Polygon Closure Initial Orbit Determination for Low Earth Orbit Space Debris: J2-Corrected Lambert in an Over-Determined Framework

Space debris in low Earth orbit represents an escalating risk to operational satellites. The current standard for optical-only orbit determination produces inclination errors of 5-15 degrees from a single telescope pass, insufficient for reliable conjunction analysis. This work adapts the Polygon Closure IOD framework (PC-IOD M=4) to the LEO debris problem, replacing heliocentric Keplerian Lambert with a J2-corrected geocentric numerical propagator. Using four anchor observations within a single 8-minuteoptical pass, the over-determined constraint system yields sub-0.005-degree inclination accuracy without radar — a 3,700 to 7,400-fold improvement over Gauss IOD. We quantify the J2 perturbation significance during an 8-minute pass and establish that J2-corrected propagation is mandatory for multi-pass conjunction prediction, where Keplerian drift reaches 1,108 km per day. The complete Python implementation is provided under PolyForm Noncommercial 1.0.0.

Authors

Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-06-16
DOI
https://doi.org/10.5281/zenodo.20721559
Primary Topic
Space Satellite Systems and Control
Type
preprint
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preprint

Polygon Closure Initial Orbit Determination for Low Earth Orbit Space Debris: J2-Corrected Lambert in an Over-Determined Framework

Andres Sebaatian Pirolo
Zenodo (CERN European Organization for Nuclear Research)
Space Satellite Systems and Control
preprint

Polygon Closure Initial Orbit Determination for Low Earth Orbit Space Debris: J2-Corrected Lambert in an Over-Determined Framework

Andres Sebaatian Pirolo
preprint en

Abstract

Space debris in low Earth orbit represents an escalating risk to operational satellites. The current standard for optical-only orbit determination produces inclination errors of 5-15 degrees from a single telescope pass, insufficient for reliable conjunction analysis. This work adapts the Polygon Closure IOD framework (PC-IOD M=4) to the LEO debris problem, replacing heliocentric Keplerian Lambert with a J2-corrected geocentric numerical propagator. Using four anchor observations within a single 8-minuteoptical pass, the over-determined constraint system yields sub-0.005-degree inclination accuracy without radar — a 3,700 to 7,400-fold improvement over Gauss IOD. We quantify the J2 perturbation significance during an 8-minute pass and establish that J2-corrected propagation is mandatory for multi-pass conjunction prediction, where Keplerian drift reaches 1,108 km per day. The complete Python implementation is provided under PolyForm Noncommercial 1.0.0.

Zenodo (CERN European Organization for Nuclear Research)
Space Satellite Systems and Control
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