Preparation, Ignition, and Combustion of Boron Fuels with CuO as an Additive

This paper aims to improve boron’s oxidation, ignition, and combustion by adding nano-CuO. Samples with different CuO mass ratios and sizes were prepared by milling. Their properties were investigated by the thermogravimetric analysis (TGA) technique, heated filament test, and particle combustion test in premixed air–[Formula: see text] flame. In the TGA experiment at 5 K/min, increasing the ratio or reducing the size of CuO can promote the oxidation of boron powder. Among all CuO additives, 10 wt% nano-CuO can significantly reduce the onset oxidation temperature and improve the extent of the reaction of boron powder. In the heated filament test, CuO additives improve the boron to be ignited at a heating rate of 20,000 K/s, whereas pure boron cannot be ignited. Increasing the ratio or reducing the size of CuO can lower the ignition temperature of the powder. Furthermore, a high heating rate was believed to promote the interaction between CuO and boron particles. In the combustion test, 10 wt% nano-CuO can effectively accelerate the burn rate of submicron boron particles, with burn temperatures only slightly reduced. This study shows the potential of nano-CuO as an additive in boron-based fuels.

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Publication Details

Journal
Journal of Propulsion and Power
Published
2025-03-18
DOI
https://doi.org/10.2514/1.b39762
Primary Topic
Energetic Materials and Combustion
Type
article
Field-Weighted Citation Impact
0.00

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article

Preparation, Ignition, and Combustion of Boron Fuels with CuO as an Additive

Xinhang Liu, Lang Chen, Danyang Liu, Chao Shi et al.
Journal of Propulsion and Power
Energetic Materials and Combustion
article

Preparation, Ignition, and Combustion of Boron Fuels with CuO as an Additive

Xinhang Liu, Lang Chen, Danyang Liu, Chao Shi, Liang Hu, Jianyu Wang
article en

Abstract

This paper aims to improve boron’s oxidation, ignition, and combustion by adding nano-CuO. Samples with different CuO mass ratios and sizes were prepared by milling. Their properties were investigated by the thermogravimetric analysis (TGA) technique, heated filament test, and particle combustion test in premixed air–[Formula: see text] flame. In the TGA experiment at 5 K/min, increasing the ratio or reducing the size of CuO can promote the oxidation of boron powder. Among all CuO additives, 10 wt% nano-CuO can significantly reduce the onset oxidation temperature and improve the extent of the reaction of boron powder. In the heated filament test, CuO additives improve the boron to be ignited at a heating rate of 20,000 K/s, whereas pure boron cannot be ignited. Increasing the ratio or reducing the size of CuO can lower the ignition temperature of the powder. Furthermore, a high heating rate was believed to promote the interaction between CuO and boron particles. In the combustion test, 10 wt% nano-CuO can effectively accelerate the burn rate of submicron boron particles, with burn temperatures only slightly reduced. This study shows the potential of nano-CuO as an additive in boron-based fuels.

Journal of Propulsion and PowerVol. 41(5)
Beijing Institute of Technology (CN)
Beijing Institute of Technology
Openalex Percentile: Top 94%
Energetic Materials and Combustion
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