Isotropic point synthesis of flexures and of compliant mechanisms

In this paper, the point compliance synthesis method is applied at the output port of a compliant mechanism to determine the points that satisfy the isotropy property. The kinetostatics of the compliant system is described using the ellipse of elasticity theory. According to the proposed modeling approach, based on projective geometry, the position of the isotropic points depends solely on the conic eccentricity, and their coordinates can be obtained through a simple arithmetic expression. Since any compliant system can be modeled by an ellipse of elasticity, the results obtained are of general validity. The synthesis procedure is applied to three case studies: two uniform flexures having axes with constant and variable curvature, and a closed-chain compliant mechanism. Numerical simulations and experimental testing are carried out to validate the procedure and to confirm the isotropy property. • A novel method for the isotropy synthesis of compliant mechanisms is presented. • The method is based on the ellipse of elasticity. • Isotropic points lie along the minor axis, one linear eccentricity from the center. • The procedure can be applied to any flexure and to any compliant mechanism. • Theoretical results are verified by numerical simulations and experimental testing.

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Publication Details

Journal
Precision Engineering
Published
2025-10-09
DOI
https://doi.org/10.1016/j.precisioneng.2025.09.027
Citations
1
Primary Topic
Robotic Mechanisms and Dynamics
Type
article
Field-Weighted Citation Impact
1.21
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article

Isotropic point synthesis of flexures and of compliant mechanisms

Matteo Verotti, Oliviero Giannini, Luca Bruzzone, O. Sorgonà
1 citations
Precision Engineering
Robotic Mechanisms and Dynamics
1.21
article

Isotropic point synthesis of flexures and of compliant mechanisms

Matteo Verotti, Oliviero Giannini, Luca Bruzzone, O. Sorgonà
article en
1 citations

Abstract

In this paper, the point compliance synthesis method is applied at the output port of a compliant mechanism to determine the points that satisfy the isotropy property. The kinetostatics of the compliant system is described using the ellipse of elasticity theory. According to the proposed modeling approach, based on projective geometry, the position of the isotropic points depends solely on the conic eccentricity, and their coordinates can be obtained through a simple arithmetic expression. Since any compliant system can be modeled by an ellipse of elasticity, the results obtained are of general validity. The synthesis procedure is applied to three case studies: two uniform flexures having axes with constant and variable curvature, and a closed-chain compliant mechanism. Numerical simulations and experimental testing are carried out to validate the procedure and to confirm the isotropy property. • A novel method for the isotropy synthesis of compliant mechanisms is presented. • The method is based on the ellipse of elasticity. • Isotropic points lie along the minor axis, one linear eccentricity from the center. • The procedure can be applied to any flexure and to any compliant mechanism. • Theoretical results are verified by numerical simulations and experimental testing.

Precision EngineeringVol. 97
Don Carlo Gnocchi Foundation (IT), University Niccolò Cusano (IT), University of Genoa (IT)
Openalex Percentile: Top 16%
Robotic Mechanisms and Dynamics
1.21
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Isotropic point synthesis of flexures and of compliant mechanisms — Matteo Verotti, Oliviero Giannini, et al. · Precision Engineering (2025) | TGRS Research Map | TGRS