Extended healing validation of an artificial tendon to connect the quadriceps muscle to the Tibia: 180-day study

Whenever a tendon or its bone insertion is disrupted or removed, existing surgical techniques provide a temporary connection or scaffolding to promote healing, but the interface of living to non‐living materials soon breaks down under the stress of these applications, if it must bear the load more t...

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Veröffentlicht in:Journal of orthopaedic research 2012-07, Vol.30 (7), p.1112-1117
Hauptverfasser: Melvin, Alan J., Litsky, Alan S., Mayerson, Joel L., Stringer, Keith, Juncosa-Melvin, Natalia
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container_end_page 1117
container_issue 7
container_start_page 1112
container_title Journal of orthopaedic research
container_volume 30
creator Melvin, Alan J.
Litsky, Alan S.
Mayerson, Joel L.
Stringer, Keith
Juncosa-Melvin, Natalia
description Whenever a tendon or its bone insertion is disrupted or removed, existing surgical techniques provide a temporary connection or scaffolding to promote healing, but the interface of living to non‐living materials soon breaks down under the stress of these applications, if it must bear the load more than acutely. Patients are thus disabled whose prostheses, defect size, or mere anatomy limit the availability or outcomes of such treatments. Our group developed the OrthoCoupler™ device to join skeletal muscle to prosthetic or natural structures without this interface breakdown. In this study, the goat knee extensor mechanism (quadriceps tendon, patella, and patellar tendon) was removed from the right hind limb in 16 goats. The device connected the quadriceps muscle to a stainless steel bone plate on the tibia. Mechanical testing and histology specimens were collected from each operated leg and contralateral unoperated control legs at 180 days. Maximum forces in the operated leg (vs. unoperated) were 1,400 ± 93 N (vs. 1,179 ± 61 N), linear stiffnesses were 33 ± 3 N/mm (vs. 37 ± 4 N/mm), and elongations at failure were 92.1 ± 5.3 mm (vs. 68.4 ± 3.8 mm; mean ± SEM). Higher maximum forces (p = 0.02) and elongations at failure (p = 0.008) of legs with the device versus unoperated controls were significant; linear stiffnesses were not (p = 0.3). We believe this technology will yield improved procedures for clinical challenges in orthopedic oncology, revision arthroplasty, tendon transfer, and tendon injury reconstruction. © 2011 Orthopaedic Research Society. Published by Wiley Periodicals, Inc. J Orthop Res 30:1112–1117, 2012
doi_str_mv 10.1002/jor.22043
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Higher maximum forces (p = 0.02) and elongations at failure (p = 0.008) of legs with the device versus unoperated controls were significant; linear stiffnesses were not (p = 0.3). We believe this technology will yield improved procedures for clinical challenges in orthopedic oncology, revision arthroplasty, tendon transfer, and tendon injury reconstruction. © 2011 Orthopaedic Research Society. Published by Wiley Periodicals, Inc. 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subjects Animals
Artificial Organs - standards
Biomechanical Phenomena - physiology
Goats
limb salvage
Limb Salvage - methods
Male
Materials Testing
Orthopedic Procedures - methods
prosthesis
Prosthesis Implantation - methods
Prosthesis Implantation - standards
Quadriceps Muscle - surgery
Reproducibility of Results
revision surgery
tendon repair
tendon transfer
Tendons - physiology
Tendons - surgery
Tibia - surgery
Weight-Bearing - physiology
Wound Healing - physiology
title Extended healing validation of an artificial tendon to connect the quadriceps muscle to the Tibia: 180-day study
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