An MSWI process controlled object modeling system and method based on LLM hybrid driving
By using an MSWI process controlled object modeling system based on LLM hybrid drive, the problems of strong coupling nonlinearity and drastic fluctuations in operating conditions of MSWI processes are solved, achieving efficient, low-carbon and precise control of MSWI processes. This improves the model's ability to capture local nonlinear dynamics and generalize across operating conditions, meeting the requirements of industrial-grade real-time control and compliance supervision.
Patent Information
- Authority / Receiving Office
- CN Β· China
- Patent Type
- Applications(China)
- Current Assignee / Owner
- BEIJING UNIV OF TECH
- Filing Date
- 2026-03-05
- Publication Date
- 2026-06-09
AI Technical Summary
Existing technologies are ill-suited to the strongly coupled nonlinear characteristics, drastic fluctuations in operating conditions, and multi-objective conflicts of MSWI processes. General-purpose large language models lack deep embedding of vertical domain mechanisms, have insufficient generalization ability for extreme operating conditions, and their inference latency and uninterpretability make it difficult to meet the needs of industrial-grade real-time control and compliance supervision.
A process controlled object modeling system based on LLM hybrid drive is adopted. The system performs deep semantic fusion by driving the MSWI full-process model module through LLM, and combines it with the solid waste combustion and waste heat exchange model module driven by historical data to build a multi-source information fusion strategy. This enables dynamic coordination of combustion, waste heat and purification processes, breaks down information barriers, and constructs a hybrid architecture of 'LLM global drive + data local modeling'. It also innovatively designs a dual fusion mechanism for controlled variables and environmental indicators.
It achieves efficient, low-carbon, and precise control of MSWI processes, enhances the model's ability to capture local nonlinear dynamics and generalize across operating conditions, breaks through the limitations of traditional single-objective models, provides a new paradigm for intelligent modeling, and supports efficient, low-carbon, and precise control in the MSWI industry.
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Figure CN122174647A_ABST