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Clinical and Experimental Optometry Volume 91, 2008 - Issue 3
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Progress in the spectacle correction of presbyopia. Part 2: Modern progressive lens technologies

Darryl J MeisterCarl Zeiss Vision, California, USA
E‐mail: [email protected]
, ABOM &
Scott W FisherCarl Zeiss Vision, California, USA
E‐mail: [email protected]
, BSc(Hons)
Pages 251-264 | Received 13 Aug 2007, Accepted 31 Oct 2007, Published online: 15 Apr 2021

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W. Neil Charman. (2018) Non-surgical treatment options for presbyopia. Expert Review of Ophthalmology 13:4, pages 219-231.
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B. Mateo, R. Porcar-Seder, J.S. Solaz & J.C. Dürsteler. (2010) Experimental procedure for measuring and comparing head–neck–trunk posture and movements caused by different progressive addition lens designs. Ergonomics 53:7, pages 904-913.
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Articles from other publishers (33)

Miguel Garcia Garcia, Katharina Rifai, Siegfried Wahl & Tamara Watson. (2021) Adaptation to geometrically skewed moving images: An asymmetrical effect on the double-drift illusion. Vision Research 179, pages 75-84.
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Glòria Casanellas & Jordi Castro. (2019) Using interior point solvers for optimizing progressive lens models with spherical coordinates. Optimization and Engineering 21:4, pages 1389-1421.
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Jiang Weiwei, Yu Jing & Li Dongsheng. (2019) Optical analysis of freeform spectacle lens based on eye model. Optical analysis of freeform spectacle lens based on eye model.
Jessica Jarosz, Norbert Molliex, Guilhem Chenon & Bruno Berge. (2019) Adaptive eyeglasses for presbyopia correction: an original variable-focus technology. Optics Express 27:8, pages 10533.
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José Alonso, José A. Gómez-Pedrero & Juan A. Quiroga. 2019. Modern Ophthalmic Optics. Modern Ophthalmic Optics.
Hyeong-Su Kim, Dong-Sik Yu, Hyun Gug Cho, Byeong-Yeon Moon & Sang-Yeob Kim. (2019) Comparison of predicted and measured axial length for ophthalmic lens design. PLOS ONE 14:1, pages e0210387.
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Jannik M. Trapp, Manuel Decker, Jörg Petschulat, Thomas Pertsch & Toufic G. Jabbour. (2018) Design of a 2 diopter holographic progressive lens. Optics Express 26:25, pages 32866.
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Jannik Trapp, Manuel Decker, Thomas Pertsch, Toufic Jabbour & Jörg Petschulat. (2018) Holographic progressive lenses. Holographic progressive lenses.
Huazhong Xiang, Hang Guo, Dongxiang Fu, Gang Zheng, Songlin Zhuang, JiaBi Chen, Cheng Wang & Jie Wu. (2018) Multi-optical-axis measurement of freeform progressive addition lenses using a Hartmann–Shack wavefront sensor. Optics and Lasers in Engineering 104, pages 259-265.
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Tara L. Alvarez, Eun H. Kim & Bérangère Granger-Donetti. (2017) Adaptation to Progressive Additive Lenses: Potential Factors to Consider. Scientific Reports 7:1.
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Hema Radhakrishnan & W. Neil Charman. (2017) Optical characteristics of Alvarez variable-power spectacles. Ophthalmic and Physiological Optics 37:3, pages 284-296.
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Johanne Forkel, Jenny Lorén Reiniger, Adam Muschielok, Andrea Welk, Anne Seidemann & Peter Baumbach. (2017) Personalized Progressive Addition Lenses: Correlation between Performance and Design. Optometry and Vision Science 94:2, pages 208-218.
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Juan Carlos Dürsteler. (2016) Aspherics in spectacle lenses. Advanced Optical Technologies 5:5-6, pages 461-469.
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Beatriz Perucho, José Angel Picazo-Bueno & Vicente Micó. (2016) A Novel Marking Reader for Progressive Addition Lenses Based on Gabor Holography. Optometry and Vision Science 93:5, pages 534-542.
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Chelo Ferreira, José L. López, Rafael Navarro & Ester Pérez Sinusía. (2016) Orthogonal basis with a conicoid first mode for shape specification of optical surfaces. Optics Express 24:5, pages 5448.
