Comprehensive Detection Methods for the Millimeter-wave Fuze

KONG Linghui; PENG Zhiling; HAN Wenbin; LI Shaojie; XIONG Ran; XIE Fei

doi:10.7643/ issn.1672-9242.2026.05.003

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Equipment Environmental Engineering ›› 2026, Vol. 23 ›› Issue (5) : 17-24. DOI: 10.7643/ issn.1672-9242.2026.05.003

Weapons Equipment

Comprehensive Detection Methods for the Millimeter-wave Fuze

KONG Linghui¹, PENG Zhiling^1,*, HAN Wenbin², LI Shaojie², XIONG Ran³, XIE Fei¹

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Abstract

To meet the precise performance parameter testing requirements of the millimeter-wave fuze across all critical stages of the lifecycle, including production calibration, warehousing quality inspection, operational deployment, and maintenance re-inspection, and to specifically address the pain points of traditional testing equipment such as high hardware costs, low integration of functional modules, and cumbersome and time-consuming testing procedures, the work aims to design a low-cost, highly integrated, and user-friendly comprehensive test system for the millimeter-wave radio proximity fuze. Firstly, the detection principles of the fuze's core performance parameters were systematically reviewed, including arming time, operating voltage and current, detonation distance and sensitivity, frequency, and transmit power, and on this basis, an integrated detection system was constructed, consisting of a control unit, a millimeter-wave parameter testing unit, a target simulation testing unit, and supporting data analysis software, with the standardized testing procedures and operational specifications for each parameter clearly defined. The system innovatively integrated key technologies such as characteristic voltage timing capture, heterodyne frequency algorithms, the Doppler effect, and data fitting calibration to successfully achieve multi-parameter acquisition and integrated detection. The test data support real-time display, classified storage, and format export, facilitating quick viewing, traceability, and subsequent analysis by testers, which not only meets the accuracy requirements of engineering applications but also significantly simplifies the operation process and improves detection efficiency, thereby providing an efficient and practical technical means for the quality control and reliability assurance of the millimeter-wave fuze.

Key words

millimeter-wave fuze / fuze detection / integrated test system / multi-parameter integrated detection / Doppler effect / method optimization

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KONG Linghui, PENG Zhiling, HAN Wenbin, LI Shaojie, XIONG Ran, XIE Fei. Comprehensive Detection Methods for the Millimeter-wave Fuze[J]. Equipment Environmental Engineering. 2026, 23(5): 17-24 https://doi.org/10.7643/ issn.1672-9242.2026.05.003

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