs at the McDonald Observatory.
Advances in Space Research | 2014
Chae Kyung Sim; Huynh Anh Nguyen Le; Soojong Pak; Hye In Lee; Wonseok Kang; Moo Young Chun; Ueejeong Jeong; In Soo Yuk; Kang Min Kim; Chan Park; Michael Pavel; Daniel T. Jaffe
Geophysical Research Letters | 2017
Chae Kyung Sim; Sungsoo S. Kim; Paul G. Lucey; Ian Garrick-Bethell; Young-Jun Choi
Advances in Space Research | 2017
Il-Hoon Kim; Suk Kyung Sung; Sungsoo S. Kim; Minsup Jeong; Chae Kyung Sim; Kilho Baek; Kap-Sung Kim; Young-Jun Choi
한국천문학회보 | 2015
Chae Kyung Sim; Sungsoo S. Kim; Minsup Jeong
한국천문학회보 | 2015
Sungsoo S. Kim; Minsup Jung; Chae Kyung Sim; Il-Hoon Kim; So-Myoung Park; Ho Jin
한국천문학회보 | 2014
Hye-In Lee; Soojong Pak; Chae Kyung Sim; Huynh Anh N. Le; Ueejeong Jeong; Moo-Young Chun; Chan Park; In-Soo Yuk; Kang-Min Kim; Michael Pavel; Daniel T. Jaffe
한국천문학회보 | 2014
Chan Park; In-Soo Yuk; Moo-Young Chun; Soojong Pak; Kang-Min Kim; Michael Pavel; Hanshin Lee; Heeyoung Oh; Ueejeong Jeong; Chae Kyung Sim; Hye-In Lee; Huynh Anh Nguyen Le; Joseph Strubhar; Michael Gully-Santiago; Jae Sok Oh; Sang-Mok Cha; Bongkon Moon; Kwijong Park; Cynthia B. Brooks; Kyeongyeon Ko; Jeong-Yeol Han; Jakyuong Nah; Peter C. Hill; Sungho Lee; Stuart I. Barnes; Byeong-Gon Park; Daniel T. Jaffe
한국천문학회보 | 2014
Chan Park; Daniel T. Jaffe; In-Soo Yuk; Moo-Young Chun; Soojong Pak; Kang-Min Kim; Michael Pavel; Hanshin Lee; Heeyoung Oh; Ueejeong Jeong; Chae Kyung Sim; Hye-In Lee; Huynh Anh Nguyen Le; Joseph Strubhar; Michael Gully-Santiago; Jae Sok Oh; Sang-Mok Cha; Bongkon Moon; Kwijong Park; Cynthia B. Brooks; Kyeongyeon Ko; Jeong-Yeol Han; Jakyuong Nah; Peter C. Hill; Sungho Lee; Stuart I. Barnes; Young Sam Yu; Kyle Kaplan; Gregory N. Mace; Hwihyun Kim
Advances in Space Research | 2014
Huynh Anh Nguyen Le; Soojong Pak; Myungshin Im; Minjin Kim; Chae Kyung Sim; Luis C. Ho