Antarctic TianMu Staring Observation Project I: overview and implementation of the prototype telescope

Wide-field rapid sky surveys serve as critical observational methods for time-domain astronomical research. The Antarctic region, with several months of continuous dark nights annually, is an ideal site for time-domain astronomical observations. The Antarctic TianMu Staring Observation Project aims to deploy a fleet of small telescopes, adopting an array observation model to conduct time-domain optical observations in Antarctica, featuring wide-sky coverage, high-cadence sampling, long-period staring, and simultaneous multi-band measurements. Considering the severe challenges optical telescopes face in Antarctica, including extremely low temperatures, unattended operation, and limited power supply and network transmission, we have designed and developed the Antarctic TianMu prototype telescope based on drift-scan charge-coupled device technology. In October 2022, our prototype (with an aperture of 18~cm), named AT-Proto, was transported to Zhongshan Station in Antarctica aboard China’s 39<sup>th</sup> Antarctic Research Expedition. It has since operated stably and reliably in the frigid environment for over two years, demonstrating the significant advantages of this technology in polar astronomical observations. The experimental observation results of AT-Proto provide a solid foundation for the subsequent construction of a time-domain astronomy observation array in Antarctica.

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Publication Details

Journal
Astronomical Techniques and Instrument
Published
2025-10-01
DOI
https://doi.org/10.3724/ati2025059
Primary Topic
Adaptive optics and wavefront sensing
Type
article
Field-Weighted Citation Impact
0.00

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article

Antarctic TianMu Staring Observation Project I: overview and implementation of the prototype telescope

Fuguo Xie, Minfeng Gu, J. N. Zhou, Zhengyi Shao et al.
Astronomical Techniques and Instrument
Adaptive optics and wavefront sensing
article

Antarctic TianMu Staring Observation Project I: overview and implementation of the prototype telescope

Fuguo Xie, Minfeng Gu, J. N. Zhou, Zhengyi Shao, Bixuan Zhao, Wenwen Zuo, Xiang Pan, Donghai Zhao, Jianjun Cao, Hengxiao Guo, Wenbiao Han, Tuo Ji, Shiyin Shen, Zhen Yan, Xian Shi, Dan Zhou, Chenwei Yang, Yong Yu, Guoping Chen, Jing Zhong, Chun Xu, Zhenghong Tang, Peng Jiang, Jie Zhu, Lixin Zheng, Liang Chen, Xinyu Yao, Lurun Shen, Congcong Zhang, Jinliang Hou, Jianchun Shi, Jian Fu, Lei Hao, Hui Zhang
article en

Abstract

Wide-field rapid sky surveys serve as critical observational methods for time-domain astronomical research. The Antarctic region, with several months of continuous dark nights annually, is an ideal site for time-domain astronomical observations. The Antarctic TianMu Staring Observation Project aims to deploy a fleet of small telescopes, adopting an array observation model to conduct time-domain optical observations in Antarctica, featuring wide-sky coverage, high-cadence sampling, long-period staring, and simultaneous multi-band measurements. Considering the severe challenges optical telescopes face in Antarctica, including extremely low temperatures, unattended operation, and limited power supply and network transmission, we have designed and developed the Antarctic TianMu prototype telescope based on drift-scan charge-coupled device technology. In October 2022, our prototype (with an aperture of 18~cm), named AT-Proto, was transported to Zhongshan Station in Antarctica aboard China’s 39<sup>th</sup> Antarctic Research Expedition. It has since operated stably and reliably in the frigid environment for over two years, demonstrating the significant advantages of this technology in polar astronomical observations. The experimental observation results of AT-Proto provide a solid foundation for the subsequent construction of a time-domain astronomy observation array in Antarctica.

Astronomical Techniques and Instrument
National Natural Science Foundation of China, Science and Technology Commission of Shanghai Municipality, Program of Shanghai Academic Research Leader
Openalex Percentile: Top 29%
Adaptive optics and wavefront sensing
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