This observational study aims to collect real-world wavefront aberrometry and corneal/scleral topography data from individuals with keratoconus and other corneal ectatic disorders. This data will be used to develop and refine a methodology for designing custom-fitted scleral contact lenses with embedded active light management technology. The study will focus on characterizing the optical imperfections (aberrations) and corneal/scleral shape variations in this population to optimize lens design for improved vision and comfort.
Keratoconus, the most common corneal ectatic disease, and other related disorders are characterized by progressive thinning and steepening of the cornea, leading to distorted vision. This study will enroll individuals with these conditions to gather detailed information about their eyes using two non-invasive imaging techniques: Wavefront aberrometry: Measures optical imperfections (aberrations) that contribute to visual distortions like glare, halos, and reduced visual acuity. This data will help understand the specific optical challenges faced by individuals with keratoconus and inform the development of lenses that correct these aberrations. Ocular topography: Maps the three-dimensional shape of the cornea and sclera. The study will utilize advanced topography techniques to capture a wider scan of the ocular surface than is typically available. This expanded view is crucial for designing contact lenses that conform precisely to the irregular corneal shape in keratoconus (conformal fitting). The primary objective of this study is to gather this crucial data to inform the development of a methodology for designing a conformal, custom-fitted contact lens. This lens, being developed by Azalea Vision, will incorporate active light management technology and is intended to address the complex visual challenges experienced by individuals with keratoconus and other corneal ectatic disorders. The data collected will enable Azalea Vision to optimize lens design for improved vision, comfort, and overall quality of life for these individuals.
Study Type
INTERVENTIONAL
Allocation
NA
Purpose
OTHER
Masking
NONE
Enrollment
52
Eyescan with Pentacam AXL Wave
University Hospital Antwerp (UZA)
Edegem, Belgium
Visser Contactlenzen Brunssum
Brunssum, Netherlands
Ocular Topography
Mapping of the ocular surface
Time frame: during the Eyescan procedure
Wavefront aberrometry
Quantification of the wavefront aberrations
Time frame: during the Eyescan procedure
Ocular Topography
Description of the percentage of ocular surface mapped during topography measurement
Time frame: during the Eyescan procedure
Ocular Topography
Repeatability of topography measurements between different scans will be assessed
Time frame: during the Eyescan procedure
Ocular Topography
Quality of topography measurements based on full sequence quality specification, using the parameters embedded in the Oculus Pentacam AXL Wave
Time frame: during the Eyescan procedure
Wavefront aberrometry
Quality of aberrometric measurements based on full sequence quality specification embedded in the Oculus Pentacam AXL Wave
Time frame: during the Eyescan procedure
Anterior chamber depth
as measured by the Pentacam AXL Wave.
Time frame: during the Eyescan procedure
Axial length
as measured by the Pentacam AXL Wave
Time frame: during the Eyescan procedure
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Pupillometry
measurement of pupil size during aberrometry measurement
Time frame: during the Eyescan procedure
Distribution level of keratoconus severity
using the parameters embedded in the Oculus Pentacam AXL Wave
Time frame: during the Eyescan procedure