Performance of energy harvesters with parameter mismatch

This study explores the impact of parameter mismatch on the stability of cross-well motion in energy harvesters, using a basin stability metric. Energy harvesters, essential for converting ambient energy into electricity, increasingly incorporate multi-well systems to enhance efficiency. However, these systems are sensitive to initial conditions and parameter variations, which can affect their ability to sustain optimal cross-well motion—a state associated with maximum power output. Our analysis compared four harvester types under varying levels of parameter mismatch, assessing resilience of the devices to parameter variations. By identifying safe operating ranges within the excitation parameter space, this study provides practical guidance for designing robust, stable harvesters capable of maintaining cross-well motion despite parameter uncertainties. These insights contribute to advancing the reliability of energy harvesting devices in real-world applications where parameter mismatches are inevitable. • Impact of parameter mismatch on cross-well motion stability in energy harvesters analyzed using basin stability metric. • Comparison of four harvester types reveals resilience to parameter variations, aiding in optimal performance maintenance. • Study provides practical guidance for designing robust energy harvesters, identifying safe operating ranges despite parameter mismatches.

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Publication Details

Journal
International Journal of Non-Linear Mechanics
Published
2025-04-05
DOI
https://doi.org/10.1016/j.ijnonlinmec.2025.105097
Citations
2
Primary Topic
Innovative Energy Harvesting Technologies
Type
article
Field-Weighted Citation Impact
1.43
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article

Performance of energy harvesters with parameter mismatch

Tomasz Burzyński, P. Brzeski, P. Perlikowski
2 citations
International Journal of Non-Linear Mechanics
Innovative Energy Harvesting Technologies
1.43
article

Performance of energy harvesters with parameter mismatch

Tomasz Burzyński, P. Brzeski, P. Perlikowski
article en
2 citations

Abstract

This study explores the impact of parameter mismatch on the stability of cross-well motion in energy harvesters, using a basin stability metric. Energy harvesters, essential for converting ambient energy into electricity, increasingly incorporate multi-well systems to enhance efficiency. However, these systems are sensitive to initial conditions and parameter variations, which can affect their ability to sustain optimal cross-well motion—a state associated with maximum power output. Our analysis compared four harvester types under varying levels of parameter mismatch, assessing resilience of the devices to parameter variations. By identifying safe operating ranges within the excitation parameter space, this study provides practical guidance for designing robust, stable harvesters capable of maintaining cross-well motion despite parameter uncertainties. These insights contribute to advancing the reliability of energy harvesting devices in real-world applications where parameter mismatches are inevitable. • Impact of parameter mismatch on cross-well motion stability in energy harvesters analyzed using basin stability metric. • Comparison of four harvester types reveals resilience to parameter variations, aiding in optimal performance maintenance. • Study provides practical guidance for designing robust energy harvesters, identifying safe operating ranges despite parameter mismatches.

International Journal of Non-Linear MechanicsVol. 175
Lodz University of Technology (PL)
Affordable and clean energy
Openalex Percentile: Top 21%
Innovative Energy Harvesting Technologies
1.43
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