Advanced GNSS Processing Techniques (Working Group 1)

J. Douša,G. Dick, Y. Altiner, F. Alshawaf,J. Bosy,H. Brenot,E. Brockmann, R. Brožková,Z. Deng,W. Ding,K. Eben,M. Eliaš,R. Fernandes,A. Ganas,A. Geiger,G. Guerova,T. Hadaś,C. Hill,P. Hordyniec, F. Hurter,J. Jones,M. Kačmařík,K. Kaźmierski,J. Kaplon,P. Krč, D. Landskron,X. Li,C. Lu,J. P. Martins,G. Möller, L. Morel, G. Ófeigsson, R. Pacione,C. Pikridas,E. Pottiaux,J. Resler,W. Rohm,A. Sá, J. Sammer,T. Simeonov, W. Söhne,A. Stoycheva, A. Stürze,Sz. Rozsa,F. N. Teferle, S. Thorsteinsson,P. Václavovic, H. Valentim,B. Van Schaeybroeck,P. Viterbo,K. Wilgan, L. Yang, L. Zhao, N. Zinas, F. Zus

Springer eBooks（2019）

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摘要

Over the last decade, near real-time analysis of GPS data has become a well-established atmospheric observing tool, primarily coordinated by the EIG EUMETNET GPS Water Vapour Programme (E-GVAP) in Europe. In the near future, four operational GNSS will be available for commercial and scientific applications with atmospheric science benefiting from new signals from up to 60 satellites observed at any one place and time, however, many challenges remain regarding their optimal combined utilization. Besides raw data streaming, recent availability of precise real-time orbit and clock corrections enable wide utilization of autonomous Precise Point Positioning (PPP), which is particularly efficient for high-rate, real-time and multi-GNSS analyses.

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advanced gnss processing techniques

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