一种面向节能降耗的人工湿地智能调度控制方法

By real-time monitoring and optimization of the hydraulic parameters and dissolved oxygen requirements of wetland units, and by identifying and avoiding high-impedance units, intelligent load balancing and energy consumption reduction of the wetland system are achieved. This solves the energy waste problem caused by blockage and loss in existing technologies and improves system efficiency and lifespan.

CN121704580BActive Publication Date: 2026-07-17ENVIRONMENTAL TECH & ENG CO LTD CRAES

Patent Information

Authority / Receiving Office
CN · China
Patent Type
Patents(China)
Current Assignee / Owner
ENVIRONMENTAL TECH & ENG CO LTD CRAES
Filing Date
2025-12-03
Publication Date
2026-07-17

AI Technical Summary

Technical Problem

In existing constructed wetland scheduling technologies, control systems based on static logic or simple feedback mechanisms cannot effectively identify and avoid energy waste and deterioration of faulty units caused by physical blockages or losses, resulting in increased energy waste and burden on normal units.

Method used

By collecting hydraulic parameters of wetland units in real time, identifying and shutting down high-impedance units, allocating water flow to unobstructed units according to their health status, optimizing aeration time based on dissolved oxygen demand, generating multi-device collaborative scheduling sequence instructions, and matching the energy efficiency characteristics of the central blower, flow path optimization and energy consumption reduction are achieved.

Benefits of technology

It achieves intelligent load balancing of wetland systems, avoids energy waste, extends the effective operating life of the system, and reduces power loss by matching air supply and oxygen demand, forming a smooth air volume demand curve and improving system efficiency.

✦ Generated by Eureka AI based on patent content.

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Abstract

本发明涉及多设备控制技术领域,具体为一种面向节能降耗的人工湿地智能调度控制方法,包括以下步骤:采集湿地单元进水流量监测值、进水端液位监测值及出水端液位监测值,获取进水端液位监测值与出水端液位监测值的差值,计算生成基质阻塞阻抗系数值,对所述基质阻塞阻抗系数值进行映射。本发明依据工作单元内真实的溶解氧需求来确定曝气时长,实现了供气与需氧的匹配,杜绝了盲目曝气造成的电能损耗,最终将各支路离散的供气需求在时间轴上进行序列化错峰排布,形成一个平滑且可预测的总风量需求曲线,并将此曲线与中央鼓风机的能效特性进行匹配,使得鼓风机始终运行在最高效的工作区间,实现了协同节能与降耗。
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