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一种用于比较青光眼性损害的结构和功能测量指标的框架。

A framework for comparing structural and functional measures of glaucomatous damage.

作者信息

Hood Donald C, Kardon Randy H

机构信息

Department of Psychology, Columbia University, 116th and Broadway, New York, NY, 10027-7004, USA.

出版信息

Prog Retin Eye Res. 2007 Nov;26(6):688-710. doi: 10.1016/j.preteyeres.2007.08.001. Epub 2007 Aug 21.

Abstract

While it is often said that structural damage due to glaucoma precedes functional damage, it is not always clear what this statement means. This review has two purposes: first, to show that a simple linear relationship describes the data relating a particular functional test (standard automated perimetry (SAP)) to a particular structural test (optical coherence tomography (OCT)); and, second, to propose a general framework for relating structural and functional damage, and for evaluating if one precedes the other. The specific functional and structural tests employed are described in Section 2. To compare SAP sensitivity loss to loss of the retinal nerve fiber layer (RNFL) requires a map that relates local field regions to local regions of the optic disc as described in Section 3. When RNFL thickness in the superior and inferior arcuate sectors of the disc are plotted against SAP sensitivity loss (dB units) in the corresponding arcuate regions of the visual field, RNFL thickness becomes asymptotic for sensitivity losses greater than about 10dB. These data are well described by a simple linear model presented in Section 4. The model assumes that the RNFL thickness measured with OCT has two components. One component is the axons of the retinal ganglion cells and the other, the residual, is everything else (e.g. glial cells, blood vessels). The axon portion is assumed to decrease in a linear fashion with losses in SAP sensitivity (in linear units); the residual portion is assumed to remain constant. Based upon severe SAP losses in anterior ischemic optic neuropathy (AION), the residual RNFL thickness in the arcuate regions is, on average, about one-third of the premorbid (normal) thickness of that region. The model also predicts that, to a first approximation, SAP sensitivity in control subjects does not depend upon RNFL thickness. The data (Section 6) are, in general, consistent with this prediction showing a very weak correlation between RNFL thickness and SAP sensitivity. In Section 7, the model is used to estimate the proportion of patients showing statistical abnormalities (worse than the 5th percentile) on the OCT RNFL test before they show abnormalities on the 24-2 SAP field test. Ignoring measurement error, the patients with a relatively thick RNFL, when healthy, will be more likely to show significant SAP sensitivity loss before statistically significant OCT RNFL loss, while the reverse will be true for those who start with an average or a relatively thin RNFL when healthy. Thus, it is important to understand the implications of the wide variation in RNFL thickness among control subjects. Section 8 describes two of the factors contributing to this variation, variations in the position of blood vessels and variations in the mapping of field regions to disc sectors. Finally, in Sections 7 and 9, the findings are related to the general debate in the literature about the relationship between structural and functional glaucomatous damage and a framework is proposed for understanding what is meant by the question, 'Does structural damage precede functional damage in glaucoma?' An emphasis is placed upon the need to distinguish between "statistical" and "relational" meanings of this question.

摘要

虽然人们常说青光眼导致的结构损伤先于功能损伤,但这句话的具体含义并不总是清晰的。本综述有两个目的:第一,表明一种简单的线性关系可描述将特定功能测试(标准自动视野计(SAP))与特定结构测试(光学相干断层扫描(OCT))相关联的数据;第二,提出一个用于关联结构和功能损伤以及评估一方是否先于另一方的通用框架。第2节描述了所采用的具体功能和结构测试。如第3节所述,为了将SAP敏感度损失与视网膜神经纤维层(RNFL)的损失进行比较,需要一张将局部视野区域与视盘局部区域相关联的图谱。当将视盘上下弓形区域的RNFL厚度与视野相应弓形区域的SAP敏感度损失(分贝单位)进行绘制时,对于大于约10分贝的敏感度损失,RNFL厚度会趋于平稳。第4节中给出的一个简单线性模型很好地描述了这些数据。该模型假设用OCT测量的RNFL厚度有两个组成部分。一个部分是视网膜神经节细胞的轴突,另一个部分即剩余部分是其他所有东西(如神经胶质细胞、血管)。轴突部分假定随着SAP敏感度的损失(以线性单位计)呈线性下降;剩余部分假定保持不变。基于前部缺血性视神经病变(AION)中严重的SAP损失,弓形区域的剩余RNFL厚度平均约为该区域病前(正常)厚度的三分之一。该模型还预测,初步近似来看,对照受试者的SAP敏感度不依赖于RNFL厚度。第6节中的数据总体上与这一预测一致,显示RNFL厚度与SAP敏感度之间的相关性非常弱。在第7节中,该模型用于估计在24 - 2 SAP视野测试出现异常之前,在OCT RNFL测试中显示出统计学异常(比第5百分位数差)的患者比例。忽略测量误差,健康时RNFL相对较厚的患者在统计学上显著的OCT RNFL损失之前更有可能出现显著的SAP敏感度损失,而健康时RNFL平均或相对较薄的患者情况则相反。因此,了解对照受试者中RNFL厚度广泛变化的影响很重要。第8节描述了导致这种变化的两个因素,血管位置的变化以及视野区域到视盘扇形区域映射的变化。最后,在第7节和第9节中,研究结果与文献中关于青光眼结构和功能损伤之间关系的一般性辩论相关,并提出了一个框架,用于理解“青光眼的结构损伤是否先于功能损伤?”这个问题意味着什么。重点强调了区分这个问题的“统计学”和“关系性”含义的必要性。

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Retinal nerve fiber structure versus visual field function in patients with ischemic optic neuropathy. A test of a linear model.
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