Progress in VLBI observations with the Haoping 40 m Radio Telescope at the National Time Service Center

The Haoping 40 m radio telescope at the National Time Service Center was built in 2014 and is primarily used to observe navigation satellites and pulsars. Since the first successful very long baseline interferometry observation of L-band radio source fringes in 2022, ten observations have been made so far. The stations involved in the observations include the Haoping 40 m radio telescope (Haoping), the Tianma 65 m radio telescope (Tianma), the Nanshan 26 m radio telescope (Urumqi), the Guizhou 500 m radio telescope (FAST), the Jilin 13 m radio telescope (Jilin), the Effelsberg 100 m radio telescope (Effelsberg), the Onsala 25 m radio telescope (Onsala), and the Chiang Mai 40 m radio telescope (Chiang Mai). This paper presents details on the specifications of the Haoping 40 m radio telescope, as well as the design of the very long baseline interferometry experiment, the observation process, and the data processing. We also discuss the analysis of the fringe results involving the Haoping 40 m radio telescope, using Distributed FX Correlator to obtain excellent results. We confirm that the telescope is capable of participating in very long baseline interferometry observations and performing specific data processing tasks. It can therefore play a greater role in future very long baseline interferometry observations.

Authors

Publication Details

Journal
Astronomical Techniques and Instrument
Published
2025-01-01
DOI
https://doi.org/10.61977/ati2025035
Primary Topic
Radio Astronomy Observations and Technology
Type
article
Field-Weighted Citation Impact
0.00

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article

Progress in VLBI observations with the Haoping 40 m Radio Telescope at the National Time Service Center

Wu Jiang, Jia Liu, Zhen Yan, Yuping Gao et al.
Astronomical Techniques and Instrument
Radio Astronomy Observations and Technology
article

Progress in VLBI observations with the Haoping 40 m Radio Telescope at the National Time Service Center

Wu Jiang, Jia Liu, Zhen Yan, Yuping Gao, Pingli Wang, Lang Cui, Rurong Chen, De Wu, Jintao Luo, Yifeng Li, Zurong Zhou, Yue Hu, Wen Chen
article en

Abstract

The Haoping 40 m radio telescope at the National Time Service Center was built in 2014 and is primarily used to observe navigation satellites and pulsars. Since the first successful very long baseline interferometry observation of L-band radio source fringes in 2022, ten observations have been made so far. The stations involved in the observations include the Haoping 40 m radio telescope (Haoping), the Tianma 65 m radio telescope (Tianma), the Nanshan 26 m radio telescope (Urumqi), the Guizhou 500 m radio telescope (FAST), the Jilin 13 m radio telescope (Jilin), the Effelsberg 100 m radio telescope (Effelsberg), the Onsala 25 m radio telescope (Onsala), and the Chiang Mai 40 m radio telescope (Chiang Mai). This paper presents details on the specifications of the Haoping 40 m radio telescope, as well as the design of the very long baseline interferometry experiment, the observation process, and the data processing. We also discuss the analysis of the fringe results involving the Haoping 40 m radio telescope, using Distributed FX Correlator to obtain excellent results. We confirm that the telescope is capable of participating in very long baseline interferometry observations and performing specific data processing tasks. It can therefore play a greater role in future very long baseline interferometry observations.

Astronomical Techniques and InstrumentVol. 2(0)
National Natural Science Foundation of China, National Science and Technology Major Project
Openalex Percentile: Top 84%
Radio Astronomy Observations and Technology
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