Prediction modelling of pallet overhang on box compression strength

Accurate prediction of box compression strength (BCT) loss resulting from pallet overhang is critical for maintaining the integrity of corrugated packaging in global logistics. This study presents an expanded empirical analysis and predictive modelling framework to quantify the impact of pallet overhang on BCT. An integrated dataset that combined data from previous research with newly conducted experiments was developed to capture a broad range of box configurations, board types, and overhang conditions. Corrugated boxes fabricated from three board grades were tested under standardized conditions following TAPPI T 804. A space-filling design systematically varied box dimensions and overhang magnitudes along the width, length, or both sides. The combined training dataset included 2,723 compression tests. An additional 600 compression tests from thirty commercial box designs formed an independent validation set used to evaluate model performance. A new multiple linear regression model was developed, yielding an R² of 0.867 on training data, and 0.707 on validation data, with normally distributed residuals. Box height and edge crush test (ECT) values exhibited minimal influence within the studied ranges, while overhang magnitude, box perimeter and board type were the significant predictors of strength reduction. To further enhance predictive accuracy and capture nonlinear effects, different machine learning (ML) algorithms were evaluated. Among models trained without cross validation, the neural boosted achieved the best performance (Training NRMSE as 0.073 and Validation NRMSE as 0.088), outperforming the new multiple linear regression baseline (Validation NRMSE as 0.103). Under cross validation, the neural boosted model again yielded the lowest error (CV NRMSE = 0.087) and demonstrated good generalization on the held-out test set (Test NRMSE = 0.149). These validated ML models provide packaging professionals with data driven tools to predict BCT loss due to pallet overhang, enabling sustainable, reliable and optimized packaging system design.

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Publication Details

Journal
VTechWorks (Virginia Tech)
Published
2025-12-02
Primary Topic
Material Properties and Processing
Type
article
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article

Prediction modelling of pallet overhang on box compression strength

Hiral Rajendrakumar Makwana
VTechWorks (Virginia Tech)
Material Properties and Processing
article

Prediction modelling of pallet overhang on box compression strength

Hiral Rajendrakumar Makwana
article en

Abstract

Accurate prediction of box compression strength (BCT) loss resulting from pallet overhang is critical for maintaining the integrity of corrugated packaging in global logistics. This study presents an expanded empirical analysis and predictive modelling framework to quantify the impact of pallet overhang on BCT. An integrated dataset that combined data from previous research with newly conducted experiments was developed to capture a broad range of box configurations, board types, and overhang conditions. Corrugated boxes fabricated from three board grades were tested under standardized conditions following TAPPI T 804. A space-filling design systematically varied box dimensions and overhang magnitudes along the width, length, or both sides. The combined training dataset included 2,723 compression tests. An additional 600 compression tests from thirty commercial box designs formed an independent validation set used to evaluate model performance. A new multiple linear regression model was developed, yielding an R² of 0.867 on training data, and 0.707 on validation data, with normally distributed residuals. Box height and edge crush test (ECT) values exhibited minimal influence within the studied ranges, while overhang magnitude, box perimeter and board type were the significant predictors of strength reduction. To further enhance predictive accuracy and capture nonlinear effects, different machine learning (ML) algorithms were evaluated. Among models trained without cross validation, the neural boosted achieved the best performance (Training NRMSE as 0.073 and Validation NRMSE as 0.088), outperforming the new multiple linear regression baseline (Validation NRMSE as 0.103). Under cross validation, the neural boosted model again yielded the lowest error (CV NRMSE = 0.087) and demonstrated good generalization on the held-out test set (Test NRMSE = 0.149). These validated ML models provide packaging professionals with data driven tools to predict BCT loss due to pallet overhang, enabling sustainable, reliable and optimized packaging system design.

VTechWorks (Virginia Tech)
Industry, innovation and infrastructure
Openalex Percentile: Top 38%
Material Properties and Processing
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