Journal of Cellular and Molecular Medicine · 2018 · 31 citations · 11 references
EngineeringBioengineeringBiomedical EngineeringRegenerative MedicineTissue EngineeringWound HealingCollagen DepositionExtracellular MatrixExtracellular Matrix BiologyFibrosisFibrous ProteinsScar FormationCollagen Fibril OrganizationHypertrophic Scar FormationIntradermal AdministrationScar PathophysiologyTensile StrengthTissue ScarringWound Healing MechanicsWound Tensile Strength
Hypertrophic scarring is a major postoperative complication which leads to severe disfigurement and dysfunction in patients and usually requires multiple surgical revisions due to its high recurrence rates. Excessive-mechanical-loading across wounds is an important initiator of hypertrophic scarring formation. In this study, we demonstrate that intradermal administration of a single extracellular matrix (ECM) molecule-fibromodulin (FMOD) protein-can significantly reduce scar size, increase tensile strength, and improve dermal collagen architecture organization in the normal and even excessive-mechanical-loading red Duroc pig wound models. Since pig skin is recognized by the Food and Drug Administration as the closest animal equivalent to human skin, and because red Duroc pigs show scarring that closely resembles human proliferative scarring and hypertrophic scarring, FMOD-based technologies hold high translational potential and applicability to human patients suffering from scarring-especially hypertrophic scarring.
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Fibroblasts and myofibroblasts in wound healing
2014 · 431 citations · Full text
Effects of Steroids and Retinoids on Wound Healing
Corinna Wicke · Archives of Surgery · 2000 · 352 citations
Improving Cutaneous Scar Formation by Controlling the Mechanical Environment
Geoffrey C. Gurtner, Reinhold H. Dauskardt, Victor W. Wong et al. · Annals of Surgery · 2011 · 260 citations