Sistema electromecánico de estabilización de vuelo para nanosatélites CubeSat

The objective of the research was to design and simulate a stabilization system for attitude control of CubeSat nanosatellites in LEO orbit. The electronic system was inside the mechanical system, designed in Proteus. The mechanical system was designed in SolidWorks, then a CubeSat 3U CAD was downloaded for simulation and finally, all CAD designs were assembled. These data were used for the analysis of the spatial environmental perturbations of aerodynamic drag, gradient, gravity and magnetic field. Attitude representation was done by analyzing the Euler, Poisson and Quaternions equations. Then, a fuzzy logic control was created with two cases for automatic control. The analysis and virtual reality simulation revealed the correct attitude control on the CubeSat 3U nanosatellite, considering the perturbations of the space environment and a new 25° orientation of each axis.

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Publication Details

Journal
Magazine Portal Bibliotech Digital (Universidad Nacional de Colombia)
Published
2024-12-05
Primary Topic
Spacecraft Design and Technology
Type
article
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article

Sistema electromecánico de estabilización de vuelo para nanosatélites CubeSat

Karla E. Mora, Fausto R. Freire
Magazine Portal Bibliotech Digital (Universidad Nacional de Colombia)
Spacecraft Design and Technology
article

Sistema electromecánico de estabilización de vuelo para nanosatélites CubeSat

Karla E. Mora, Fausto R. Freire
article en

Abstract

The objective of the research was to design and simulate a stabilization system for attitude control of CubeSat nanosatellites in LEO orbit. The electronic system was inside the mechanical system, designed in Proteus. The mechanical system was designed in SolidWorks, then a CubeSat 3U CAD was downloaded for simulation and finally, all CAD designs were assembled. These data were used for the analysis of the spatial environmental perturbations of aerodynamic drag, gradient, gravity and magnetic field. Attitude representation was done by analyzing the Euler, Poisson and Quaternions equations. Then, a fuzzy logic control was created with two cases for automatic control. The analysis and virtual reality simulation revealed the correct attitude control on the CubeSat 3U nanosatellite, considering the perturbations of the space environment and a new 25° orientation of each axis.

Magazine Portal Bibliotech Digital (Universidad Nacional de Colombia)
Openalex Percentile: Top 17%
Spacecraft Design and Technology
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