Testing 3D-Printed Alumina Gyroids for High-Test Peroxide Catalytic Decomposition

The design of the catalyst bed plays a fundamental role in the development of high-performance green propulsion systems based on high-test peroxide. This work investigates the behavior of 3D-printed alumina catalysts shaped as gyroids, produced entirely in-house through a digital light processing (DLP) commercial setup. The manufacturing methodology includes a thermal treatment tailored to the developed ceramic formulation, followed by infiltration and impregnation steps to deposit manganese oxides as the active phase. Reactivity tests performed in a lab-scale reactor show a clear dependence of the decomposition behavior on both the specific surface area of the gyroid structures and the amount of MnOx deposited. A dedicated gyroid catalyst bed was then evaluated in a decomposition chamber mimicking thruster-like conditions, reaching decomposition efficiencies up to 99%. The results demonstrate the effectiveness of the proposed end-to-end approach to catalyst manufacturing and testing, highlighting the potential of 3D-printed gyroid structures as viable alternatives to conventional catalyst beds.

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Publication Details

Published
2026-01-08
DOI
https://doi.org/10.2514/6.2026-0354
Primary Topic
Rocket and propulsion systems research
Type
article
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article

Testing 3D-Printed Alumina Gyroids for High-Test Peroxide Catalytic Decomposition

Stefania Carlotti, Filippo Maggi, Silvia Botta
Rocket and propulsion systems research
article

Testing 3D-Printed Alumina Gyroids for High-Test Peroxide Catalytic Decomposition

Stefania Carlotti, Filippo Maggi, Silvia Botta
article en

Abstract

The design of the catalyst bed plays a fundamental role in the development of high-performance green propulsion systems based on high-test peroxide. This work investigates the behavior of 3D-printed alumina catalysts shaped as gyroids, produced entirely in-house through a digital light processing (DLP) commercial setup. The manufacturing methodology includes a thermal treatment tailored to the developed ceramic formulation, followed by infiltration and impregnation steps to deposit manganese oxides as the active phase. Reactivity tests performed in a lab-scale reactor show a clear dependence of the decomposition behavior on both the specific surface area of the gyroid structures and the amount of MnOx deposited. A dedicated gyroid catalyst bed was then evaluated in a decomposition chamber mimicking thruster-like conditions, reaching decomposition efficiencies up to 99%. The results demonstrate the effectiveness of the proposed end-to-end approach to catalyst manufacturing and testing, highlighting the potential of 3D-printed gyroid structures as viable alternatives to conventional catalyst beds.

Politecnico di Milano (IT)
Affordable and clean energy
Openalex Percentile: Top 76%
Rocket and propulsion systems research
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Testing 3D-Printed Alumina Gyroids for High-Test Peroxide Catalytic Decomposition — Stefania Carlotti, Filippo Maggi, et al. · (2026) | TGRS Research Map | TGRS