The Design of Small-Scale Intelligent Hovercraft

To overcome the limitations of traditional hovercraft in complex sea conditions and multifunctional collaborative applications, our team has designed a small intelligent unmanned hovercraft featuring an efficient cushion-lifting system. Based on the core principles of the air-spring model and simulation studies of cushion flow characteristics, we utilized Abaqus software to deeply explore the hovercraft's water-entry dynamics and attitude variations under varying pressures, achieving precise capture of airbag centroid velocity and displacement. A physical model was constructed for CFD simulations, laying a solid foundation for aerodynamic design optimization. The hovercraft integrates multiple sensors, including LIDAR and sonar, to form a comprehensive environmental perception matrix for real-time of obstacle, current and terrain. Driven by data, the intelligent control system incorporates machine learning and expert systems for smart decision-making, enabling precise control of parameters such as speed and steering to achieve adaptive navigation in complex waters or terrains. This innovation opens up new avenues for multi-domain applications and leads the trend in hovercraft technology transformation.

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Publication Details

Published
2025-05-09
DOI
https://doi.org/10.1145/3756423.3756545
Primary Topic
Robotic Path Planning Algorithms
Type
article
Field-Weighted Citation Impact
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article

The Design of Small-Scale Intelligent Hovercraft

Zhiyao Zhao, Tingyu Fu, Peng Wu, Yueling Xiong et al.
Robotic Path Planning Algorithms
article

The Design of Small-Scale Intelligent Hovercraft

Zhiyao Zhao, Tingyu Fu, Peng Wu, Yueling Xiong, Yifei Yan, Bum Woo Han
article en

Abstract

To overcome the limitations of traditional hovercraft in complex sea conditions and multifunctional collaborative applications, our team has designed a small intelligent unmanned hovercraft featuring an efficient cushion-lifting system. Based on the core principles of the air-spring model and simulation studies of cushion flow characteristics, we utilized Abaqus software to deeply explore the hovercraft's water-entry dynamics and attitude variations under varying pressures, achieving precise capture of airbag centroid velocity and displacement. A physical model was constructed for CFD simulations, laying a solid foundation for aerodynamic design optimization. The hovercraft integrates multiple sensors, including LIDAR and sonar, to form a comprehensive environmental perception matrix for real-time of obstacle, current and terrain. Driven by data, the intelligent control system incorporates machine learning and expert systems for smart decision-making, enabling precise control of parameters such as speed and steering to achieve adaptive navigation in complex waters or terrains. This innovation opens up new avenues for multi-domain applications and leads the trend in hovercraft technology transformation.

Harbin University (CN), Harbin Engineering University (CN)
Openalex Percentile: Top 75%
Robotic Path Planning Algorithms
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The Design of Small-Scale Intelligent Hovercraft — Zhiyao Zhao, Tingyu Fu, et al. · (2025) | TGRS Research Map | TGRS