Mathematical Modeling Ability of Chemical Engineering Vocational Students based on Improved Deep Residual Network

Mathematics is a fundamental subject in higher vocational education, and mathematical modeling is the specific kind of professional learning that integrates real-world practice. However, the quality of mathematical modeling learning affects the whole vocational professional research efficacy. Hence, this research Improved Deep Residual Network (IDResNet), is proposed to analyze the learning behavior of chemical engineering vocational students in mathematical modeling. The Hawkes approach is initially used to collect behavioral data from students before beginning vocational education instruction. Next Learning impact prediction is a tool used in vocational education instruction to characterize students' learning practices. Statistical modeling is used in higher vocational education to inform decisions based on the number of interested students. Mathematical models are then used to effectively forecast the learning consequences of students receiving vocational education. According to the results, it illustrates that the suggested IDResNet methodology have achieved better performance in accuracy of 99.85% and precision of 99.55% which is comparatively higher than existing models such as Deep Learning Model for Teaching Quality Analysis (DL-TQA), BP Neural Network (BP-NN) and Ideological Political Education Platform IPEP methodology.

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Publication Details

Published
2024-09-20
DOI
https://doi.org/10.1109/icdscnc62492.2024.10939899
Primary Topic
Educational Technology and Assessment
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article
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article

Mathematical Modeling Ability of Chemical Engineering Vocational Students based on Improved Deep Residual Network

Y.M. Rong
Educational Technology and Assessment
article

Mathematical Modeling Ability of Chemical Engineering Vocational Students based on Improved Deep Residual Network

Y.M. Rong
article en

Abstract

Mathematics is a fundamental subject in higher vocational education, and mathematical modeling is the specific kind of professional learning that integrates real-world practice. However, the quality of mathematical modeling learning affects the whole vocational professional research efficacy. Hence, this research Improved Deep Residual Network (IDResNet), is proposed to analyze the learning behavior of chemical engineering vocational students in mathematical modeling. The Hawkes approach is initially used to collect behavioral data from students before beginning vocational education instruction. Next Learning impact prediction is a tool used in vocational education instruction to characterize students' learning practices. Statistical modeling is used in higher vocational education to inform decisions based on the number of interested students. Mathematical models are then used to effectively forecast the learning consequences of students receiving vocational education. According to the results, it illustrates that the suggested IDResNet methodology have achieved better performance in accuracy of 99.85% and precision of 99.55% which is comparatively higher than existing models such as Deep Learning Model for Teaching Quality Analysis (DL-TQA), BP Neural Network (BP-NN) and Ideological Political Education Platform IPEP methodology.

Openalex Percentile: Top 54%
Educational Technology and Assessment
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Mathematical Modeling Ability of Chemical Engineering Vocational Students based on Improved Deep Residual Network — Y.M. Rong · (2024) | TGRS Research Map | TGRS