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Alexander Leube
Alexander Leube
Carl Zeiss Vision
Verified email at zeiss.com
Title
Cited by
Cited by
Year
Sampling rate influences saccade detection in mobile eye tracking of a reading task
A Leube, K Rifai
Journal of eye movement research 10 (3), 2017
592017
The influence of induced astigmatism on the depth of focus
A Leube, A Ohlendorf, S Wahl
Optometry and Vision Science 93 (10), 1228-1234, 2016
232016
Accommodation lags are higher in myopia than in emmetropia: measurement methods and metrics matter
D Kaphle, SR Varnas, KL Schmid, M Suheimat, A Leube, DA Atchison
Ophthalmic and Physiological Optics 42 (5), 1103-1114, 2022
192022
TuebingenCSTest–a useful method to assess the contrast sensitivity function
T Schilling, A Ohlendorf, A Leube, S Wahl
Biomedical Optics Express 8 (3), 1477-1487, 2017
162017
Steps towards smarter solutions in optometry and ophthalmology—Inter-device agreement of subjective methods to assess the refractive errors of the eye
A Ohlendorf, A Leube, S Wahl
Healthcare 4 (3), 41, 2016
162016
Effects of eye rotation and contact lens decentration on horizontal peripheral refraction
D Jaisankar, A Leube, KL Gifford, KL Schmid, DA Atchison
Ophthalmic and Physiological Optics 39 (5), 370-377, 2019
132019
Symmetric visual response to positive and negative induced spherical defocus under monochromatic light conditions
A Leube, S Kostial, GA Ochakovski, A Ohlendorf, S Wahl
Vision Research 143, 52-57, 2018
112018
Individual neural transfer function affects the prediction of subjective depth of focus
A Leube, T Schilling, A Ohlendorf, D Kern, AG Ochakovski, MD Fischer, ...
Scientific Reports 8 (1), 1919, 2018
112018
Self‐assessment of refractive errors using a simple optical approach
A Leube, C Kraft, A Ohlendorf, S Wahl
Clinical and Experimental Optometry 101 (3), 386-391, 2018
102018
Direct modeling of foveal pit morphology from distortion-corrected OCT images
K Breher, R Agarwala, A Leube, S Wahl
Biomedical optics express 10 (9), 4815-4824, 2019
92019
Advancing digital workflows for refractive error measurements
A Ohlendorf, A Leube, S Wahl
Journal of Clinical Medicine 9 (7), 2205, 2020
62020
Microsaccadic rate signatures correlate under monocular and binocular stimulation conditions
P Essig, A Leube, K Rifai, S Wahl
Journal of Eye Movement Research 11 (4), 2020
52020
Machine Learning based Predictions of Subjective Refractive Errors of the Human Eye.
A Leube, C Leibig, A Ohlendorf, S Wahl
HEALTHINF, 199-205, 2019
52019
Contrast adaptation appears independent from the longitudinal chromatic aberration of the human eye
C Kraft, A Leube, A Ohlendorf, S Wahl
Journal of the Optical Society of America A 36 (4), B77-B84, 2019
52019
Utilizing minicomputer technology for low-cost photorefraction: a feasibility study
R Agarwala, A Leube, S Wahl
Biomedical Optics Express 11 (11), 6108-6121, 2020
42020
Apparatus for ascertaining predicted subjective refraction data or predicted correction values, and computer program
A Ohlendorf, S Wahl, C Leibig, A Leube
US Patent App. 16/404,991, 2019
42019
Relationship between the subjectively and objectively determined depth of focus of the human eye using defocus curves
A Leube, J Tabernero, A Ohlendorf, S Wahl
Invest Ophthalmol Vis Sci 56, 6016, 2015
42015
SLM-based interferometer for assessing the polychromatic neural transfer function of the eye
N Suchkov, T Kurian, C Schwarz, A Leube, S Wahl
Biomedical Optics Express 12 (10), 6040-6054, 2021
32021
A machine learning approach to determine refractive errors of the eye
A Ohlendorf, A Leube, C Leibig, S Wahl
Investigative Ophthalmology & Visual Science 58 (8), 1136-1136, 2017
32017
Determination of at least one optical parameter of a spectacle lens
A Ohlendorf, A Leube, S Wahl, K Rifai, Y Sauer
US Patent 11,333,906, 2022
22022
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