Eye-Movement-Based Assessment of the Perceptual Consequences of Glaucomatous and Neuro-Ophthalmological Visual Field Defects

被引:9
作者
Soans, Rijul Saurabh [1 ,2 ]
Grillini, Alessandro [2 ]
Saxena, Rohit [3 ]
Renken, Remco J. [4 ]
Gandhi, Tapan Kumar [1 ]
Cornelissen, Frans W. [2 ]
机构
[1] Indian Inst Technol Delhi, Dept Elect Engn, POB 110016, New Delhi 110016, India
[2] Univ Groningen, Univ Med Ctr Groningen, Lab Expt Ophthalmol, Groningen, Netherlands
[3] All India Inst Med Sci, Dept Ophthalmol, Dr Rajendra Prasad Ctr Ophthalm Sci, New Delhi, India
[4] Univ Groningen, Univ Med Ctr Groningen, Dept Biomed Sci Cells & Syst, Cognit Neurosci Ctr, Groningen, Netherlands
来源
TRANSLATIONAL VISION SCIENCE & TECHNOLOGY | 2021年 / 10卷 / 02期
基金
欧盟地平线“2020”;
关键词
visual field defects; glaucoma; neuro-ophthalmology; perimetry; eye movements; eye tracking; screening; decision trees; cross correlogram; SENSITIVITY; PERIMETRY; DEFICITS;
D O I
10.1167/tvst.10.2.1
中图分类号
R77 [眼科学];
学科分类号
100212 ;
摘要
Purpose: Assessing the presence of visual field defects (VFD) through procedures such as perimetry is an essential aspect of the management and diagnosis of ocular disorders. However, even the latest perimetric methods have shortcomings & mdash;a high cognitive demand and requiring prolonged stable fixation and feedback through a button response. Consequently, an approach using eye movements (EM)& mdash;as a natural response & mdash;has been proposed as an alternate way to evaluate the presence of VFD. This approach has given good results for computer-simulated VFD. However, its use in patients is not well documented yet. Here we use this new approach to quantify the spatiotemporal properties (STP) of EM of various patients suffering from glaucoma and neuro-ophthalmological VFD and controls. Methods: In total, 15 glaucoma patients, 37 patients with a neuro-ophthalmological disorder, and 21 controls performed a visual tracking task while their EM were being recorded. Subsequently, the STP of EM were quantified using a cross-correlogram analysis. Decision trees were used to identify the relevant STP and classify the populations. Results: We achieved a classification accuracy of 94.5% (TPR/sensitivity = 96%, TNR/specificity = 90%) between patients and controls. Individually, the algorithm achieved an accuracy of 86.3% (TPR for neuro-ophthalmology [97%], glaucoma [60%], and controls [86%]). The STP of EM were highly similar across two different control cohorts. Conclusions: In an ocular tracking task, patients with VFD due to different underlying pathology make EM with distinctive STP. These properties are interpretable based on different clinical characteristics of patients and can be used for patient classification. Translational Relevance: Our EM-based screening tool may complement existing perimetric techniques in clinical practice. <comment>Superscript/Subscript Available</comment> ABSTRACT Purpose: Assessing the presence of visual field defects (VFD) through procedures such as perimetry is an essential aspect of the management and diagnosis of ocular disorders. However, even the latest perimetric methods have shortcomings?a high cognitive demand and requiring prolonged stable fixation and feedback through a button response. Consequently, an approach using eye movements (EM)?as a natural response?has been proposed as an alternate way to evaluate the presence of VFD. This approach has given good results for computer-simulated VFD. However, its use in patients is not well documented yet. Here we use this new approach to quantify the spatiotemporal properties (STP) of EM of various patients suffering from glaucoma and neuro-ophthalmological VFD and controls. Methods: In total, 15 glaucoma patients, 37 patients with a neuro-ophthalmological disorder, and 21 controls performed a visual tracking task while their EM were being recorded. Subsequently, the STP of EM were quantified using a cross-correlogram analysis. Decision trees were used to identify the relevant STP and classify the populations. Results: We achieved a classification accuracy of 94.5% (TPR/sensitivity = 96%, TNR/specificity = 90%) between patients and controls. Individually, the algorithm achieved an accuracy of 86.3% (TPR for neuro-ophthalmology [97%], glaucoma [60%], and controls [86%]). The STP of EM were highly similar across two different control cohorts.
引用
收藏
页码:1 / 17
页数:17
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