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March 10, 2026Journal of Engineering0 citationsOpen Access

The Index of Curvature and the Theoretical Framework for Bipedal Modules

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MJMartha Eunice Juárez-CamposIJIgnacio Juárez-CamposDCDaniel Cahue-Díaz

Key Points

  • To develop a mathematical framework for understanding the kinematic properties of bipedal modules using the Index of Curvature.
  • Introduced the Index of Curvature to describe kinematic properties of a three-degree-of-freedom mechanism.
  • Analyzed the relationship between legs performing concave and convex trajectories.
  • Developed a theoretical framework for modeling and simulating bipedal walking machines.
  • Demonstrated that the Index of Curvature can predict kinematic qualities between concave and convex legs.
  • Proposed a design for multipedal machines that can walk with various trajectory profiles.
  • Established a mathematical foundation for robotic leg configurations that enhance walking efficiency.

Abstract

The Index of Curvature was invented to describe the kinematic properties of a three‐degree‐of‐freedom mechanism based on the Peaucellier–Lipkin linkage when it traces circular curves. This mechanism serves as the basis of a particular class of sprawling legs. When a machine, equipped with them, walks along a circular path, some legs become configured to develop convex‐type trajectories, while some others are arranged to perform concave curves. It was discovered that the Index of Curvature can mutually relate legs developing concave and convex trajectories so that one mechanism’s kinematic qualities can predict the other’s qualities. This article presents a solid mathematical framework describing the kinematic qualities of a robotic leg and the interdependence between legs developing concave and convex trajectories in terms of the Index of Curvature , which is the leading contribution. This article offers the use of this mathematical framework in conceiving, modeling, and simulating a theoretical bipedal module to create multipedal walking machines, which, although using sprawling legs, acquire narrower profiles as those presented in mammalian type walking robots.

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Cite This Study

Juárez-Campos et al. (2026) studied this question.

synapsesocial.com/papers/69af951a70916d39fea4c44fhttps://doi.org/10.1155/je/9696524
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