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Abstract

Sutures are the materials primarily used for closing wounds, and their performance is significantly dependent on their mechanical characteristics. Thus, their tensile property is a key parameter responsible for the success of a suture. In this paper, a simple analytical tensile model of braided sutures has been developed based on braid geometry, braid kinematics, and constituent monofilament properties. The model has accounted for the changes in the braid geometry, including braid angle, diameter, and Poisson’s ratio. The kinematics of the braided suture is analyzed pertaining to monofilament locking or jamming in the braid. The model of jamming state of monofilaments has been presented, and both braid angle and diameter are found to be critical design parameters. The experimental results have been compared to the theoretical stress–strain curves of braided sutures, and an excellent agreement has been observed between them.

Keywords

Braided suture monofilament tensile stress–strain model jamming Poisson’s ratio

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Tensile mechanics of braided sutures

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