Department of Otolaryngology-Head and Neck Surgery, College of Medicine, The Pennsylvania State University, Hershey, Pennsylvania.
Department of Otolaryngology, MetroHealth, Cleveland, Ohio.
Otol Neurotol. 2020 Apr;41(4):e464-e467. doi: 10.1097/MAO.0000000000002567.
Due to the microscopic nature of otologic surgery, photographic image quality suffers from an inherent inability to maintain all the planes of surgery in focus under binocular microscopy. Our goal was to perform simple editing techniques to create improved imaging for educational and research purposes in the field of Otology and Neurotology.
PATIENTS/DESIGN: The study was a proof of concept performed with series of cases including patients undergoing transmastoid and transcanal otologic surgery over time period of December 1, 2018 to March 1, 2019 at an academic medical center. The Zeiss OPMI Pentero 800 operating microscope was used with a camera capturing 2.1 megapixel, 1098 × 1080 resolution images.
We created a systematic protocol for capturing images of multiple focal lengths during each surgery. With the image-editing technique of focus-stacking, multiple images of varying focal length, were spliced together to produce high-quality and high-fidelity composite images rendered using the Adobe Photoshop (San Jose, CA).
Subjective comparisons of pre and post photo-edited photographs.
Composite, focus-stacked images with comparison to unedited microscopic pictures are reviewed in the manuscript.
We describe a simple and objectively practical method for improving the quality of medical imaging in the field of Otology/Neurotology. To achieve this enhanced image quality, a relatively expeditious and reliable photographic protocol can be used for image capturing and editing, requiring little to no additional training for a physician in the field.
由于耳科学手术的微观性质,在双目显微镜下,摄影图像质量受到无法始终保持所有手术层面聚焦的固有限制。我们的目标是执行简单的编辑技术,以便在耳科学和神经耳科学领域创建用于教育和研究的改进成像。
患者/设计:该研究是一个概念验证,使用包括在学术医疗中心接受经乳突和经耳道耳科手术的患者的一系列病例进行,时间为 2018 年 12 月 1 日至 2019 年 3 月 1 日。使用 Zeiss OPMI Pentero 800 手术显微镜和一个可捕获 2.1 百万像素、1098×1080 分辨率图像的摄像头进行拍摄。
我们创建了一个系统方案,用于在每次手术中捕获多个焦距的图像。通过聚焦堆叠的图像编辑技术,将多个不同焦距的图像拼接在一起,使用 Adobe Photoshop(加利福尼亚州圣何塞)生成高质量和高保真的合成图像。
术前和术后照片编辑后的主观比较。
我们描述了一种简单且客观实用的方法,用于提高耳科学/神经耳科学领域的医学成像质量。为了实现这种增强的图像质量,可以使用相对快速可靠的摄影方案进行图像捕获和编辑,不需要领域内的医生进行额外的培训。