Refractive Lens Surgery

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References 1. Fisher RF (1973) Presbyopia and the changes with age in the human crystalline lens. J Physiol (Lond) 228:765–779 2. Koretz JF, Handelman GH (1986) Modeling age-related accommodative loss in the human eye. Math Modelling 7:1003–1014 3. Schachar RA (1994) Zonular function: a new model with clinical implications. Ann Ophthalmol 26:36–38 4. Duane A (1925) Are the current theories of accommodation correct? Am J Ophthalmol 8:196–202 5. Tamm E, Lütjen-Drecoll E, Jungkunz E et al (1991) Posterior attachment of ciliary muscle in young, accommodating old, and presbyopic monkeys. Invest Ophthalmol Visual Sci 32: 1678–1692 6. Croft MA, Kaufman PL, Crawford KS et al (1998) Accommodation dynamics in aging rhesus monkeys. Am J Physiol 275 (Regulatory Integrative Comp Physiol 44):R1885– R1897 7. Atchison DA (1995) Accommodation and presbyopia. Ophthal Physiol Opt 15:255–272 8. Hara T, Hara T, Yasuda A et al (1990) Accommodative intraocular lens with spring action, part 1. Design and placement in an excised animal eye. Ophthalmic Surg 21:128–133 9. Gilmartin B (1995) The aetiology of presbyopia: a summary of the role of lenticular and extralenticular structures. Ophthal Physiol Opt 15:431–437 10. Cumming JS, Slade SG, Chayet A, AT-45 Study Group (2001) Clinical evaluation of the model AT-45 silicone accommodating intraocular lens: results of feasibility and the initial phase of a Food and Drug Administration clinical trial. Ophthalmology 108:2005–2009 Chapter 12 Synchrony IOL 121 11. Kuechle M, Nguyen NX, Langenbucher A et al (2002) Implantation of a new accommodating posterior chamber intraocular lens. J Refract Surg 18:208–216 12. Pieh S, Marvan P, Lackner B et al (2002) Quantitative performance of bifocal and multifocal intraocular lenses in a model eye. Point spread function in multifocal intraocular lenses. Arch Ophthalmol 120:23–38 13. El Hage SG,Le Grand Y (1980) Physiological optics, vol 13. Springer series in optical sciences. Springer, Berlin Heidelberg New York, pp 64–66 14. McLeod SD, Portney V, Ting A (2003) A dual optic accommodating foldable intraocular lens. Br J Ophthalmol 87:1083–1085 15. Dick HB, Kaiser S (2002) Dynamic aberrometry during accommodation of phakic eyes and eyes with potentially accommodative intraocular lenses. Ophthalmologe 99:825–834 16. Dick HB (2005) Accommodative intraocular lenses: current status. Curr Opin Ophthalmol 16:8–26 17. Vargas LG,Auffarth GU, Becker KA et al (2004) Performance of the accommodative 1 CU IOL in relation with capsulorhexis size. J Refract Surg (in press) 18. Schmidbauer JM, Vargas LG, Apple DJ et al (2002) Evaluation of neodymium:yttrium-aluminum-garnet capsulotomies in eyes implanted with AcrySof intraocular lenses. Ophthalmology 109:1421–1426
13 CORE MESSAGES Sarfarazi Elliptical Accommodative Intraocular <strong>Lens</strong> Faezeh Mona Sarfarazi 2 The elliptical accommodative intraocular lens (EAIOL) is a unique approach that utilizes two optics connected by three haptics. The optical design includes an anterior optic that is biconvex (plus lens) and a posterior optic that is a concave convex (minus lens). 2 The haptics are uniquely designed to serve a dual function. First, they are elliptically shaped to conform to the natural shape of the capsule to correctly position and center the optics. Second, the haptics provide the resistance force necessary to separate the two optics. 2 This single-piece silicone lens is designed to achieve accommodation through the natural contraction/relaxation of capsule by the ciliary muscle. 2 The primary objective of this research was to determine whether the EAIOL could effect significant changes in optical power in the monkey eye. 2 <strong>Lens</strong> design and mold were developed to match the size and characteristics of monkey eyes. 2 This lens, when tested in primates, induced 7–8 diopters of accommodation. 2 A clinical study in humans began in 2004.
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Refractive Lens Surgery I. H. Fine
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Editors I. Howard Fine, MD Mark Pac
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Preface The first recorded time a h
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X Contents Chapter 14 AcrySof ReSTO
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Contributors Jorge L. Alio, MD, PhD
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1 The Crystalline Lens as a Target
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2 CORE MESSAGES Refractive Lens Exc
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na that have been observed with som
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piration through two separate incis
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6 R.S. Hoffman · I.H. Fine · M. P
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8 R.S. Hoffman · I.H. Fine · M. P
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10 R.S. Hoffman · I.H. Fine · M.
