A solid waste-based building material proportioning design method and device based on multi-objective deep learning
By employing a multi-objective deep learning approach, combined with multi-modal data and multi-objective optimization algorithms, the problems of low efficiency, insufficient accuracy, and multi-objective optimization in the design of multi-source solid waste raw material proportions were solved. This resulted in efficient and accurate building material proportion design, improving the R&D efficiency and performance of solid waste-based building materials.
Patent Information
- Authority / Receiving Office
- CN · China
- Patent Type
- Applications(China)
- Current Assignee / Owner
- HENAN BUILDING MATERIALS RES & DESIGN LNSTITUTE CO LTD
- Filing Date
- 2026-04-09
- Publication Date
- 2026-07-21
AI Technical Summary
Existing technologies for processing multi-source solid waste materials suffer from low efficiency in proportioning design, high cost, insufficient prediction accuracy, and difficulty in multi-objective collaborative optimization, failing to meet the building materials industry's demand for high efficiency, high performance, and green utilization.
This paper employs a multi-objective deep learning-based approach. By establishing a multi-modal characteristic database of multi-source solid waste, a hierarchical deep learning prediction model combined with a multi-objective optimization algorithm is used to achieve high-precision multi-objective performance prediction and global proportion optimization. The method integrates macroscopic physicochemical data, microscopic morphological image data, and mineral phase composition spectral data. It utilizes a hierarchical graph attention fusion network (HGAF-Net) and a constrained adaptive genetic algorithm (CA-NSGA-II) for in-depth mining of complex nonlinear relationships and multi-objective optimization.
It has shortened the traditional method of proportion design, which takes months, to a few hours through automated calculation, improved prediction accuracy and multi-objective optimization capabilities, and provided a series of proportion schemes that achieve optimal balance in multiple dimensions such as performance, cost, and environmental protection, thereby improving the R&D cycle and resource utilization rate of solid waste-based building materials.
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