Development model of small orifice flow using simple linear and multilinear regression

Abstract. The concept of "small orifice flow" describes the movement of a fluid through a tiny hole or orifice. This is a typical occurrence in engineering and fluid mechanics. In machine learning, linear regression is a fundamental and extensively used technique for modelling the connection. In this research, an analysis of the influence of the variables H1, H2 and Q was carried out on the output value of the discharge coefficient (Cd). Model evaluation is done by calculating calibration parameters like the coefficient of determination. R square (R2), also known as the coefficient of determination, describes the extent to which dependent data can be described by independent data. There are a total of 47 datasets that will be included in the development of linear and multilinear models. In this study, 90% (42) of the training data and 10% (5) of the total test data were used. Based on simple linear model, Q parameter having a stronger linear relationship with the Cd parameter compared to the H1 and H2 parameters with a strong multiple R value of 0,754 and moderate R2 correlation value of 0.569. There is a significant influence between the variables Q and Cd based on significant F value. The multilinear regression method was chosen because of its statistical data handling capabilities and ease of creation, implementation, and operation. the multilinear regression model with H1, H2 and Q values as independent variables can explain the Cd value as the dependent variable very well with the higher value of multiple R and R2, and small error value.

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Publication Details

Journal
Materials research proceedings
Published
2025-02-12
DOI
https://doi.org/10.21741/9781644903414-81
Primary Topic
Flow Measurement and Analysis
Type
article
Field-Weighted Citation Impact
0.00

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article

Development model of small orifice flow using simple linear and multilinear regression

Dayat Hidayat
Materials research proceedings
Flow Measurement and Analysis
article

Development model of small orifice flow using simple linear and multilinear regression

Dayat Hidayat
article en

Abstract

Abstract. The concept of "small orifice flow" describes the movement of a fluid through a tiny hole or orifice. This is a typical occurrence in engineering and fluid mechanics. In machine learning, linear regression is a fundamental and extensively used technique for modelling the connection. In this research, an analysis of the influence of the variables H1, H2 and Q was carried out on the output value of the discharge coefficient (Cd). Model evaluation is done by calculating calibration parameters like the coefficient of determination. R square (R2), also known as the coefficient of determination, describes the extent to which dependent data can be described by independent data. There are a total of 47 datasets that will be included in the development of linear and multilinear models. In this study, 90% (42) of the training data and 10% (5) of the total test data were used. Based on simple linear model, Q parameter having a stronger linear relationship with the Cd parameter compared to the H1 and H2 parameters with a strong multiple R value of 0,754 and moderate R2 correlation value of 0.569. There is a significant influence between the variables Q and Cd based on significant F value. The multilinear regression method was chosen because of its statistical data handling capabilities and ease of creation, implementation, and operation. the multilinear regression model with H1, H2 and Q values as independent variables can explain the Cd value as the dependent variable very well with the higher value of multiple R and R2, and small error value.

Materials research proceedingsVol. 48
Universitas Trisakti (ID)
Division of Materials Research
Openalex Percentile: Top 97%
Flow Measurement and Analysis
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