Literature DB >> 20107174

Refractive power and biometric properties of the nonhuman primate isolated crystalline lens.

David Borja1, Fabrice Manns, Arthur Ho, Noel M Ziebarth, Ana Carolina Acosta, Esdras Arrieta-Quintera, Robert C Augusteyn, Jean-Marie Parel.   

Abstract

Purpose. To characterize the age dependence of shape, refractive power, and refractive index of isolated lenses from nonhuman primates. Methods. Measurements were performed on ex vivo lenses from cynomolgus monkeys (cyno: n = 120; age, 2.7-14.3 years), rhesus monkeys (n = 61; age, 0.7-13.3 years), and hamadryas baboons (baboon: n = 16; age, 1.7-27.3 years). Lens thickness, diameter, and surface curvatures were measured with an optical comparator. Lens refractive power was measured with a custom optical system based on the Scheiner principle. The refractive contributions of the gradient, the surfaces, and the equivalent refractive index were calculated with optical ray-tracing software. The age dependence of the optical and biometric parameters was assessed. Results. Over the measured age range isolated lens thickness decreased (baboon: -0.04, cyno: -0.05, and rhesus: -0.06 mm/y) and equatorial diameter increased (logarithmically for the baboon and rhesus, and linearly for cyno: 0.07 mm/y). The isolated lens surfaces flattened and the corresponding refractive power from the surfaces decreased with age (-0.33, -0.48, and -0.68 D/y). The isolated lens equivalent refractive index decreased (only significant for the baboon, -0.001 D/y), and as a result the total isolated lens refractive power decreased with age (baboon: -1.26, cyno: -0.97, and rhesus: -1.76 D/y). Conclusions. The age-dependent trends in the optical and biometric properties, growth, and aging, of nonhuman primate lenses are similar to those of the pre-presbyopic human lens. As the lens ages, the decrease in refractive contributions from the gradient refractive index causes a rapid age-dependent decrease in maximally accommodated lens refractive power.

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Year:  2010        PMID: 20107174      PMCID: PMC2868391          DOI: 10.1167/iovs.09-3905

Source DB:  PubMed          Journal:  Invest Ophthalmol Vis Sci        ISSN: 0146-0404            Impact factor:   4.799


  29 in total

1.  Slit-lamp studies of the rhesus monkey eye: II. Changes in crystalline lens shape, thickness and position during accommodation and aging.

Authors:  J F Koretz; A M Bertasso; M W Neider; B A True-Gabelt; P L Kaufman
Journal:  Exp Eye Res       Date:  1987-08       Impact factor: 3.467

2.  Accommodation of an endocapsular silicone lens (Phaco-Ersatz) in the nonhuman primate.

Authors:  E Haefliger; J M Parel; F Fantes; E W Norton; D R Anderson; R K Forster; E Hernandez; W J Feuer
Journal:  Ophthalmology       Date:  1987-05       Impact factor: 12.079

3.  The sagittal growth of the eye. II. Ultrasonic measurement of the axial diameter of the lens and the anterior segment from birth to puberty.

Authors:  J S Larsen
Journal:  Acta Ophthalmol (Copenh)       Date:  1971

4.  Slit-lamp studies of the rhesus monkey eye: III. The zones of discontinuity.

Authors:  J F Koretz; A M Bertasso; M W Neider; P L Kaufman
Journal:  Exp Eye Res       Date:  1988-06       Impact factor: 3.467

5.  The shape of the aging human lens: curvature, equivalent refractive index and the lens paradox.

Authors:  M Dubbelman; G L Van der Heijde
Journal:  Vision Res       Date:  2001-06       Impact factor: 1.886

6.  Hyperopia and loss of accommodation following ciliary muscle disinsertion in the cynomolgus monkey: physiologic and scanning electron microscopic studies.

Authors:  P L Kaufman; J W Rohen; E H Bárány
Journal:  Invest Ophthalmol Vis Sci       Date:  1979-07       Impact factor: 4.799

7.  Shape of the isolated ex-vivo human crystalline lens.

Authors:  Raksha Urs; Fabrice Manns; Arthur Ho; David Borja; Adriana Amelinckx; Jared Smith; Rakhi Jain; Robert Augusteyn; Jean-Marie Parel
Journal:  Vision Res       Date:  2008-11-08       Impact factor: 1.886

8.  In vivo videography of the rhesus monkey accommodative apparatus. Age-related loss of ciliary muscle response to central stimulation.

