基于改进BSO-模糊PID的矿用通风机风量智能调控OA
Intelligent air volume control of mine ventilators based on improved BSO-fuzzy PID
针对矿用通风机模糊PID核心调节参数依靠人工经验确定、无法自主更新、难以匹配矿井复杂多变的通风工况等问题,提出了一种基于改进天牛群优化(BSO)-模糊PID的矿用通风机风量智能调控方法.为克服BSO算法全局搜索与局部收敛失衡、易陷入局部最优的不足,在惯性权重、学习因子和搜索步长方面对BSO算法参数的更新机制进行自适应改进;利用改进BSO算法对模糊PID的量化因子和比例因子5个参数进行寻优,将最优参数赋值给模糊PID控制器,并根据风量反馈信号实时修正模糊PID控制参数,实现矿用通风机风量智能调控.仿真结果表明:设定风量下改进BSO-模糊PID控制器的上升时间较模糊PID控制器缩短16.2%,超调量降低92.70%,调节时间缩短62.45%;面对大时滞、脉冲扰动时,与PID控制器和模糊PID控制器相比,改进BSO-模糊PID控制器的振荡幅度更小、稳态恢复速度更快,鲁棒性与抗干扰能力强;在风量改变和参数摄动工况下,改进BSO-模糊PID控制器的上升时间、超调量和调节时间均最小.实验结果表明,改进BSO-模糊PID控制下的通风机风量跟踪响应曲线无明显超调、无持续剧烈振荡,可在较短时间内跟踪并稳定在设定值附近.
For fuzzy PID control of mine ventilators,the core tuning parameters are determined empirically,cannot be updated autonomously,and are difficult to adapt to complex and variable mine ventilation conditions.To address these problems,an intelligent air volume control method for mine ventilators based on improved Beetle Swarm Optimization(BSO)-fuzzy PID control was proposed.To overcome the imbalance between global search and local convergence of BSO and its tendency to become trapped in local optima,the parameter update mechanism of BSO was adaptively improved in terms of inertia weight,learning factors,and search step size.The improved BSO was used to optimize five parameters comprising the quantization factors and scaling factors of fuzzy PID control.The optimal parameters were assigned to the fuzzy PID controller,and the fuzzy PID control parameters were corrected in real time according to the air volume feedback signal,thereby achieving intelligent air volume control of the mine ventilator.Simulation results showed that,at the set air volume,the rise time of the improved BSO-fuzzy PID controller was 16.2%shorter than that of the fuzzy PID controller,the overshoot was reduced by 92.70%,and the settling time was shortened by 62.45%.Under large time-delay and pulse-disturbance conditions,compared with the PID and fuzzy PID controllers,the improved BSO-fuzzy PID controller exhibited a smaller oscillation amplitude,faster steady-state recovery,and stronger robustness and disturbance rejection.Under air volume variation and parameter perturbation conditions,the improved BSO-fuzzy PID controller had the shortest rise time and settling time and the smallest overshoot.Experimental results showed that the air volume tracking response curve of the ventilator under improved BSO-fuzzy PID control exhibited no obvious overshoot or persistent severe oscillations,and that the air volume could track the set value and stabilize near it within a short time.
李刚;刘勇;徐光;王凯;卢锋;王志静
同煤浙能麻家梁煤业有限责任公司,山西朔州 036010兖矿能源(鄂尔多斯)有限公司,内蒙古鄂尔多斯 017010兖矿能源集团股份有限公司山东煤炭科技研究院分公司,山东济南 250014中国矿业大学深地工程智能建造与健康运维全国重点实验室,江苏徐州 221116||江苏省概念验证中心(中国矿业大学),江苏徐州 221116中国矿业大学深地工程智能建造与健康运维全国重点实验室,江苏徐州 221116||江苏省概念验证中心(中国矿业大学),江苏徐州 221116中国矿业大学深地工程智能建造与健康运维全国重点实验室,江苏徐州 221116||江苏省概念验证中心(中国矿业大学),江苏徐州 221116
矿业与冶金
通风机风量调控模糊PID控制天牛群优化算法参数寻优
ventilatorair volume controlfuzzy PID controlBeetle Swarm Optimizationparameter optimization
《工矿自动化》 2026 (7)
85-92,8
国家自然科学基金资助项目(52374242).
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