Visual Field Digest Teaching Kit Chapter 11 HAAG-STREIT AG
Teaching Kit Copyright The Visual Field Digest Teaching Kit includes all figures and illustrations from the Visual Field Digest. They can be used for non-commercial presentations free of charge. Haag-Streit AG allows the use of this figures for personal or academic use under the conditions that (i) it is used without commercial purpose and (ii) the content is reproduced exactly as the original by mentioning Haag-Streit AG, Switzerland as the owner of the copyright. Non-academic, non-personal or commercial users might only use this figures in whole or in part after a written authorization by the copyright holder. “Haag-Streit”, “900” and “Octopus” are either registered trademarks or trademarks of Haag-Streit Holding AG. The following are either registered trademarks or trademarks of Carl Zeiss Meditec: “Guided Progression Analysis”, “GPA”, “Humphrey”, “HFA”, “SITA”, “SITA Fast”, “SITA Standard”, “Visual Field Index”, and “VFI”. Copyright © 2018 HAAG-STREIT AG
Fig. 11-1: Low spatial resolution with static perimetry
Fig. 11-2: Slow peripheral testing with static perimetry
Fig. 11-3: Kinetic testing method
Fig. 11-4: Identification of local scotomas with kinetic perimetry
Fig. 11-5: Hill of vision as a topographical map
Fig. 11-6: Static versus kinetic perimetry
Fig. 11-7: The goldmann perimeter and its successor, the OCTOPUS 900
Fig. 11-8: Normal isopters for different stimulus types
Fig. 11-9: Stimulus intensities in kinetic perimetry
Fig. 11-10: Normal isopters
Fig. 11-11: Mapping the outline of the hill of vision
Fig. 11-12: Detailing the boundaries of an isopter
Fig. 11-13: Identification of isolated scotomas
Fig. 11-14: Placement of vectors and static points using different stimulus types
Fig. 11-15: Distinction between absolute and relative scotomas
Fig. 11-16: Checking for short-term fluctuation
Fig. 11-17: Checking for false positives
Fig. 11-18: Checking for false negatives
Fig. 11-19: Patient reaction time compensation
Fig. 11-20: Example of the clinical usefulness of reaction time compensation
Fig. 11-21A: Step-by-step example of a kinetic test with several isopters (Steps 1-2)
Fig. 11-21B: Step-by-step example of a kinetic test with several isopters (Steps 3-8)
Fig. 11-21C: Step-by-step example of a kinetic test with several isopters (Steps 9-14)
Fig. 11-22: Example of fully automated kinetic perimetry to test for ptosis
Fig. 11-23: Example of customized templates for neuro-ophthalmic conditions
Table 11-1: Comparison between static and kinetic perimetry
Table 11-2: Comparison between Octopus kinetic perimetry and Goldmann kinetic perimetry
Table 11-3: Goldmann stimulus size I to V