陈雷雷,沈凯琪,胡庆松,等. 虾蟹塘自动投饵船研究现状与展望[J]. 农业工程学报,2024,40(22):1-12. DOI: 10.11975/j.issn.1002-6819.202403131
    引用本文: 陈雷雷,沈凯琪,胡庆松,等. 虾蟹塘自动投饵船研究现状与展望[J]. 农业工程学报,2024,40(22):1-12. DOI: 10.11975/j.issn.1002-6819.202403131
    CHEN Leilei, SHEN Kaiqi, HU Qingsong, et al. Research status and prospects of Automatic Feeding Boats for Shrimp and Crab Ponds[J]. Transactions of the Chinese Society of Agricultural Engineering (Transactions of the CSAE), 2024, 40(22): 1-12. DOI: 10.11975/j.issn.1002-6819.202403131
    Citation: CHEN Leilei, SHEN Kaiqi, HU Qingsong, et al. Research status and prospects of Automatic Feeding Boats for Shrimp and Crab Ponds[J]. Transactions of the Chinese Society of Agricultural Engineering (Transactions of the CSAE), 2024, 40(22): 1-12. DOI: 10.11975/j.issn.1002-6819.202403131

    虾蟹塘自动投饵船研究现状与展望

    Research status and prospects of Automatic Feeding Boats for Shrimp and Crab Ponds

    • 摘要: 自动投喂是虾蟹池塘养殖效益提升的关键环节,也是虾蟹池塘养殖机械化、自动化发展的重要组成部分。虾蟹塘自动投饵船,因为具有精准定位、自动导航、自主运行和均匀投饵等适应虾蟹养殖的自动投喂功能,受到越来越多的关注。该文调研了国内外科研机构和企业对虾蟹塘自动投饵船研究和应用的现状,并从投饵船驱动装置、投饵送料机构、精准投喂控制技术3个方面归纳总结了虾蟹塘自动投饵船的研究现状。针对当前研究不足,展望了未来研究的趋势:复杂环境的适应能力和运行可靠性提升,饲料颗粒-投饵船-养殖生物的互作用机理研究,精准化性能提升和人工智能新技术的应用,以及标准化和系统化。以期为国内虾蟹塘自动投饵船的进一步研究、开发和应用推广提供借鉴。

       

      Abstract: In China, there is a large expanse of shrimp and crab pond aquaculture, with a high demand for automatic feeding. Implementing automated feeding is crucial for ensuring the output and quality of the cultivated species, as it helps to manage cultivation costs and minimize pollution of the aquaculture water body. This is a critical step in enhancing the efficiency of shrimp and crab pond aquaculture, and is also a vital aspect of the advancement of mechanization and automation in this industry. Given the limited swimming ability of shrimp and crabs, it is essential to evenly distribute feed throughout the pond based on their feeding behaviors. Researchers are increasingly focusing on the development of automatic shrimp and crab pond feeding boats with such functions as precise positioning, automatic navigation, autonomous operation, and uniform feeding capabilities. This paper has conducted a survey on the research and implementation of feeding boats for shrimp and crab ponds by both domestic and international scientific research organizations and businesses. It has subsequently outlined the current research status of automatic feeding boats for shrimp and crab ponds based on three key aspects: the propulsion system of the feeding boats, the bait delivery mechanism, and precise feeding control technology. Firstly, the current propulsion systems used for feeding boats are primarily paddle wheels and propellers, each with their own strengths and weaknesses, suitable for different scenarios. Scholars are conducting structural optimizations to improve speed, efficiency, and maneuverability for both systems. Additionally, in response to the aquaculture environment with dense aquatic plants, some researchers are exploring the use of blowers and integrated screw systems for feeding boats. However, research on these two mechanisms is still in the exploratory phase. Secondly, the feeding mechanism consists of a feeding mechanism and a scattering mechanism. Scholars have designed different mechanisms to achieve the transportation and scattering of feed under various aquaculture conditions. 1) The feeding mechanism mainly includes screw feeding mechanisms, rotary valve feeding mechanisms, and vibrating feeding mechanisms. The main research focuses on achieving lower feed breakage rates and higher transportation speeds, efficiency, and accuracy. 2) The scattering mechanism primarily uses centrifugal scattering discs, which can achieve a wide scattering range. To achieve higher uniformity in scattering and lower feed breakage rates, scholars have optimized it using various simulation software. There are also scholars who, based on the feeding characteristics of shrimp, apply direct feeding methods in shrimp ponds. Thirdly, the precise feeding control technology mainly focuses on three aspects: 1) Path planning, where research primarily involves planning edge-following and coverage paths according to different breeding needs, using a combination of sensors, satellite navigation systems, and path planning algorithms. 2) Automatic recognition technology for shrimp and crabs, which uses machine vision and acoustic technology to identify these creatures, allowing the feeding boat to formulate feeding strategies based on their distribution within the aquaculture pond. 3) Precise control technology for predicting and accurately controlling the amount of feed, which uses deep learning to accurately predict and control the amount of feed for shrimp and crabs. Furthermore, this paper examines the limitations of current research and anticipates future research trends focusing on: 1) enhancing adaptability and operational reliability in complex environments, 2) investigating the interaction mechanism between feed particles, feeding boats, and breeding organisms, 3) improving precision performance and implementing new artificial intelligence technologies, and 4) standardization and systematization. And from the perspective of practical application, the standardizations of equipment layout, pipelines distribution and waterweed planting are emphasized. It is expected that this will offer valuable insights for further research, development, and promotion of the application of automatic feeding boats for shrimp and crab ponds in China.

       

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