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近视 III 眼中的光学相干断层扫描视神经头形态:健康眼中暴露的神经管区域 - 对高度近视的影响。

Optical Coherence Tomographic Optic Nerve Head Morphology in Myopia III: The Exposed Neural Canal Region in Healthy Eyes-Implications for High Myopia.

机构信息

From the Devers Eye Institute, Optic Nerve Head Research Laboratory, Legacy Research Institute (S.H., H.Y., H.L., A.J., C.F.B.), Portland, Oregon, USA; Yebon Eye Clinic (S.H.), Seoul, Korea.

From the Devers Eye Institute, Optic Nerve Head Research Laboratory, Legacy Research Institute (S.H., H.Y., H.L., A.J., C.F.B.), Portland, Oregon, USA.

出版信息

Am J Ophthalmol. 2024 Feb;258:55-75. doi: 10.1016/j.ajo.2023.08.012. Epub 2023 Sep 5.

DOI:10.1016/j.ajo.2023.08.012
PMID:37673378
原文链接:https://pmc.ncbi.nlm.nih.gov/articles/PMC10841091/
Abstract

PURPOSE

To determine the prevalence and magnitude of optical coherence tomography (OCT) exposed neural canal (ENC), externally oblique choroidal border tissue (EOCBT), and exposed scleral flange (ESF) regions in 362 non-highly myopic (spherical equivalent -6.00 to 5.75 diopters) eyes of 362 healthy subjects.

DESIGN

Cross-sectional study.

METHODS

After OCT optic nerve head (ONH) imaging, Bruch membrane opening (BMO), the anterior scleral canal opening (ASCO), and the scleral flange opening (SFO) were manually segmented. BMO, ASCO, and SFO points were projected to the BMO reference plane. The direction and magnitude of BMO/ASCO offset as well as the magnitude of ENC, EOCBT, and ESF was calculated within 30° sectors relative to the foveal-BMO axis. Hi-ESF eyes demonstrated an ESF ≥100 µm in at least 1 sector. Sectoral peri-neural canal choroidal thickness (pNC-CT) was measured and correlations between the magnitude of sectoral ESF and proportional pNC-CT were assessed.

RESULTS

Seventy-three Hi-ESF (20.2%) and 289 non-Hi-ESF eyes (79.8%) were identified. BMO/ASCO offset as well as ENC, EOCBT, and ESF prevalence and magnitude were greatest inferior temporally where the pNC-CT was thinnest. Among Hi-ESF eyes, the magnitude of each ENC region correlated with the BMO/ASCO offset magnitude, and the sectors with the longest ESF correlated with the sectors with proportionally thinnest pNC-CT.

CONCLUSIONS

ONH BMO/ASCO offset, either as a cause or result of ONH neural canal remodeling, corresponds with the sectoral location of maximum ESF and minimum pNC-CT in non-highly myopic eyes. Longitudinal studies to characterize the development and clinical implications of ENC Hi-ESF regions in non-highly myopic and highly myopic eyes are indicated.

摘要

目的

确定 362 名无高度近视(等效球镜 -6.00 至 5.75 屈光度)健康受试者的 362 只眼中光学相干断层扫描(OCT)暴露神经管(ENC)、外斜脉络膜边界组织(EOCBT)和暴露巩膜边缘(ESF)区域的发生率和程度。

设计

横断面研究。

方法

在 OCT 视神经头(ONH)成像后,手动分割 Bruch 膜开口(BMO)、前巩膜管开口(ASCO)和巩膜边缘开口(SFO)。将 BMO、ASCO 和 SFO 点投影到 BMO 参考平面。在相对于黄斑-BMO 轴的 30°扇区内计算 BMO/ASCO 偏移的方向和程度,以及计算 ENC、EOCBT 和 ESF 的程度。Hi-ESF 眼在至少 1 个扇区中表现出 ESF≥100μm。测量了各扇区神经周围管脉络膜厚度(pNC-CT),并评估了扇区 ESF 程度与比例 pNC-CT 之间的相关性。

结果

确定了 73 只 Hi-ESF(20.2%)和 289 只非 Hi-ESF 眼(79.8%)。BMO/ASCO 偏移以及 ENC、EOCBT 和 ESF 的发生率和程度在最下方颞侧最大,该处的 pNC-CT 最薄。在 Hi-ESF 眼中,每个 ENC 区域的程度与 BMO/ASCO 偏移程度相关,并且 ESF 最长的扇区与 pNC-CT 比例最薄的扇区相关。

结论

ONH BMO/ASCO 偏移,无论是作为 ONH 神经管重塑的原因还是结果,都与非高度近视眼中最大 ESF 和最小 pNC-CT 的扇区位置相对应。需要进行纵向研究,以描述非高度近视和高度近视眼中 ENC Hi-ESF 区域的发展和临床意义。

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