摘要
为了实现对电子式电流互感器子终端的优化设计,提出基于集成DSP信息处理控制的电子式电流互感器子终端设计方法。在集成环境下进行电子式电流互感器子终端的控制系统设计,通过嵌入式的DSP控制技术,建立系统的人机交互模型,通过时钟电路设计,建立电子式电流互感器的时钟转换电路和集成控制模块电路,通过AD芯片控制电子式电流互感器子终端的时钟传感器。运用输出振荡控制,进行电子式电流互感器子终端的嵌入式控制和多功能模块分析,运用区间耦合支路解耦控制的方法,进行电子式电流互感器子终端的控制算法设计,从而实现对电子式电流互感器子终端的优化设计。系统测试结果表明,设计的电子式电流互感器子终端输出稳定性较好,人机交互能力较强,提高了电子式电流互感器子终端的输出稳定性和自适应性。
To optimize the design of electronic current transformer sub-terminal,the design method of electronic current transformer sub-terminal based on integrated DSP information processing control is proposed.The control system design of the electronic current transformer sub-terminal is carried out in an integrated environment,the human-computer interaction model of the system is established through the embedded DSP control technology,and the clock circuit design of the electronic current transformer is established to establish the clock conversion circuit and the integrated control module circuit controls the clock sensor of the electronic current transformer sub-terminal through the AD chip.Output oscillation control is used to carry out embedded control and multi-functional module analysis of electronic current transformer sub-terminals,and interval coupling branch decoupling control method is used to design the control algorithm of electronic current transformer sub-terminals.Optimized design of electronic current transformer sub-terminal is achieved.The system test results show that the designed electronic current transformer sub-terminal has good output stability and strong human-computer interaction ability,which improves the output stability and adaptability of electronic current transformer sub-terminal.
作者
王红敏
王燕
WANG Hongmin;WANG Yan(Industrial training center,Xi'an technological University,Xi'an 710021,China)
出处
《自动化与仪器仪表》
2020年第12期75-78,84,共5页
Automation & Instrumentation
基金
陕西省高等教育科学研究项目:新工科理念下电类专业创新实践教学体系改革(No.XGH19134)
西安工业大学教学改革研究项目:课程思政元素融入工程训练的探索与研究(No.19JGY44)。
关键词
自动兼容
电子式
电流
互感器
子终端
集成DSP
automatic compatibility
electronic type
current
transformer
sub-terminal
integrated DSP