Logo image
The effect of nano-scale topography on keratinocyte phenotype and wound healing following burn injury
Journal article   Open access   Peer reviewed

The effect of nano-scale topography on keratinocyte phenotype and wound healing following burn injury

L.G. Parkinson, S.M. Rea, A.W. Stevenson, F.M. Wood and M.W. Fear
Tissue Engineering Part A, Vol.18(7-8), pp.703-714
2012
pdf
nano-scale_topography.pdfDownloadView
Published (Version of Record) Open Access
url
Link to Published Version *Subscription may be requiredView

Abstract

Topographic modulation of tissue response is an important consideration in the design and manufacture of a biomaterial. In developing new tissue therapies for skin, all levels of architecture, including the nanoscale need to be considered. Here we show that keratinocyte phenotype is affected by nanoscale changes in topography with cell morphology, proliferation, and migration influenced by the pore size in anodic aluminum oxide membranes. A membrane with a pore size of 300 nm, which enhanced cell phenotype in vitro, was used as a dressing to cover a partial thickness burn injury in the pig. Wounds dressed with the membrane showed evidence of advanced healing with significantly less organizing granulation tissue and more mature epidermal layers than control wounds dressed with a standard burns dressing. The results demonstrate the importance of nanoscale topography in modulating keratinocyte phenotype and skin wound healing.

Details

UN Sustainable Development Goals (SDGs)

This output has contributed to the advancement of the following goals:

#3 Good Health and Well-Being

Source: InCites

Metrics

179 File views/ downloads
98 Record Views

InCites Highlights

These are selected metrics from InCites Benchmarking & Analytics tool, related to this output

Collaboration types
Domestic collaboration
Citation topics
1 Clinical & Life Sciences
1.266 Wounds & Ulcers
1.266.1023 Burns
Web Of Science research areas
Cell & Tissue Engineering
Cell Biology
Engineering, Biomedical
Materials Science, Biomaterials
ESI research areas
Molecular Biology & Genetics
Logo image