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HuaZhong Xiang, JiaBi Chen, TianFen Zhu, YeFei Wei & DongXiang Fu. (2015) Theoretical and experimental investigation of design for multioptical-axis freeform progressive addition lenses. Optical Engineering 54:11, pages 115110.
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José A. Gómez-Pedrero, Diego Rodríguez-Ibañez, José Alonso & Juan A. Quirgoa. Design and development of a profilometer for the fast and accurate characterization of optical surfaces. Design and development of a profilometer for the fast and accurate characterization of optical surfaces.
Beatriz Perucho, Jose A. Picazo-Bueno, Carlos Ferreira & Vicente Micó. Manual wavefront holoscopy for inspection and visualization of engraved marks in progressive addition lenses. Manual wavefront holoscopy for inspection and visualization of engraved marks in progressive addition lenses.
Julia Gehrmann, Markus Tiemann & Peter C. Seitz. 3D measurement with active triangulation for spectacle lens optimization and individualization. 3D measurement with active triangulation for spectacle lens optimization and individualization.
Wei Jiang, Weizhu Bao, Qinglin Tang & Hanquan Wang. (2014) A variational-difference numerical method for designing progressive-addition lenses. Computer-Aided Design 48, pages 17-27.
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W. Neil Charman. (2014) Developments in the correction of presbyopia I: spectacle and contact lenses. Ophthalmic and Physiological Optics 34:1, pages 8-29.
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G. Savio, G. Concheri & R. Meneghello. (2012) Progressive lens design by discrete shape modelling techniques. International Journal on Interactive Design and Manufacturing (IJIDeM) 7:3, pages 135-146.
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Ching-Yao Huang, Thomas W. Raasch, Allen Y. Yi & Mark A. Bullimore. (2013) Comparison of Progressive Addition Lenses by Direct Measurement of Surface Shape. Optometry and Vision Science 90:6, pages 565-575.
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Rubén Arroyo, Daniel Crespo & José Alonso. (2013) Influence of the Base Curve in the Performance of Customized and Classical Progressive Lenses. Optometry and Vision Science 90:3, pages 282-292.
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Rubén Arroyo, Daniel Crespo & José Alonso. (2012) Scoring of Progressive Power Lenses by Means of User Power Maps. Optometry and Vision Science 89:4, pages E489-E501.
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Susan C. Han, Andrew D. Graham & Meng C. Lin. (2011) Clinical Assessment of a Customized Free-Form Progressive Add Lens Spectacle. Optometry and Vision Science 88:2, pages 234-243.
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Alan Kwok-Hei Mok, Cindy Sin-Ting Chung & Terence Wai-Keung Kwok. (2011) A simple clinical test for perception of progressive addition lens peripheral image blur. A pilot study. Journal of Optometry 4:1, pages 30-34.
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Miguel Ares, Santiago Royo, Irina Sergievskaya & Jordi Riu. (2010) Active optics null test system based on a liquid crystal programmable spatial light modulator. Applied Optics 49:32, pages 6201.
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Agnieszka Barcik & Damian Siedlecki. (2010) Optical performance of the eye with progressive addition lens correction. Optik 121:21, pages 1937-1940.
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Sergio Ortiz, Damian Siedlecki, Laura Remon & Susana Marcos. (2009) Three-dimensional ray tracing on Delaunay-based reconstructed surfaces. Applied Optics 48:20, pages 3886.
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Yuki Shitanoki, Akihiro Tagaya & Yasuhiro Koike. (2009) Copolymer-Based Progressive Addition Lens with Graded Index Designed for Astigmatism and Distortion Correction. ACS Applied Materials & Interfaces 1:4, pages 907-912.
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Yuki Shitanoki, Akihiro Tagaya & Yasuhiro Koike. (2009) Application of Graded-Index for Astigmatism Reduction in Progressive Addition Lens. Applied Physics Express 2, pages 032401.
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Isabelle Boutron, Caroline Touizer, Isabelle Pitrou, Carine Roy & Philippe Ravaud. (2008) The VEPRO trial: A cross-over randomised controlled trial comparing 2 progressive lenses for patients with presbyopia. Trials 9:1.
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