Di-layers satellite electronic shielding system (DiLSES): fabrication and characterization

Satellites in space are vulnerable to high-energy electrons above that can damage their electronic systems. To curtail this challenge, a new multi-layer system is synthesized from biomass and geological ores and characterized for mechanical, thermal as well as gamma and beta radiation shielding efficiencies. The new system, a Di-layer Satellite Electronic Shielding System (DiLSES), featuring an innovative, light weight, two-layer material composite made from low atomic number material labeled which are arranged in two configurations LH and HL. This advanced material shows exceptional mechanical characteristics with impact strength of hardness of and tensile strength of, making it resistant to launch vibrations and collision with low velocity space debris. Thermogravimetric analysis (TGA) revels that DiLSES can withstand high temperature environment of up to 300 and only gradually decomposes by less than 5% between and For gamma radiation shielding efficiency, the DiLSES effectively attenuated pointed gamma radiation from Co-60 with maximum energy of 1.332 MeV by and for and the LH configuration offers better attenuation. The DiLSES attenuates high-energy beta particles generated by medical LINAC by over 93%, achieving a remarkable reduction at energy .This innovative light-weights and cost-effective material has the potential to improve the shielding of electronic components in satellites against high-energy beta particles (greater than 1 Mev) which cause satellite damage and operational failures. It also offers protection from space radiation like gamma and cosmic rays, making it useful for both space and medical applications.

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Publication Details

Journal
Proceedings of the Nigerian Society of Physical Sciences
Published
2025-03-23
DOI
https://doi.org/10.61298/pnspsc.2025.2.164
Citations
2
Primary Topic
Spacecraft Design and Technology
Type
article
Field-Weighted Citation Impact
9.99
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article

Di-layers satellite electronic shielding system (DiLSES): fabrication and characterization

Umar Sa’ad Aliyu, Muhammad Sani, A.A. Hamza, Abubakar Sadiq Aliyu et al.
2 citations
Proceedings of the Nigerian Society of Physical Sciences
Spacecraft Design and Technology
9.99
article

Di-layers satellite electronic shielding system (DiLSES): fabrication and characterization

Umar Sa’ad Aliyu, Muhammad Sani, A.A. Hamza, Abubakar Sadiq Aliyu, Lubem James Utume, Emmanuel Ochoyo Adamu, Emmanuel Ogwuche, Mugusuur Scholastica Iorshase, Wasiu Oyeyemi Salami, Isaac Pada
article en
2 citations

Abstract

Satellites in space are vulnerable to high-energy electrons above that can damage their electronic systems. To curtail this challenge, a new multi-layer system is synthesized from biomass and geological ores and characterized for mechanical, thermal as well as gamma and beta radiation shielding efficiencies. The new system, a Di-layer Satellite Electronic Shielding System (DiLSES), featuring an innovative, light weight, two-layer material composite made from low atomic number material labeled which are arranged in two configurations LH and HL. This advanced material shows exceptional mechanical characteristics with impact strength of hardness of and tensile strength of, making it resistant to launch vibrations and collision with low velocity space debris. Thermogravimetric analysis (TGA) revels that DiLSES can withstand high temperature environment of up to 300 and only gradually decomposes by less than 5% between and For gamma radiation shielding efficiency, the DiLSES effectively attenuated pointed gamma radiation from Co-60 with maximum energy of 1.332 MeV by and for and the LH configuration offers better attenuation. The DiLSES attenuates high-energy beta particles generated by medical LINAC by over 93%, achieving a remarkable reduction at energy .This innovative light-weights and cost-effective material has the potential to improve the shielding of electronic components in satellites against high-energy beta particles (greater than 1 Mev) which cause satellite damage and operational failures. It also offers protection from space radiation like gamma and cosmic rays, making it useful for both space and medical applications.

Proceedings of the Nigerian Society of Physical Sciences
Benue State University (NG), Federal University Lafia (NG), National Hospital Abuja (NG), Institute of Applied Technology (CN)
Openalex Percentile: Top 3%
Spacecraft Design and Technology
9.99
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