大小模型协同的油气田开发智能体架构设计与展望
张凯 , 张保滨 , 李小波 , 张黎明 , 焦博韬 , 段非 , 谭昆 , 罗雅心 , 蒋欣灿 , 严侠 , 刘丕养 , 杨永飞 , 孙海 , 姚军
中国石油大学学报(自然科学版) ›› 2026, Vol. 50 ›› Issue (4) : 210 -223.
大小模型协同的油气田开发智能体架构设计与展望
Architecture design and outlook of intelligent agents for oil and gas field development based on large-small model collaboration
油气田开发智能化面临多源异构数据处理、领域知识融合、复杂任务推理与流程自动化等需求,大小模型协同为油气智能体的工程化构建提供重要支撑。系统梳理大模型技术演进脉络、工业大模型核心能力及其在油气行业的应用进展,分析油气开发场景的关键能力需求,提出面向油气任务闭环的工程化技术路径。围绕自动历史拟合、油藏生产优化、井筒举升调控、视频监控与集输调控等典型任务,归纳油气智能体在任务组织、工具链协同与模块化实现方面的主要路径,形成适用于多任务场景的架构方案与协同机制。结合X油田O1-B2区块自动历史拟合与油藏生产优化案例,说明相关闭环组织流程及工程应用模式。最后,从多模态理解、高可信解释机制、任务迁移泛化能力与知识演化闭环等方面展望未来研究方向,为油气智能系统的持续演进提供理论支持与工程参考。
Intelligent oil and gas field development is facing increasing demands for multi-source heterogeneous data processing, domain knowledge fusion, complex task reasoning and workflow automation. Large-small model collaboration can provide important supports for the engineering construction of oil and gas intelligent agents. In this paper, the technological evolution and main capabilities of industrial large models and their application progress in the oil and gas industry were systematically reviewed, and the key capability requirements of oil and gas development scenarios were analyzed. An engineering technical path oriented to the closed loop of oil and gas tasks was proposed. Focusing on typical tasks, such as automatic history matching, reservoir production optimization, wellbore artificial lift control, video monitoring and gathering and transportation regulations, the main paths of oil and gas intelligent agents in task organization, toolchain collaboration and modular implementation were summarized, and an architecture scheme and collaboration mechanism applicable to multi-task scenarios were formed. Combined with a case study of automatic history matching and reservoir production optimization in block O1-B2 of X Oilfield, the related closed-loop organization process and engineering application mode were illustrated. Finally, future research directions were discussed from the perspectives of multimodal understanding, highly trustworthy interpretation mechanisms, task transfer and generalization capability and closed-loop knowledge evolution, providing theoretical support and engineering reference for the continuous evolution of oil and gas intelligent systems.
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国家自然科学基金项目(52325402)
国家自然科学基金项目(52441411)
国家自然科学基金项目(52274057)
地球深部探测与矿产资源勘查国家科技重大专项(2024ZD1004302-04)
国家重点研发计划(2023YFB4104200)
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