A deep learning-based water diversion pipeline working condition prediction method and system

CN122471949BActive Publication Date: 2026-10-27湖南晟通鑫茂环境科技有限公司
-1 Cites 0 Cited by

Patent Information

Application Number
CN202610966486.7
Authority / Receiving Office
CN · China
Patent Type
Patents(China)
Current Assignee / Owner
Filing Date
2026-07-01
Publication Date
2026-10-27
Estimated Expiration
2046-07-01

AI Technical Summary

Technical Problem

[0003]本发明解决的技术问题是:现有方法通常仅依赖单一物理量或未能对多源异构信号进行深度的物理约束耦合,现有技术往往会忽略介质波速差异固有的物理边界约束,容易产生脱离实际物理因果律的强制匹配,导致提取的特征失真,现有的异常预警机制缺乏对深层高维演化规律的捕获能力,现有技术难以精准度量残差在微观时间尺度上的局部形变趋势与动态转移概率,极易在强噪背景下造成漏报,现有的深度学习预测模型多倾向于直接将原始或简单平滑后的时序数据输入黑盒网络,完全依赖模型隐式拟合,缺乏具有强物理逻辑的前置特征解耦与时延干预引导

Benefits of technology

[0014]本发明的有益效果:针对流体与固体因机械波传导速率不同而导致的非线性时域异步错位难题,本发明构建了包含异步相位差与非线性指数惩罚机制的异步惩罚加权矩阵,并将其作为物理边界约束隐式嵌入到加权局部距离矩阵的计算与动态时间规整中;面对难以依靠传统固定幅值阈值识别的早期隐蔽性病态演化,本发明引入散布嵌入维数与时间演化延迟,构建了基于高维马尔可夫链的畸变散布度量机制,不仅统计了各模式的静态分布,更度量了不同波动模式间的动态演化熵,能够将极微弱的定向状态跃迁在多维马尔可夫空间结构中进行非线性放大,本发明在流固同步演化记忆预测网络的构建中,将表征波速错位补偿序列与畸变散布特征的参数前置,并作为强物理逻辑约束级联注入特定的网络门控单元,这种基于动态时间规整与残差畸变散布度量的前置物理引导,迫使网络在反向梯度更新时严格沿着符合流体力学与固体力学耦合演变规律的正确方向收敛。

✦ Generated by Eureka AI based on patent content.

Smart Images

  • Figure CN122471949B_ABST
    Figure CN122471949B_ABST
Patent Text Reader

Abstract

The application discloses a water diversion pipeline working condition prediction method and system based on deep learning, and relates to the technical field of deep learning.The method first acquires fluid pressure and pipe wall strain data in a water hammer impact window of a water diversion pipeline to construct a sequence; extracts a trajectory sequence through phase space noise reduction and topological projection reconstruction; performs a shape extreme value scanning and path backtracking operation to acquire a dynamic time warping alignment feature sequence, and calculates a wave speed misplacement compensation sequence and a fluid-solid regular residual sequence; then, the residual sequence is subjected to a dispersion measurement calculation to extract a distortion dispersion feature; finally, each feature sequence and a compensation parameter are input into a pre-trained fluid-solid synchronous evolution memory prediction network to output a working condition prediction result.The application removes wave speed time lag interference through physical constraint regularization, amplifies weak pathological evolution in combination with multi-dimensional dispersion measurement, overcomes the defect that a pure data-driven model is prone to fitting noise, and significantly improves the precision and robustness of pipeline hidden disease identification in a strong noise background.
Need to check novelty before this filing date? Find Prior Art