Study on Distribution Car's Mechanical Structure Design
DOI:
https://doi.org/10.54097/7dhhd896Keywords:
Food delivery car, Load capacity, Turning radius, Stability, Automatic steering.Abstract
Unmanned delivery services have become a part of everyday life as science and technology have advanced. In addition to reducing labor expenses, it guarantees food safety and addresses privacy concerns for users. As a result, more and more consumers are requesting unmanned delivery services. There are many food delivery cars available on the market these days, but the most of them suffer from issues like low load capacity, comparatively few service objects, and mechanical structures that need to be further improved. Customers will naturally sense if the delivery car is inefficient, particularly during prime eating hours, these issues require immediate attention. This article proposes an intelligent car that can considerably increase the load rate and simultaneously perform several food delivery services in order to address the aforementioned issues. Simultaneously, it will incorporate an active four-wheel steering system to guarantee that the vehicle can accomplish the meal delivery mission with greater agility and comfort. The rendering model of this new food delivery vehicle is the end product of designing the perfect model and using SolidWorks modeling to make the material requirements evident in relation to the environment. Ultimately, a thorough analysis of the trolley's mechanical construction is presented, along with a detailed description of its operation, potential exceptional scenarios, and appropriate operating techniques. The new distribution car greatly increases the load capacity and work efficiency by refining the mechanical structure. It can fulfill the majority of the distribution needs for smart automobiles, depending on the particular use environment and usage in conjunction with other smart plates.
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References
Ye Tian, Lin Xingliang, Yang Luxia. Design of intelligent Drug Delivery car based on vision System [J]. Shanxi Electronic Technology, 2023, 01: 66-69.
Zhang Bingwen, Zhang Yue, He Xiyuan. Design of intelligent drug delivery car based on CNN+OpenCV [J]. Modern Information Technology, 2024, 8(04): 175-179.
Mao Jiwei. Innovation of Active steering System in Improving Vehicle Performance [J]. Automotive & Driving Repair (Repair Edition), 2017, 06:143.
Ren Fang. Optimization Design of Human-Computer Interaction System of Dialogue Robot based on Deep reinforcement Learning [J]. Automation & Instrumentation, 2024, 03:184-188.
Xu Hualei. Study on Design and Control Characteristics of Automotive Active Steering System [J]. Automotive Test Report, 2023, 11:13-15.
Wei Han. Research on Four-wheel Steering Control Strategy Based on Electric Wheel Vehicle [D]. Jiangsu University, 2023.
Wang Xiuxu, Li Chuanpeng, Wang Yaofu. Design and research of multi-function unmanned food delivery truck [J]. China Information Technology, 2020, 12:100-101.
Zhang Yao, Li Jing, Chen Wengang, Li Zuyang, Yang Xiaodong, Dai Binggui, Zhang Jihao, Yang Jiawei. Application and development status of engineering plastics as friction materials [J]. Plastics Industry, 2019, 51(10):21-29+42.
Xu Cheng, Cheng Qiang, Zhao Peng, Cheng Weiqing. Adaptive anti-jamming optimization algorithm of multi-mode radar based on Artificial intelligence [J]. Modern Electronics Technique, 2019, 47(07):73-76.
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