利用机器学习方法确定不同来源的纤维素生物质样品的热容

M. Karimi, B. Vaferi
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引用次数: 0

摘要

热容是纤维素生物质样品中最著名的热性能之一。本研究组装了一个通用的机器学习模型来估计不同来源的纤维素生物质样品的热容量。通过对7个不同类别的819个人工智能模型的不确定性和排序分析,证实了高斯核函数最小二乘支持向量回归(LSSVR)是最佳估计器。该模型使用4种纤维素生物质样品的700个实验室热容在宽温度范围内进行验证(AARD=0.32%, MSE=1.88×10-3, R2=0.999991)。数据有效性调查证实,700个实验数据中只有一个是异常值。LSSVR模型考虑了纤维素样品的结晶度、温度、硫和灰分含量对其热容的影响。LSSVR利用经验相关性提高了62%以上的精度。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Employing Machine Learning Approaches to Determine the Heat Capacity of Cellulosic Biomass Samples with Different Origins
Heat capacity is among the most well-known thermal properties of cellulosic biomass samples. This study assembles a general machine learning model to estimate the heat capacity of the cellulosic biomass samples with different origins. Combining the uncertainty and ranking analyses over 819 artificial intelligence (AI) models from seven different categories confirmed that the least-squares support vector regression (LSSVR) with the Gaussian kernel function is the best estimator. This model is validated using 700 laboratory heat capacities of four cellulosic biomass samples in wide temperature ranges (AARD=0.32%, MSE=1.88×10-3, and R2=0.999991). The data validity investigation approved that only one out of 700 experimental data is an outlier. The LSSVR model considers the effect of crystallinity, temperature, and sulfur and ash content of the cellulosic samples on their heat capacity. The LSSVR improves the achieved accuracy using the empirical correlation by more than 62%.
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