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12 M. Packer · I.H. Fine · R.S. H
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22 J.T. Holladay 4.1 Introduction T
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24 J.T. Holladay but only seven pre
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26 J.T. Holladay from morning to ni
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28 J.T. Holladay 4.3.2.2.3 Corneal
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30 J.T. Holladay rienced this condi
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32 J.T. Holladay many of these pati
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34 J.T. Holladay IOL eRx V 1336 =
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36 J.T. Holladay raised. A more tho
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38 J.T. Holladay rior segment laser
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40 D.D. Koch · L.Wang corneal refr
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42 D.D. Koch · L.Wang Table 5.1. M
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44 D.D. Koch · L.Wang Fig. 5.4. Nu
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46 D.D. Koch · L.Wang Fig. 5.5. Ce
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48 D.D. Koch · L.Wang ∑ Double-K
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50 L.D. Nichamin surgeon the abilit
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52 L.D. Nichamin Table 6.1. The Nic
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54 L.D. Nichamin 3.2 mm, its neglig
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56 L.D. Nichamin Fig. 6.4. The Nich
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58 L.D. Nichamin References 1. Anon
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60 S. Bylsma aphakic state. In cont
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62 S. Bylsma length),underwent full
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64 S. Bylsma K-Astigmatism
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Page 82 and 83: 68 S. Bylsma about the dynamics at
Page 84 and 85: 8 Correction of Keratometric Astigm
Page 86 and 87: Fig. 8.2. AcrySof toric IOL implant
Page 88 and 89: Fig. 8.3. Mean absolute residual cy
Page 90 and 91: References 1. Hoffer KJ (1980) Biom
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Page 98 and 99: 10 The Eyeonics Crystalens Steven J
Page 100 and 101: Fig. 10.3. Under binocular conditio
Page 102 and 103: Fig. 10.6. Anterior movement of the
Page 104 and 105: Fig. 10.7. One- and 3-year data fro
Page 106 and 107: 10.6 Postoperative Considerations C
Page 108 and 109: 10. Dell SJ (2004) Objective eviden
Page 110 and 111: 100 N.X. Nguyen · A. Langenbucher
Page 122 and 123: 12 CORE MESSAGES Synchrony IOL H. B
Page 124 and 125: Fig. 12.1. The single-piece silicon
Page 126 and 127: 12.5 Clinical Results Clinical tria
Page 128 and 129: Fig. 12.6. Retroillumination photog
Page 132 and 133: 124 F.M. Sarfarazi 13.1 The Nature
Page 134 and 135: 126 F.M. Sarfarazi Fig. 13.4. Lens
Page 136 and 137: 128 F.M. Sarfarazi Fig. 13.5. Mecha
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Page 142 and 143: 134 F.M. Sarfarazi Fig. 13.18. Work
Page 144 and 145: 136 F.M. Sarfarazi References 1. Ma
Page 146 and 147: 138 A. Mirshahi · E.Terzi · T. Ko
Page 152 and 153: 15 The Tecnis Multifocal IOL Mark P
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Page 156 and 157: Fig. 15.4. Multifocal vs. monofocal
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Page 160 and 161: Fig. 16.2. Cultured human RPE cells
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Page 170 and 171: Fig. 17.2 a-c. Cross-sectional sche
Page 172 and 173: 17.4 Animal Studies Dr. Nick Mamali
Page 174 and 175: Fig. 17.8. A laser interferogram (l
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174 S. Norrby Fig. 18.1. Small cale
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176 S. Norrby Fig. 18.3. Scheimpflu
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178 S. Norrby Fig. 18.4. Schematic
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180 S. Norrby there was fibrin form
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182 S. Norrby material had a Young
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184 S. Norrby Koopmans et al. [28]
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186 S. Norrby 40. De Groot JH, Zuru
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188 L. Nordan · M. Morris regular
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190 L. Nordan · M. Morris produce
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20 CORE MESSAGES Bimanual Ultrasoun
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for an irrigating manipulator or ch
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5. Tsuneoka H, Shiba T, Takahashi Y
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200 J.L. Alio · A. Galal · J.-L.R
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22 CORE MESSAGES The Infiniti Visio
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Fig. 22.3. The AquaLase handpiece u
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23 CORE MESSAGES The Millennium Ros
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Fig. 23.1. Bausch & Lomb’s new cu
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Fig. 23.2. Advanced flow system car
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Fig. 23.5. Pulse or burst mode with
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24 CORE MESSAGES The Staar Sonic Wa
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Fig. 24.2. The tip undergoes compre
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the sonic tip moves back and forth
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25 CORE MESSAGES AMO Sovereign with
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Fig. 25.3. Schematic diagram of cav
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the Sovereign Compact (see Fig. 25.
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234 M. Packer · R.S. Hoffman · I.
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27 Conclusion: The Future of Refrac
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240 Subject Index Contrast sensitiv
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242 Subject Index P Pachymetry 53,
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