一种基于动态本体演化与异构推理网络的模型训练方法及系统

By employing a model training method based on dynamic ontology evolution and heterogeneous reasoning networks, the problems of static knowledge and unexplainable decisions on edge devices are solved, enabling high-precision fault diagnosis and interpretable reasoning processes, thus adapting to dynamic industrial scenarios.

CN122114196BActive Publication Date: 2026-07-17XIAMEN MEIYA YIAN INFORMATION TECH CO LTD

Patent Information

Authority / Receiving Office
CN · China
Patent Type
Patents(China)
Current Assignee / Owner
XIAMEN MEIYA YIAN INFORMATION TECH CO LTD
Filing Date
2026-04-29
Publication Date
2026-07-17

AI Technical Summary

Technical Problem

Existing knowledge augmentation models cannot adapt to dynamic industrial scenarios when deployed on edge devices, resulting in rapid decay of model effectiveness, low resource utilization, and uninterpretable neural network decision-making processes, making it difficult to integrate into industrial processes.

Method used

We employ a model training method based on dynamic ontology evolution and heterogeneous reasoning networks to construct a heterogeneous reasoning network that includes a symbolic reasoning module, a neural representation module, and an attention gating module. Through adversarial ontology compression and performance feedback iterative optimization, we achieve the co-evolution of the model and the knowledge base.

Benefits of technology

Achieving high-precision fault diagnosis on edge devices provides a clear logical chain of evidence, improves the adaptability and resource utilization of the model, and ensures the interpretability of the decision-making process.

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Abstract

本发明属于人工智能与工业应用智能化技术领域,公开了一种基于动态本体演化与异构推理网络的模型训练方法及系统。该模型训练方法包括:构建初始领域本体;构建包含符号推理模块、神经表示模块及注意力门控模块的异构推理网络;在所述网络的训练过程中,执行模型推理、基于性能反馈对领域本体进行动态演化与任务感知压缩、并执行更新知识的闭环,实现模型与知识的协同进化;最后通过领域感知的对比学习与任务微调得到最终推理模型。本发明解决了现有知识增强模型在边缘设备部署时知识静态化、压缩与任务脱节、模型不可解释的技术瓶颈,构建了在资源受限环境下具备高精度、自适应与可解释性的工业级推理系统。
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