成品油批次计划专业模型智能化关键技术与应用路径

Key technologies and application pathways for intelligent professional models in refined oil batch planning

  • 摘要:
    目的 成品油批次计划编制的智能化水平直接影响管网运行的经济性与安全性。传统方法在数据处理、模型调用及人机交互环节高度依赖人工,存在效率低下、适应性差、容易出错等问题,难以满足智慧管网实时、精准、闭环的决策需求。
    方法 提出一套面向成品油批次计划专业模型智能化的关键技术体系,构建“数据层—模型层—应用层”三级架构。数据层聚焦多源异构数据的智能治理,通过语义解析、数据清洗及标准化映射,为模型提供高质量输入;模型层实现模型的智能调用与求解,包括输入数据合理性校验、模型自动匹配与高效求解,并生成可视化批次运移图与调度令;应用层强化人机智能协同,通过智能调度令自动生成、自然语言问答系统及语义指令驱动的计划动态微调技术,实现从结果生成到指令执行的闭环。
    结果 该技术体系系统性重构了传统碎片化、经验驱动的编制流程,实现了计划编制全过程的标准化、自动化及智能化。数据准备与模型求解效率提升了一个数量级,人工干预环节大幅减少,计划编制周期由“小时级”缩短至“分钟级”,调度指令可秒级自动生成并下发;内置的约束冲突检测机制有效规避了人为调整引发的运行风险,计划可执行性与安全性显著增强。
    结论 在中国西部某成品油管道进行了批次计划智能微调的初步应用探索,结果验证了其核心价值,奠定了成品油批次计划由“自动编制”向“智能编制”转变的技术基础。数据层打通了多源异构数据壁垒,保障了模型输入的高质量与一致性;模型层赋予系统自主决策与纠错能力,确保方案在复杂工况下的鲁棒性与最优性;应用层通过自然语言交互与动态闭环,完美融合了AI的计算效率与调度员的经验智慧,形成了“认知—决策—执行—反馈”的完整智能闭环。

     

    Abstract:
    Objective The intelligence level of refined oil batch planning directly impacts the economic efficiency and safety of pipeline network operations. Traditional methods rely heavily on manual data processing, model invocation, and human–machine interaction, resulting in low efficiency, poor adaptability, and a high risk of errors. These limitations hinder real-time, accurate, and closed-loop decision-making required by smart pipeline networks.
    Methods A comprehensive technology system for intelligent professional models in refined oil batch planning was proposed, structured around a three-tier architecture: data layer, model layer, and application layer. The data layer emphasized intelligent management of multi-source heterogeneous data, ensuring high-quality model inputs through semantic parsing, data cleaning, and standardized mapping. The model layer enabled intelligent model invocation and solution, including input data validation, automatic model matching, efficient computation, and visualization of batch migration and dispatching instructions. The application layer enhanced intelligent human–machine collaboration through automated dispatching instruction generation, natural language Q&A, and dynamic fine-tuning of the plan driven by semantic instructions, achieving a closed-loop from result generation to instruction execution.
    Results This technology system systematically restructured the traditional fragmented, experience-driven planning process, achieving standardization, automation, and intelligence throughout. Data preparation and model solution efficiency increased by an order of magnitude, with significant reductions in manual intervention. The planning cycle was shortened from hours to minutes, and dispatching instructions could be generated and issued within seconds. The integrated constraint conflict detection mechanism effectively mitigated operational risks from manual adjustments, significantly enhancing the executability and safety of plans.
    Conclusion A preliminary application of intelligent fine-tuning for batch planning was conducted on a refined oil pipeline in western China, validating the system’s core value and establishing a technical foundation for transitioning from “automatic” to “intelligent” batch planning. The data layer overcomes barriers of multi-source heterogeneous data, ensuring high-quality, consistent model inputs. The model layer provides autonomous decision-making and error correction, ensuring robust and optimal solutions under complex conditions. The application layer seamlessly integrates AI computing efficiency with dispatcher expertise through natural language interaction and dynamic closed-loop processes, forming a complete intelligent cycle of “cognition, decision, execution, and feedback”.

     

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