Cutaneous wound healing is a complex process involving numerous cell types to accomplish sequential, yet overlapping phases of inflammation, proliferation and tissue remodelling. 1,2 Immediately after injury, blood components are released into the wound, forming a clot which provides a matrix for the influx of inflammatory cells.The inflammatory phase is characterized by leukocyte migration to the wound. Neutrophils primarily remove bacteria, followed by monocytes which further differentiate into macrophages that exert early pro-inflammatory and late anti-inflammatory functions during the healing process. Deposition of the newly synthesized fibrin matrix and granulation tissue formation follow; these are subsequently replaced by collagen and scar tissue during the final stages of wound healing. The proliferative phase of wound healing is characterized by re-epithelialization, neovascularization and extracellular matrix deposition. 1,3 Historically, exploration of the molecular basis of wound healing has included a primary focus on its spatiotemporal regulation. Given the complexity of the wound healing process and its requirement for stringent regulation, epigenetic regulation including histone modifications and DNA methylation is highly likely to play a role. 4,5 Indeed, recent discoveries in the field of non-coding RNAs have identified roles for microRNAs (miRs), circular RNAs (circRNA) and long noncoding RNAs (lncRNA) as global gene expression regulators involved in an array of processes important for successful wound healing. [6][7][8][9] While the primary focus of previous reviews has been on the role of epigenetic modifications in acute wound healing, 4-8 herein we