Injectable conductive hydroxylamine nitrate ionic gel materials crosslinked by xanthan gum for ultra-fast multiple ignitions response via electrical stimulation

IF 9 1区 工程技术 Q1 ENERGY & FUELS
Chuntian Li , Lian Li , Zhidong Wang , Qianyi Zhang , Hanwen Zhang , Zhiwen Wang , Ruiqi Shen , Luigi T. De Luca , Wei Zhang
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引用次数: 0

Abstract

To achieve accurate and adjustable propulsion power, it is essential to utilize propellant materials undergoing repeated ignition and combustion cycles. Injectable gel propellant materials possess superior mechanical properties and fluidity, allowing for the regulation of their combustion process through the precise control of flow rate. Herein, an injectable conductive ion gel which uses hydroxylamine nitrate ([NH3OH]+[NO3]-, HAN) high-energy ion salt as matrix and lithium perchlorate ([Li]+[ClO4]-, LP) and ammonium nitrate ([NH4]+[NO3]-, AN) ion salt to adjust its conductivity was reported. The components of this injectable conductive gel material exhibit high compatibility, as confirmed by XPS and FT-IR analysis, and the uniqueness of the conversion between liquid and solid has established a good supply property. After centrifugation at 5000 r·min-1 for 15 min, the eccentricity was only 0.6%, demonstrating its excellent stability. Compared with the existing gel propellant materials, its ignition delay time in a single ignition test reached 700ms under 225V and 8ml·min-1. More importantly, the ignition delay can be reduced to around 200ms after multiple repeated ignition tests, indicating an ultra-fast response phenomenon that rarely occurs in most of the research process, paving the way for realizing the ultrafast multiple repeated application of gel propellant materials in space propulsion.
由黄原胶交联的可注射传导性硝酸羟胺离子凝胶材料,通过电刺激实现超快多次点火响应
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来源期刊
Energy
Energy 工程技术-能源与燃料
CiteScore
15.30
自引率
14.40%
发文量
0
审稿时长
14.2 weeks
期刊介绍: Energy is a multidisciplinary, international journal that publishes research and analysis in the field of energy engineering. Our aim is to become a leading peer-reviewed platform and a trusted source of information for energy-related topics. The journal covers a range of areas including mechanical engineering, thermal sciences, and energy analysis. We are particularly interested in research on energy modelling, prediction, integrated energy systems, planning, and management. Additionally, we welcome papers on energy conservation, efficiency, biomass and bioenergy, renewable energy, electricity supply and demand, energy storage, buildings, and economic and policy issues. These topics should align with our broader multidisciplinary focus.
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