PODCAST: Precise Orbit Determination Software for LEO Satellites
K. Gutsche, T. Hobiger, S. Winkler, and B. Stucke. Proceedings of the 35th International Technical Meeting of the Satellite Division of the Institute of Navigation (ION GNSS+ 2022), page 3707-3719. (September 2022)
Abstract
Precise Orbit Determination (POD) and Precise Baseline Determination (PBD) are indispensable for many of today's remote sensing satellite missions. With the advent of agile satellite missions, new solutions are needed to cope with frequently occurring maneuvers to fulfill the strict POD requirements imposed by
scientific mission goals. The C++ software "Precise Orbit Determination for Complex and Agile Satellite Technology" (PODCAST) aims to create a flexible framework to investigate novel approaches related to POD and PBD of agile and non-agile satellites. PODCAST facilitates this by abiding by a modular concept for all core components needed for POD and thus ensures the complete interchangeability of algorithms and models in the development process.
This study gives insights into the modular architecture of PODCAST and the underlying fundamental principles. The capabilities are demonstrated for a GNSS-based POD using simulated observations created for a Sentinel-3A reference trajectory. The obtained results indicate the accomplishable accuracy and precision for given measurement errors using the approaches presented in this work. We further showcase that PODCAST can serve as the foundation for future POD software development and suggest improvements that allow addressing of future mission-critical POD features.
%0 Conference Paper
%1 gutsche2022podcast
%A Gutsche, Kevin
%A Hobiger, Thomas
%A Winkler, Stefan
%A Stucke, Bayram
%B Proceedings of the 35th International Technical Meeting of the Satellite Division of the Institute of Navigation (ION GNSS+ 2022)
%D 2022
%K myown from:kevingutsche ins
%P 3707-3719
%T PODCAST: Precise Orbit Determination Software for LEO Satellites
%X Precise Orbit Determination (POD) and Precise Baseline Determination (PBD) are indispensable for many of today's remote sensing satellite missions. With the advent of agile satellite missions, new solutions are needed to cope with frequently occurring maneuvers to fulfill the strict POD requirements imposed by
scientific mission goals. The C++ software "Precise Orbit Determination for Complex and Agile Satellite Technology" (PODCAST) aims to create a flexible framework to investigate novel approaches related to POD and PBD of agile and non-agile satellites. PODCAST facilitates this by abiding by a modular concept for all core components needed for POD and thus ensures the complete interchangeability of algorithms and models in the development process.
This study gives insights into the modular architecture of PODCAST and the underlying fundamental principles. The capabilities are demonstrated for a GNSS-based POD using simulated observations created for a Sentinel-3A reference trajectory. The obtained results indicate the accomplishable accuracy and precision for given measurement errors using the approaches presented in this work. We further showcase that PODCAST can serve as the foundation for future POD software development and suggest improvements that allow addressing of future mission-critical POD features.
%@ 978-0-936406-32-9
@inproceedings{gutsche2022podcast,
abstract = {Precise Orbit Determination (POD) and Precise Baseline Determination (PBD) are indispensable for many of today's remote sensing satellite missions. With the advent of agile satellite missions, new solutions are needed to cope with frequently occurring maneuvers to fulfill the strict POD requirements imposed by
scientific mission goals. The C++ software "Precise Orbit Determination for Complex and Agile Satellite Technology" (PODCAST) aims to create a flexible framework to investigate novel approaches related to POD and PBD of agile and non-agile satellites. PODCAST facilitates this by abiding by a modular concept for all core components needed for POD and thus ensures the complete interchangeability of algorithms and models in the development process.
This study gives insights into the modular architecture of PODCAST and the underlying fundamental principles. The capabilities are demonstrated for a GNSS-based POD using simulated observations created for a Sentinel-3A reference trajectory. The obtained results indicate the accomplishable accuracy and precision for given measurement errors using the approaches presented in this work. We further showcase that PODCAST can serve as the foundation for future POD software development and suggest improvements that allow addressing of future mission-critical POD features.},
added-at = {2022-10-24T12:29:42.000+0200},
author = {Gutsche, Kevin and Hobiger, Thomas and Winkler, Stefan and Stucke, Bayram},
biburl = {https://puma.ub.uni-stuttgart.de/bibtex/2f574c8c83dcaf743ece65daf96e91db7/ins},
booktitle = {Proceedings of the 35th International Technical Meeting of the Satellite Division of the Institute of Navigation (ION GNSS+ 2022)},
eventdate = {September 19–23, 2022},
eventtitle = {ION GNSS+ 2022},
interhash = {60381dd91c77b13ae0c283ea99d555fe},
intrahash = {f574c8c83dcaf743ece65daf96e91db7},
isbn = {978-0-936406-32-9},
issn = {2331-5954},
keywords = {myown from:kevingutsche ins},
month = sep,
pages = {3707-3719 },
timestamp = {2023-10-25T13:58:02.000+0200},
title = {PODCAST: Precise Orbit Determination Software for LEO Satellites},
year = 2022
}