Annals of Advanced Agricultural Sciences

Download PDF (932.3 KB) PP. 31 - 37 Pub. Date: August 15, 2019

DOI: 10.22606/as.2019.33001

• Jingping Zhang
  College of Electrical & Information Engineering, Southwest Minzu University, Chengdu, China
• Shiquan Shao^*
  College of Electrical & Information Engineering, Southwest Minzu University, Chengdu, China

The AGV (Automatic Guided Transport Vehicle) is used more and more widely in the modern agriculture. The power supply system of the AGV trolley is an indispensable part of ensuring the operation of the machine. According to the actual use of the AGV car in this paper, the power consumption of the car is analyzed, and the power system of the AGV car is designed according to the power usage, so that the AGV car can meet the power demand under different loads. This paper uses MATLAB/SIMULINK software to simulate and verify the normal operation of the hybrid power supply AGV car.

AGV car, hybrid power system, efficient

[1] Xiong L, Sun S, Xiao M. Agricultural Machinery Automation and Intelligent Research and Application[J]. IOP Conference Series Materials Science and Engineering, 2018, 452:042077.

[2] Li J, Guo M, Gao L. Application and innovation strategy of agricultural Internet of Things[J]. Transactions of the Chinese Society of Agricultural Engineering, 2015.

[3] Zhao Y L. Researches on countermeasures and the status quo of agricultural industrialized cluster in Henan Province.[J]. Asian Agricultural Research, 2010, 2(11):26-29.

[4] Huang S J, Dai S H, Su J L, et al. Design of a contactless power supply system with dual output capability for AGV applications[C]// Consumer Electronics. 2017.

[5] Srivastava S C, Choudhary A K, Kumar S, et al. Development of an intelligent agent-based AGV controller for a flexible manufacturing system[J]. International Journal of Advanced Manufacturing Technology, 2008, 36(7-8):780.

[6] Archetti F, Sciomachen A. Development analysis and simulation of Petri net models: an application to AGV systems[C]// Operations Research Models in Flexible Manufacturing Systems. 1989.

[7] Wang C, Lin W, Jian Q, et al. Development of a vision navigation system with Fuzzy Control Algorithm for Automated Guided Vehicle[C]// IEEE International Conference on Information & Automation. 2015.

[8] Huang S J, Dai S H, Su J L, et al. Design of a contactless power supply system with dual output capability for AGV applications[C]// Consumer Electronics. 2017.

[9] Li S, Zhang C. Study on Battery Management System and Lithium-ion Battery[C]// International Conference on Computer & Automation Engineering. 2010.

[10] FERNANDEZ, VALENCIANO, MUNOZ. The use of activated carbon and graphite for the development of lead-acid batteries for hybrid vehicle applications[J]. Journal of Power Sources, 2010, 195(14):4458-4469.

[11] Yu Z, Zinger D, Bose A. An innovative optimal power allocation strategy for fuel cell, battery and supercapacitor hybrid electric vehicle[J]. Journal of Power Sources, 2011, 196(4):2351-2359.

[12] Skundin A M, Efimov O N, Yarmolenko O V. The state-of-the-art and prospects for the development of rechargeable lithium batteries[J]. Cheminform, 2010, 33(39):226-226.

[13] Feder D O, Croda T G, Champlin K S, et al. Field and laboratory studies to assess the state of health of valve-regulated lead acid batteries. I Conductance/capacity correlation studies[C]// International Telecommunications Energy Conference. 1992.

[14] Xuan L, Yongli L, Xiaoyong C. Nonlinear Control Algorithm for Super Capacitor Energy Storage System Based on Exact Linearization Theory[J]. Transactions of China Electrotechnical Society, 2016.