在麦克唐纳大地测量天文台测量千米基线上 1 毫米精确度的当地测量系线

IF 3.9 2区 地球科学 Q1 GEOCHEMISTRY & GEOPHYSICS Journal of Geodesy Pub Date : 2024-05-27 DOI:10.1007/s00190-024-01853-2
Jullian Rivera, Srinivas Bettadpur, John Griffin, Zhigui Kang, John Ries
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引用次数: 0

摘要

下一代地面参考框架(TRF)的目标是通过结合多技术大地测量观测站的参考站解决方案,实现 1 毫米和 0.1 毫米/年的精确框架。TRF 实现过程中的一个潜在重大误差来源是多技术台站仪器之间的系统间联系,通常是通过地面局部测量独立确定的。当地联系测量的质量参差不齐,主要是由于测量技术、测量仪器、站点条件/地形和处理方法的差异造成的。全球大地测量观测系统(GGOS)试图通过发布未来多技术观测站的建设和布局指南来解决这些问题,以促进统一性和质量,同时最大限度地减少当地测量的现有问题,这些问题在基线距离较长的情况下会更加严重。然而,并不是每个观测站都能完全满足这些准则的要求,在这项工作中,详细介绍了位于美国得克萨斯州戴维斯山脉的麦克唐纳大地测量观测站(MGO)在满足精度目标的同时又超过全球大地测量系统基线准则的成功经验。麦克唐纳大地测量观测站由一个 VLBI 大地测量观测系统(VGOS)、一个空间大地测量卫星激光测距(SGSLR)望远镜的基础设施和几个全球导航卫星系统(GNSS)站组成,基线跨度 900 米,海拔高度变化 120 米。从天线参考点测量的近千米基线上的全球导航卫星系统台站之间的局部联系结果显示,亚毫米精度和 1 毫米精度通过在 2021 年进行的多次测量中的重复性得到验证,并且与基于全球导航卫星系统的定位的月平均日解决方案保持 1 毫米的一致性。在本文中,我们将以足够详细和严谨的方式报告这些结果以及勘测框架,以便为质量声明提供信心,并介绍在程序、处理和误差预算分析中采用的新颖设计和技术,这些设计和技术是通过反复勘测活动中的迭代研究方法确定的。
本文章由计算机程序翻译,如有差异,请以英文原文为准。

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Measuring 1-mm-accurate local survey ties over kilometer baselines at McDonald Geodetic Observatory

The goal for the next generation of terrestrial reference frames (TRF) is to achieve a 1-mm- and 0.1-mm/yr-accurate frame realization through the combination of reference station solutions by multi-technique geodetic observatories. A potentially significant source of error in TRF realizations is the inter-system ties between the instruments at multi-technique stations, usually independently determined through ground-based local surveying. The quality of local tie surveys is varied and inconsistent, largely due to differences in measurement techniques, surveying instruments, site conditions/geometries, and processing methods. The Global Geodetic Observing System (GGOS) has tried to address these problems by issuing guidelines for the construction and layout of future multi-technique observatories, promoting uniformity and quality while minimizing existing problems with local surveying that are exacerbated over longer baseline distances. However, not every observatory is going to be able to completely satisfy these guidelines, and in this work, a successful endeavor to satisfy the accuracy goals while exceeding the GGOS baseline guideline is detailed for the McDonald Geodetic Observatory (MGO) in the Davis Mountains of Texas, USA. MGO consists of a VLBI Geodetic Observing System (VGOS), infrastructure in place for a Space Geodesy Satellite Laser Ranging (SGSLR) telescope, and several Global Navigation Satellite Systems (GNSS) stations spanning a 900 m baseline and a 120 m elevation change. The results of the local ties between the GNSS stations across the near-kilometer baseline, as measured from their antenna reference points, show sub-mm precision and 1 mm accuracy validated through repeatability across several surveys conducted in 2021as well as 1 mm consistency with the monthly averaged daily solutions of the GNSS-based positioning. In this paper, we report these results as well as the framework of the surveys with sufficient detail and rigor in order to give confidence to the quality claims and to present the novel design and techniques employed in the procedure, processing, and error-budget analysis, which were determined through iterative research methods across repeated survey campaigns.

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来源期刊
Journal of Geodesy
Journal of Geodesy 地学-地球化学与地球物理
CiteScore
8.60
自引率
9.10%
发文量
85
审稿时长
9 months
期刊介绍: The Journal of Geodesy is an international journal concerned with the study of scientific problems of geodesy and related interdisciplinary sciences. Peer-reviewed papers are published on theoretical or modeling studies, and on results of experiments and interpretations. Besides original research papers, the journal includes commissioned review papers on topical subjects and special issues arising from chosen scientific symposia or workshops. The journal covers the whole range of geodetic science and reports on theoretical and applied studies in research areas such as: -Positioning -Reference frame -Geodetic networks -Modeling and quality control -Space geodesy -Remote sensing -Gravity fields -Geodynamics
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