油气管网智能调控路径规划与落地实践

Path planning and implementation practice for intelligent regulation of oil and gas pipeline networks

  • 摘要:
    目的 随着能源需求持续增长与油气管网规模扩张,传统管网调控方法在安全性、灵活性及经济性方面难以满足现代油气运输系统的高阶要求。油气管网调控智能化成为重要发展方向,其融合了自动控制、人工智能及大数据等技术,但在全面实现过程中仍面临数据质量、算法可靠性、硬件兼容性等多维挑战。
    方法 对油气管网调控智能化的发展现状开展调研,从标准体系、控制能力、数据基础、调控模式、功能协同5个关键维度,梳理了制约其发展的核心问题。为解决上述问题,借鉴电网领域智能化发展的成熟经验,构建了包含 4 个递进式核心能力提升阶段(调控自动化提升、态势感知智能化、调控决策智能化、调控自主智能化)与 2 个贯穿性支撑阶段(智能调控标准与规范建设、智能化平台与系统建设)的6阶段发展路径。其中,核心能力提升阶段聚焦逐级提升调控效能,贯穿性支撑阶段保障全流程协同推进。路径规划全面覆盖调控感知、分析、决策、执行全环节,最终实现从基础自控能力向自主智能化的递进式升级。
    结果 该路径规划通过循序渐进的技术升级可有效破解智能化难题:形成企业标准《油气管道调控智能化分级》征求意见稿,为行业指明具体的发展目标与路径;同步开发的智能调控决策辅助工具在中俄东线试点应用中降低了人工依赖度,实现明水站压缩机组运行效率提升0.3%,2024年全线节能1.6%。
    结论 结合行业发展趋势与当前技术条件,构建了系统完备的油气管网调控智能化全景规划与分阶段路径,其落地实践验证了路径的可行性与有效性。该规划有助于引导企业分阶段推进智能化建设,对提升管网调控智能化水平、增强系统运行安全性与经济性具有重要实践参考价值。

     

    Abstract:
    Objective As energy demand grows and oil and gas pipeline networks expand, traditional regulation methods struggle to meet the requirements of modern oil and gas transportation systems in terms of safety, flexibility, and economic efficiency. Intelligent regulation, integrating automatic control, artificial intelligence, and big data, has become a key development direction. However, its full implementation faces multidimensional challenges, including data quality, algorithm reliability, and hardware compatibility.
    Methods A survey was conducted on the current state of intelligent regulation in oil and gas pipeline networks. Core challenges were identified across five key dimensions: standard systems, control capabilities, data infrastructure, regulation modes, and functional collaboration. Drawing on best practices from the power grid sector, a six-stage development path was proposed, comprising four progressive core capability stages (automation enhancement, intelligent situation awareness, intelligent decision-making, and autonomous regulation) and two cross-cutting support stages (standards and specifications development, and intelligent platform construction). The core capability stages focus on enhancing regulation efficiency, while the support stages ensure coordinated advancement of the entire process. This path comprehensively addresses perception, analysis, decision-making, and execution, enabling a stepwise upgrade from basic automation to autonomous intelligence.
    Results The development path effectively addresses intelligent regulation challenges through staged technological upgrades. An enterprise standard draft for comments, Intelligence Grading of Oil and Gas Pipeline Regulation, was prepared, outlining clear industry goals and development path. The decision-making auxiliary tools piloted on the China-Russia East Pipeline reduced manual intervention, improving compressor unit efficiency at Mingshui Station by 0.3% and achieving 1.6% energy savings across the entire pipeline in 2024.
    Conclusion This study proposes a comprehensive, phased plan for intelligent regulation of oil and gas pipeline networks based on industry trends and current technology. The practical implementation of the plan confirms its feasibility and effectiveness. This plan can guide enterprises in staged intelligent upgrades and provide valuable practical reference for improving the intelligent level of pipeline network regulation and enhancing the safety and economic efficiency of system operation.

     

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