Authors:  M W Neider; K Crawford; P L Kaufman; L Z Bito
Journal:  Arch Ophthalmol       Date:  1990-01

9.  Age-dependent loss of accommodative amplitude in rhesus monkeys: an animal model for presbyopia.

Authors:  L Z Bito; C J DeRousseau; P L Kaufman; J W Bito
Journal:  Invest Ophthalmol Vis Sci       Date:  1982-07       Impact factor: 4.799

10.  Slit-lamp studies of the rhesus monkey eye. I. Survey of the anterior segment.

Authors:  J F Koretz; M W Neider; P L Kaufman; A M Bertasso; C J DeRousseau; L Z Bito
Journal:  Exp Eye Res       Date:  1987-02       Impact factor: 3.467

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  12 in total

1.  Contribution of the crystalline lens gradient refractive index to the accommodation amplitude in non-human primates: in vitro studies.

Authors:  Bianca M Maceo; Fabrice Manns; David Borja; Derek Nankivil; Stephen Uhlhorn; Esdras Arrieta; Arthur Ho; Robert C Augusteyn; Jean-Marie Parel
Journal:  J Vis       Date:  2011-11-30       Impact factor: 2.240

2.  Stretch-dependent changes in surface profiles of the human crystalline lens during accommodation: a finite element study.

Authors:  Hooman Mohammad Pour; Sangarapillai Kanapathipillai; Khosrow Zarrabi; Fabrice Manns; Arthur Ho
Journal:  Clin Exp Optom       Date:  2015-03       Impact factor: 2.742

3.  Primate lens capsule elasticity assessed using Atomic Force Microscopy.

Authors:  Noël M Ziebarth; Esdras Arrieta; William J Feuer; Vincent T Moy; Fabrice Manns; Jean-Marie Parel
Journal:  Exp Eye Res       Date:  2011-03-21       Impact factor: 3.467

4.  Influence of shape and gradient refractive index in the accommodative changes of spherical aberration in nonhuman primate crystalline lenses.

Authors:  Alberto de Castro; Judith Birkenfeld; Bianca Maceo; Fabrice Manns; Esdras Arrieta; Jean-Marie Parel; Susana Marcos
Journal:  Invest Ophthalmol Vis Sci       Date:  2013-09-11       Impact factor: 4.799

5.  The zonules selectively alter the shape of the lens during accommodation based on the location of their anchorage points.

Authors:  Derek Nankivil; Bianca Maceo Heilman; Heather Durkee; Fabrice Manns; Klaus Ehrmann; Shawn Kelly; Esdras Arrieta-Quintero; Jean-Marie Parel
Journal:  Invest Ophthalmol Vis Sci       Date:  2015-02-19       Impact factor: 4.799

6.  System for on- and off-axis volumetric OCT imaging and ray tracing aberrometry of the crystalline lens.

Authors:  Marco Ruggeri; Siobhan Williams; Bianca Maceo Heilman; Yue Yao; Yu-Cherng Chang; Ashik Mohamed; N Geetha Sravani; Heather Durkee; Cornelis Rowaan; Alex Gonzalez; Arthur Ho; Jean-Marie Parel; Fabrice Manns
Journal:  Biomed Opt Express       Date:  2018-07-24       Impact factor: 3.732

7.  Peripheral Defocus of the Monkey Crystalline Lens With Accommodation in a Lens Stretcher.

Authors:  Bianca Maceo Heilman; Fabrice Manns; Marco Ruggeri; Arthur Ho; Alex Gonzalez; Cor Rowaan; Andres Bernal; Esdras Arrieta; Jean-Marie Parel
Journal:  Invest Ophthalmol Vis Sci       Date:  2018-04-01       Impact factor: 4.799

8.  Accuracy and resolution of in vitro imaging based porcine lens volumetric measurements.

Authors:  Mark Wendt; Kurt Bockhorst; Lin He; Adrian Glasser
Journal:  Exp Eye Res       Date:  2011-09-24       Impact factor: 3.467

9.  Distortion correction of OCT images of the crystalline lens: gradient index approach.

Authors:  Damian Siedlecki; Alberto de Castro; Enrique Gambra; Sergio Ortiz; David Borja; Stephen Uhlhorn; Fabrice Manns; Susana Marcos; Jean-Marie Parel
Journal:  Optom Vis Sci       Date:  2012-05       Impact factor: 1.973

10.  Off-axis optical coherence tomography imaging of the crystalline lens to reconstruct the gradient refractive index using optical methods.

Authors:  Alberto de Castro; Judith Birkenfeld; Bianca Maceo Heilman; Marco Ruggeri; Esdras Arrieta; Jean-Marie Parel; Fabrice Manns; Susana Marcos
Journal:  Biomed Opt Express       Date:  2019-06-26       Impact factor: 3.732

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