UNMANNED LEAF SWEEPING AND CRUSHING VEHICLE

Authors

  • ZhaoMing Li (Corresponding Author) School of Intelligent Manufacturing and Control Technology, Xi'an Mingde Institute of Technology, Xi'an 710000, Shaanxi, China.

Keywords:

Autonomous driving, Intelligent systems, Shortest path

Abstract

In urban and campus environments, fallen leaves accumulate extensively. The research team has developed an unmanned leaf sweeping vehicle to improve cleaning efficiency and reduce labor costs. The innovative features of this unmanned leaf sweeping vehicle lie in its unmanned driving software technology and built-in navigation function. The hardware design adopts corrosion-resistant hard materials, high-speed and energy-saving motors, adjustable cleaning brushes, vacuum cleaners, and large-capacity lithium batteries, enabling the sweeping vehicle to achieve intelligence, high performance, high efficiency, energy saving, and environmental protection. The core contents of the unmanned leaf sweeping vehicle include: control of driving speed and sweeping speed; calculations for movement and sweeping to minimize leaf sweeping time and movement path; mathematical model prediction; real-time sensor feedback; intelligent machine learning; and predicted movement path. The control system includes driving control, sweeping control, and crushing control. The motor provides power, the ball screw converts motion, and the sensor provides real-time feedback. Autonomous navigation technology and deep learning algorithms are introduced to enhance intelligence. Users can control the vehicle and realize remote monitoring through a mobile phone APP.

References

[1] Xu F, Feng J, Wang Y, et al. Parallel self-learning adaptive strategy based on model predictive control for trajectory tracking of autonomous vehicles. Engineering Applications of Artificial Intelligence, 2026, 173: 114495-114495.

[2] Bariker P, Khan R M, Arcos R. Wandering constraints in autonomous vehicle platoons to safeguard flexible pavements. Innovative Infrastructure Solutions, 2026, 11(4): 172-172.

[3] Jahan F, Devore J, Niyaz Q, et al. Application of non-cooperative game theory in analyzing a potential DoS on autonomous vehicular network. SIMULATION, 2026, 102(4): 277-299.

[4] Mathisen A T, Aleksandrov E, Borkamo L H, et al. Riding without drivers: A case study of public acceptance of autonomous buses in the Arctic. Journal of Urban Mobility, 2026, 9: 100196-100196.

[5] How a New System Could Help the Remote Drivers Who Operate ‘Driverless’ Cars. M2 Presswire, 2026.

[6] Aurrigo secures GBP6.28m contract to supply autonomous vehicles for passenger transit. Worldwide Computer Products News, 2026.

[7] HAMID S F, Jasim A T, Alsultan G R. Vehicular‐to‐Everything (V2X) Communication Using 5G NR for Autonomous Vehicles. Journal of Engineering, 2026, 2026(1): 8643947-8643947.

[8] Amokrane B S, Stanković M, Madonski R, et al. Adaptive ADRC with deep reinforcement learning for leader-follower control in unmanned tracked vehicles. Proceedings of the Institution of Mechanical Engineers, Part I: Journal of Systems and Control Engineering, 2026, 240(3): 401-417.

[9] Shah H S, Rahman U S, Mohammed E M O, et al. Design of speed-control system for an autonomous vehicle based on dual BLDC-motor steering and CAN communication, applying adaptive fuzzy logic control. Ain Shams Engineering Journal, 2026, 17(3): 104057-104057.

[10] Guo J, Wang Z, Ma S, et al. Separated or integrated? the optimal matching mode in ride-hailing platforms with autonomous vehicles. Transportation Research Part E, 2026, 209: 104777-104777.

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Published

2026-04-17

Issue

Section

Research Article

DOI:

How to Cite

ZhaoMing Li. Unmanned Leaf Sweeping And Crushing Vehicle. World Journal of Engineering Research. 2026, 4(2): 68-72. DOI: https://doi.org/10.61784/wjer3091.