This study investigates how ensemble learning techniques can be employed for enhancing peristaltic pump accuracy in pharmaceutical manufacturing, and demonstrates significant accuracy improvements through the novel E-AR implementation, with gains of up to 53.93% at 0.3 ml volume compared to 47% achievable with single models. To establish the foundation for ensemble methods evaluation, we first conduct a comprehensive validation of traditional Adaptive Dosing Control System (ADCS) across an extended volume range (0.1-2.0 ml), demonstrating base performance improvements. In this investigation, we develop a novel offline performance indicator enabling rapid assessment of compensation strategies without extensive physical testing, showing strong correlation with actual measurements. These premises enable a thorough investigation of various ensemble configurations, revealing volume-dependent performance patterns where different models excel under specific conditions, suggesting that practical applications may benefit from volume-specific model selection. The comparison with a very accurate reference mechanical pump, demonstrates that our ADCS solutions achieve comparable or superior performance across most volumes while maintaining the cost-effectiveness. Statistical validation via a multi-dimensional framework confirms the significance of these improvements through multiple complementary tests: paired t-tests showing significant mean differences with p≤0.001, Mann-WhitneyUtests confirming distributional shifts, Levene tests demonstrating variance modifications with statistics up to 801.65, and mixed linear model analysis with F-statistics ranging from 0.004 to 1497.75 confirming global effects.
Privitera, D., Mecocci, A., Bartolini, S. (2025). Ensemble Methods for Peristaltic Pump Accuracy Enhancement. IEEE ACCESS, 13, 125157-125179 [10.1109/access.2025.3589947].
Ensemble Methods for Peristaltic Pump Accuracy Enhancement
Privitera, Davide
;Mecocci, Alessandro;Bartolini, Sandro
2025-01-01
Abstract
This study investigates how ensemble learning techniques can be employed for enhancing peristaltic pump accuracy in pharmaceutical manufacturing, and demonstrates significant accuracy improvements through the novel E-AR implementation, with gains of up to 53.93% at 0.3 ml volume compared to 47% achievable with single models. To establish the foundation for ensemble methods evaluation, we first conduct a comprehensive validation of traditional Adaptive Dosing Control System (ADCS) across an extended volume range (0.1-2.0 ml), demonstrating base performance improvements. In this investigation, we develop a novel offline performance indicator enabling rapid assessment of compensation strategies without extensive physical testing, showing strong correlation with actual measurements. These premises enable a thorough investigation of various ensemble configurations, revealing volume-dependent performance patterns where different models excel under specific conditions, suggesting that practical applications may benefit from volume-specific model selection. The comparison with a very accurate reference mechanical pump, demonstrates that our ADCS solutions achieve comparable or superior performance across most volumes while maintaining the cost-effectiveness. Statistical validation via a multi-dimensional framework confirms the significance of these improvements through multiple complementary tests: paired t-tests showing significant mean differences with p≤0.001, Mann-WhitneyUtests confirming distributional shifts, Levene tests demonstrating variance modifications with statistics up to 801.65, and mixed linear model analysis with F-statistics ranging from 0.004 to 1497.75 confirming global effects.| File | Dimensione | Formato | |
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https://hdl.handle.net/11365/1297555
