离散化
燃烧
领域(数学)
计算机科学
迭代重建
人工智能
算法
生物系统
数学
化学
有机化学
纯数学
生物
数学分析
作者
Xiaodong Huang,Xiaojian Hao,Baowu Pan,Shaogang Chen,Shenxiang Feng,Pan Pei
出处
期刊:IEEE Photonics Journal
[Institute of Electrical and Electronics Engineers]
日期:2024-03-01
卷期号:16 (2): 1-10
被引量:2
标识
DOI:10.1109/jphot.2024.3366425
摘要
Considering the importance of combustion diagnosis in industrial manufacturing and many fields, efficient, quick, and real-time multidimensional reconstruction is necessary and indispensable. Hence, focusing on the combustion field dynamic and multi-dimensional reconstruction, a modified U-ConvLSTM model was proposed to combine with the TDLAS method to resolve the real-time reconstruction and short prediction. By dividing the combustion field into space and time slices, we used discretized spatiotemporal slices to complete the 2-D distribution reconstruction and then expanded them into higher dimensions. The simulation results demonstrate that our design can effectively reconstruct different 2-D distributions, achieving a reconstruction error of less than 5%. Three-step predictions also performed well, a PSNR no less than 30 dB, and an SSIM no less than 0.75. In general, our multidimensional combustion field reconstruction method, based on the spatiotemporal discretization U-ConvLSTM model, can enhance the accuracy of combustion field reconstruction and provide short-term predictions. This work will contribute to closed-loop control in industrial fields.
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