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. Author manuscript; available in PMC: 2015 Jan 1.
Published in final edited form as: Arch Dermatol Res. 2013 Oct 10;306(1):1–9. doi: 10.1007/s00403-013-1417-7

Table 2.

Summary of Studies Investigating the use of OCT to Image Skin Fibrosis

Authors Study Aim Population Characteristics Findings Limitations
Normal Skin
Mogensen et al [19] To describe normal skin collagen morphology using PS-OCT imaging Healthy volunteers aged 0.5–59 years; (n = 20); examined forehead, ear lobe, nose, cheek, chin, back of the neck, chest, hands, arms and calf PS-OCT images showed characteristic structures due to the birefringence differences between epidermis, papillary, and reticular dermis Small proportion of children relative to adults in the study
Pierce et al [25] To measure anatomic variations in birefringence using PS-OCT Healthy volunteers aged 24–35 years; (n = 5); examined lower back, temple, and hand Mean phase retardation highest for skin of the lower back and lowest for skin of the temple Study limited to male patients; small sample size
Pircher et al [27] To use phase resolved PSOCT to investigate polarization properties of different regions of human skin in vivo Healthy volunteers; (n not specified); examined fingertip and hand 3-D PS-OCT has potential to increase contrast and quantify retardation and orientation of birefringent structures in skin Selected skin regions examined
Yasuno et al [37] To investigate normal skin birefringence using PS-OCT Healthy volunteers PS-OCT successfully revealed the birefringent nature of human skin tissue Limited information on volunteers
Fibrosis
Abignano et al [1] To determine if SS-OCT could offer a potential sensitive imaging biomarker to assess and quantify skin fibrosis Systemic sclerosis patients with mean age of 54 years; (n = 21); examined fingers, hands, and forearms Systemic sclerosis affected skin displayed consistent decrease of optical density in the papillary dermis, this directly correlated with mRSS score Selected skin regions scanned; Only two patients underwent skin biopsies and from sites with MRSS of 3
Kunzi-Rapp et al [14] Use OCT to evaluate new collagen synthesis after scar treatment with the Er:YAG laser Post-traumatic and acne scar patients aged 12–39 years; (n = 12); examined face and extremities OCT demonstrated was the production of new collagen bundles after scar treatment with the Er:YAG laser N/A – OCT was not the main goal of study but rather used in assessment
Liew et al [16] To investigate the utility of OCT to quantify vascularity in hypertrophic scars Hypertrophic scar patients with mean age of 32 years; (n = 8); examined burn scar sites Increase in mean density of vasculature in hypertrophic scar tissues (38%) when compared with normal, unscarred skin (22%); proliferation of larger vessels Pilot study – small sample size; scans acquired in the severely affected areas of each scar
Pierce MC, Strasswimmer J et al [26] To demonstrate the capability of OCT in detecting features of skin fibrosis Fibrotic scar patient; (n = 1); examined hand PS-OCT imaging quantitatively demonstrated polarization differences between normal skin and the fibrotic site Fibrosis examination restricted to the hand; small sample size