Highly physical penumbra solar radiation pressure modeling with atmospheric effects

authored by: Robert Robertson, Jakob Flury, Tamara Bandikova, Manuel Schilling
Abstract: We present a new method for highly physical solar radiation pressure (SRP) modeling in Earth’s penumbra. The fundamental geometry and approach mirrors past work, where the solar radiation field is modeled using a number of light rays, rather than treating the Sun as a single point source. However, we aim to clarify this approach, simplify its implementation, and model previously overlooked factors. The complex geometries involved in modeling penumbra solar radiation fields are described in a more intuitive and complete way to simplify implementation. Atmospheric effects are tabulated to significantly reduce computational cost. We present new, more efficient and accurate approaches to modeling atmospheric effects which allow us to consider the high spatial and temporal variability in lower atmospheric conditions. Modeled penumbra SRP accelerations for the Gravity Recovery and Climate Experiment (GRACE) satellites are compared to the (Formula presented.) precision GRACE accelerometer data. Comparisons to accelerometer data and a traditional penumbra SRP model illustrate the improved accuracy which our methods provide. Sensitivity analyses illustrate the significance of various atmospheric parameters and modeled effects on penumbra SRP. While this model is more complex than a traditional penumbra SRP model, we demonstrate its utility and propose that a highly physical model which considers atmospheric effects should be the basis for any simplified approach to penumbra SRP modeling.
Organisation(s): Institute of Geodesy
External Organisation(s): Virginia Polytechnic Institute and State University (Virginia Tech)
Type: Article
Journal: Celestial Mechanics and Dynamical Astronomy
Volume: 123
Pages: 169-202
No. of pages: 34
ISSN: 0923-2958
Publication date: 26.10.2015
Publication status: Published
Peer reviewed: Yes
ASJC Scopus subject areas: Modelling and Simulation, Mathematical Physics, Astronomy and Astrophysics, Space and Planetary Science, Computational Mathematics, Applied Mathematics
Sustainable Development Goals: SDG 13 - Climate Action
Electronic version(s): https://doi.org/10.1007/s10569-015-9637-0 (Access: Closed)
: Details in the research portal "Research@Leibniz University"

BibTeX

@article{0af02611f2ad42d4a0cb820712c5902a,
title = "Highly physical penumbra solar radiation pressure modeling with atmospheric effects",
abstract = "We present a new method for highly physical solar radiation pressure (SRP) modeling in Earth{\textquoteright}s penumbra. The fundamental geometry and approach mirrors past work, where the solar radiation field is modeled using a number of light rays, rather than treating the Sun as a single point source. However, we aim to clarify this approach, simplify its implementation, and model previously overlooked factors. The complex geometries involved in modeling penumbra solar radiation fields are described in a more intuitive and complete way to simplify implementation. Atmospheric effects are tabulated to significantly reduce computational cost. We present new, more efficient and accurate approaches to modeling atmospheric effects which allow us to consider the high spatial and temporal variability in lower atmospheric conditions. Modeled penumbra SRP accelerations for the Gravity Recovery and Climate Experiment (GRACE) satellites are compared to the (Formula presented.) precision GRACE accelerometer data. Comparisons to accelerometer data and a traditional penumbra SRP model illustrate the improved accuracy which our methods provide. Sensitivity analyses illustrate the significance of various atmospheric parameters and modeled effects on penumbra SRP. While this model is more complex than a traditional penumbra SRP model, we demonstrate its utility and propose that a highly physical model which considers atmospheric effects should be the basis for any simplified approach to penumbra SRP modeling.",
keywords = "Atmospheric optics, GRACE, Orbit determination, Penumbra, Refraction, Satellite accelerometry, Solar radiation pressure, Spacecraft navigation",
author = "Robert Robertson and Jakob Flury and Tamara Bandikova and Manuel Schilling",
note = "Funding Information: This research began in 2010 during a Research Internships in Science and Engineering (RISE) internship funded by the German Academic Exchange Service (DAAD) and carried out at the Institute for Geodesy (IFE) at Leibniz Universit{\"a}t in Hannover, Germany. Robert Robertson was supported by a Virginia Space Grant Consortium (VSGC) Graduate Research Fellowship. The authors would like to thank Professor David Vokrouhlick{\'y} from Charles University in Prague for providing invaluable guidance on understanding and implementing his SRP modeling methods which our work builds upon. Jakob Flury was supported by the Center of Excellence QUEST and by the DFG Sonderforschungsbereich SFB1128 “Relativistic Geodesy and Gravimetry with Quantum Sensors”. ",
year = "2015",
month = oct,
day = "26",
doi = "10.1007/s10569-015-9637-0",
language = "English",
volume = "123",
pages = "169--202",
journal = "Celestial Mechanics and Dynamical Astronomy",
issn = "0923-2958",
publisher = "Springer Netherlands",
number = "2",
}