TY - JOUR
T1 - Augmentation of tendon-to-bone healing
AU - Atesok, Kivanc
AU - Fu, Freddie H.
AU - Wolf, Megan R.
AU - Ochi, Mitsuo
AU - Jazrawi, Laith M.
AU - Doral, M. Nedim
AU - Lubowitz, James H.
AU - Rodeo, Scott A.
PY - 2014/3/19
Y1 - 2014/3/19
N2 - ▶ Tendon-to-bone healing is vital to the ultimate success of the various surgical procedures performed to repair injured tendons. ▶ Achieving tendon-to-bone healing that is functionally and biologically similar to native anatomy can be challenging because of the limited regeneration capacity of the tendon-bone interface. ▶ Orthopaedic basic-science research strategies aiming to augment tendon-to-bone healing include the use of osteoinductive growth factors, platelet-rich plasma, gene therapy, enveloping the grafts with periosteum, osteoconductive materials, cell-based therapies, biodegradable scaffolds, and biomimetic patches. ▶ Low-intensity pulsed ultrasound and extracorporeal shockwave treatment may affect tendon-to-bone healing by means of mechanical forces that stimulate biological cascades at the insertion site. ▶ Application of various loading methods and immobilization times influence the stress forces acting on the recently repaired tendon-to-bone attachment, which eventually may change the biological dynamics of the interface. ▶ Other approaches, such as the use of coated sutures and interference screws, aim to deliver biological factors while achieving mechanical stability by means of various fixators. ▶ Controlled Level-I human trials are required to confirm the promising results from in vitro or animal research studies elucidating the mechanisms underlying tendon-to-bone healing and to translate these results into clinical practice.
AB - ▶ Tendon-to-bone healing is vital to the ultimate success of the various surgical procedures performed to repair injured tendons. ▶ Achieving tendon-to-bone healing that is functionally and biologically similar to native anatomy can be challenging because of the limited regeneration capacity of the tendon-bone interface. ▶ Orthopaedic basic-science research strategies aiming to augment tendon-to-bone healing include the use of osteoinductive growth factors, platelet-rich plasma, gene therapy, enveloping the grafts with periosteum, osteoconductive materials, cell-based therapies, biodegradable scaffolds, and biomimetic patches. ▶ Low-intensity pulsed ultrasound and extracorporeal shockwave treatment may affect tendon-to-bone healing by means of mechanical forces that stimulate biological cascades at the insertion site. ▶ Application of various loading methods and immobilization times influence the stress forces acting on the recently repaired tendon-to-bone attachment, which eventually may change the biological dynamics of the interface. ▶ Other approaches, such as the use of coated sutures and interference screws, aim to deliver biological factors while achieving mechanical stability by means of various fixators. ▶ Controlled Level-I human trials are required to confirm the promising results from in vitro or animal research studies elucidating the mechanisms underlying tendon-to-bone healing and to translate these results into clinical practice.
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U2 - 10.2106/JBJS.M.00009
DO - 10.2106/JBJS.M.00009
M3 - Review article
C2 - 24647509
AN - SCOPUS:84896961151
SN - 0021-9355
VL - 96
SP - 513
EP - 521
JO - Journal of Bone and Joint Surgery - Series A
JF - Journal of Bone and Joint Surgery - Series A
IS - 6
ER -