L van Haasterecht, L Bartolini, J M I Louter, P J González, F B Niessen, D Iannuzzi, M L Groot, P P M van Zuijlen
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引用次数: 0
摘要
准确描述机械特性对于评估问题皮肤的治疗效果至关重要。我们使用新型光学相干弹性成像(OCE)设备进行了一项试验性研究,该设备结合了通过吸力变形进行的机械特性分析和光学相干断层扫描成像。利用人工智能辅助图像分割和幂律模型,我们能够描述机械行为,并将其与最常用的商用仪器(Cutometer)的测量结果以及患者和观察者疤痕评估量表(Patient and Observer Scar Assessment Scale)对硬度的主观分析结果进行比较。20 名受试者患有瘢痕疙瘩或增生性疤痕。测量过程很快,不会产生不适感。病理皮肤条件下的机械和结构(表皮厚度和崎岖度)描述指标与对照组织的描述指标有显著差异。我们首次展示了这种基于吸力的新型 OCE 设备在评估疤痕等病理皮肤的机械和结构特性方面的临床可行性。
Suction-Based Optical Coherence Elastography for the Biomechanical Characterization of Pathological Skin Conditions: A Pilot Study.
Accurate characterization of mechanical properties is crucial in the evaluation of therapeutic effects for problematic skin conditions. A pilot study was carried out using a novel optical coherence elastography (OCE) device, combining mechanical characterization through suction-based deformation and imaging through optical coherence tomography. Using AI-assisted image segmentation and a power-law model, we were able to describe the mechanical behavior, comparing with measurements from the most commonly used commercial instrument (Cutometer) and subjective analyses of stiffness using the Patient and Observer Scar Assessment Scale. Twenty subjects were included with either keloids or hypertrophic scars. Measurements were fast and produced no discomfort. Mechanical and structural (epidermal thickness and rugosity) descriptors in pathologic skin conditions differed significantly from those in control tissue. We showed for the first time, the clinical feasibility of this novel suction-based OCE device in evaluating mechanical and structural properties in pathological skin conditions such as scars.