Literature DB >> 14620328

Optimal pupil size in the human eye for axial resolution.

William J Donnelly1, Austin Roorda.   

Abstract

A computer model that incorporates the monochromatic aberrations of the eye is used to determine the optimal pupil size for axial and lateral resolution as it applies to retinal imaging instruments such as the confocal scanning laser ophthalmoscope. The optimal pupil size for axial resolution, based on the aberrations of 15 subjects, is 4.30 mm +/- 1.19 mm standard deviation (sd), which is larger than that for lateral resolution [2.46 mm +/- 0.66 mm (sd)]. When small confocal pinholes are used, the maximum detected light is obtained with a pupil size of 4.90 mm +/- 1.04 mm sd. It is recommended to use larger pupil sizes in imaging applications where axial resolution is desired.

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Year:  2003        PMID: 14620328     DOI: 10.1364/josaa.20.002010

Source DB:  PubMed          Journal:  J Opt Soc Am A Opt Image Sci Vis        ISSN: 1084-7529            Impact factor:   2.129


  26 in total

1.  Long eye relief fundus camera and fixation target with partial correction of ocular longitudinal chromatic aberration.

Authors:  Samuel Steven; Yusufu N Sulai; Soon K Cheong; Julie Bentley; Alfredo Dubra
Journal:  Biomed Opt Express       Date:  2018-11-07       Impact factor: 3.732

2.  Ultrahigh-resolution optical coherence tomography with monochromatic and chromatic aberration correction.

Authors:  Robert J Zawadzki; Barry Cense; Yan Zhang; Stacey S Choi; Donald T Miller; John S Werner
Journal:  Opt Express       Date:  2008-05-26       Impact factor: 3.894

3.  Optimization of confocal scanning laser ophthalmoscope design.

Authors:  Francesco LaRocca; Al-Hafeez Dhalla; Michael P Kelly; Sina Farsiu; Joseph A Izatt
Journal:  J Biomed Opt       Date:  2013-07       Impact factor: 3.170

Review 4.  Optical coherence tomography: history, current status, and laboratory work.

Authors:  Michelle L Gabriele; Gadi Wollstein; Hiroshi Ishikawa; Larry Kagemann; Juan Xu; Lindsey S Folio; Joel S Schuman
Journal:  Invest Ophthalmol Vis Sci       Date:  2011-04-14       Impact factor: 4.799

5.  Ultra-widefield retinal MHz-OCT imaging with up to 100 degrees viewing angle.

Authors:  Jan Philip Kolb; Thomas Klein; Corinna L Kufner; Wolfgang Wieser; Aljoscha S Neubauer; Robert Huber
Journal:  Biomed Opt Express       Date:  2015-04-02       Impact factor: 3.732

6.  Is oblique scanning laser ophthalmoscope applicable to human ocular optics? A feasibility study using an eye model for volumetric imaging.

Authors:  Wenjun Shao; Weiye Song; Ji Yi
Journal:  J Biophotonics       Date:  2020-03-03       Impact factor: 3.207

7.  Super-resolution retinal imaging using optically reassigned scanning laser ophthalmoscopy.

Authors:  Theodore B DuBose; Francesco LaRocca; Sina Farsiu; Joseph A Izatt
Journal:  Nat Photonics       Date:  2019-03-11       Impact factor: 38.771

8.  Wavefront sensorless adaptive optics optical coherence tomography for in vivo retinal imaging in mice.

Authors:  Yifan Jian; Jing Xu; Martin A Gradowski; Stefano Bonora; Robert J Zawadzki; Marinko V Sarunic
Journal:  Biomed Opt Express       Date:  2014-01-21       Impact factor: 3.732

9.  Ultrahigh speed spectral / Fourier domain OCT ophthalmic imaging at 70,000 to 312,500 axial scans per second.

Authors:  Benjamin Potsaid; Iwona Gorczynska; Vivek J Srinivasan; Yueli Chen; James Jiang; Alex Cable; James G Fujimoto
Journal:  Opt Express       Date:  2008-09-15       Impact factor: 3.894

10.  The effects of longitudinal chromatic aberration and a shift in the peak of the middle-wavelength sensitive cone fundamental on cone contrast.

Authors:  F J Rucker; D Osorio
Journal:  Vision Res       Date:  2008-09       Impact factor: 1.886

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