用于GTC的高分辨率超稳定光谱仪的概念设计

Kai Zhang, Jian-rong Shi, Yongtian Zhu, Liang Wang, Dong Xiao, Huiqi Ye, Lei Wang, Zhanghua Wu, Chen Liu, Zhibo Hao, Huatao Zhang, Qiqige Xin, Jian Han, Zhen Tang, Yujuan Liu, Hong-liang Yan, Haining Li, R. Corradi, C. Prieto, J. López, J. González-Hernández
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引用次数: 0

摘要

中国和西班牙天文学界提出了一个联合项目,为拉帕尔马的加那利大望远镜(GTC)开发一个高分辨率、超稳定的光谱仪。预计该仪器将以高达10 cm s - 1的极高精度进行精确径向速度(PRV)测量,这将促进天文学界对探测和表征系外行星的非常高的兴趣。项目于2019年顺利通过概念设计评审(CoDR)。该仪器由近紫外波段摄谱仪(UVS)和可见光波段摄谱仪(VIS)组成。它们在可见光波段(420 nm - 780 nm)的光谱分辨率为R≥100,000,在紫外波段(310 nm - 420 nm)的光谱分辨率为R≥25,000。VIS子系统将被封闭在Coude室的超稳定环境中,用于恒星精确径向速度(PRV)测量。UVS子系统将位于Nasmyth焦点附近,以提高波长短于400 nm的总吞吐量,以确保从恒星演化到基本常数测量的各种附加科学案例。本文概述了项目背景、科学案例和概念设计阶段的技术考虑。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Conceptual design of a high-resolution ultra-stable spectrograph for the GTC
"A joint project has been proposed by the Chinese and Spanish astronomy communities, to develop a high-resolution, ultra- stable spectrograph for the Gran Telescopio Canarias (GTC) at La Palma. Being expected to conduct precise radial velocity (PRV) measurement with extreme precision of up to 10 cm s−1, the instrument would promote the very high, present interest in the astronomical community to detect and characterize exoplanets. The project successfully passed the conceptual design review (CoDR) in 2019. The instrument is composed of a near-UV band spectrograph (UVS) and a visible band spectrograph (VIS). They provide a spectral resolving power of R ≥100,000 in the visible band (420 nm – 780 nm), and R≥25,000 in the UV band (310 nm – 420 nm). The VIS subsystem will be enclosed in an ultra-stable environment in the Coude room for the stellar precise radial velocity (PRV) measurements. T he UVS subsystem will be located near the Nasmyth focus to improve the total throughput at the wavelength shorter than 400 nm, to ensure various additional science cases ranging from stellar evolution to the measurement of fundamental constants. This paper gives an overview of the project background, science cases, and technical considerations during the conceptual design phase."
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