Borsod-Abaúj-Zemplén County Hospital and University Teaching Hospital, Miskolc, Hungary.
Department of Ophthalmology, University of Debrecen, Debrecen, Hungary.
Eur J Ophthalmol. 2021 Mar;31(2):566-571. doi: 10.1177/1120672120902952. Epub 2020 Jan 28.
The aim was to assess the postoperative results of a biometric method using artificial intelligence (Hill-radial basis function 2.0), and data from a modern formula (Barrett Universal II) and the Sanders-Retzlaff-Kraft/Theoretical formula.
Phacoemulsification and biconvex intraocular lens implantation were performed in 186 cataractous eyes. The diopters of intraocular lens were established with the Hill-radial basis function method, based on biometric data obtained using the Aladdin device. The required diopters of the intraocular lens were also calculated by the Barrett Universal II formula and with the Sanders-Retzlaff-Kraft/Theoretical formula. The differences between the manifest postoperative refractive errors and the planned refractive errors were calculated, as well as the percentage of eyes within ±0.5 D of the prediction error. The mean- and the median absolute refractive errors were also determined.
The mean age of the patients was 70.13 years (SD = 10.67 years), and the mean axial length was 23.47 mm (range = 20.72-28.78 mm). The percentage of eyes within a prediction error of ±0.5 D was 83.62% using the Hill-radial basis function method, 79.66% with the Barrett Universal II formula, and 74.01% in the case of the Sanders-Retzlaff-Kraft/Theoretical formula. The mean- and the median absolute refractive errors were not statistically different.
Clinical success was the highest when using the biometric method, based on pattern recognition. The results obtained using Barrett Universal II came a close second. Both methods performed better compared to a traditionally used formula.
评估一种使用人工智能(Hill-radial basis function 2.0)的生物测量方法的术后结果,以及现代公式(Barrett Universal II)和 Sanders-Retzlaff-Kraft/理论公式的数据。
对 186 只白内障眼进行超声乳化白内障吸除术和双凸人工晶状体植入术。基于 Aladdin 设备获得的生物测量数据,使用 Hill-radial basis function 方法确定人工晶状体的屈光度。还使用 Barrett Universal II 公式和 Sanders-Retzlaff-Kraft/理论公式计算人工晶状体所需的屈光度。计算术后实际屈光误差与计划屈光误差之间的差异,以及预测误差在±0.5D 以内的眼的百分比。还确定了平均和中位数绝对屈光误差。
患者的平均年龄为 70.13 岁(标准差=10.67 岁),平均眼轴长度为 23.47mm(范围=20.72-28.78mm)。使用 Hill-radial basis function 方法,预测误差在±0.5D 以内的眼的百分比为 83.62%,使用 Barrett Universal II 公式为 79.66%,使用 Sanders-Retzlaff-Kraft/理论公式为 74.01%。平均和中位数绝对屈光误差无统计学差异。
基于模式识别的生物测量方法的临床成功率最高,Barrett Universal II 公式获得的结果紧随其后。这两种方法的表现均优于传统使用的公式。