Rumex International Co. Bridge between innovative technology and perfect surgery Rumex International Company 13770 58th Street North, Suite 317 Clearwater,

Slides:



Advertisements
Similar presentations
VisTor The new Toric IOL by Hanita Lenses
Advertisements

Law of Reflection (Smooth Surface):
L 31 Light and Optics-3 Images formed by mirrors
Lens Cornea Iris Optic Nerve Retina The ‘Normal’ Eye.
Chapter 31 Images.
Chapter 23 Mirrors and Lenses.
Chapter 23 Mirrors and Lenses Conceptual questions: 4,5,10,14,15,17
Unit Ten: The Nervous System: B. Special Senses
Chapter 23 Mirrors and Lenses.
© 2005 Pearson Prentice Hall This work is protected by United States copyright laws and is provided solely for the use of instructors in teaching their.
© 2014 Pearson Education, Inc. This work is protected by United States copyright laws and is provided solely for the use of instructors in teaching their.
Why a new Iol ? To integrate latest surgeons' requirements in terms of : Asphericity Protection against maculopathies Perfect and stable axial positioning.
8. Thin lenses Thin lenses are those whose thickness is small compared to their radius of curvature. They may be either converging or diverging. Example:
Copyright © 2008 Pearson Education Inc., publishing as Pearson Addison-Wesley PowerPoint ® Lectures for University Physics, Twelfth Edition – Hugh D. Young.
Design Realization lecture 26 John Canny 11/25/03.
Chapter 23 Mirrors and Lenses.
7. Optical instruments 1) Cameras
Optics 1----by Dr.H.Huang, Department of Applied Physics
L 33 Light and Optics [3] images formed by mirrors –plane mirrors –curved mirrors Concave (converging) Convex (diverging) Images formed by lenses the human.
Chapter 33 Lenses and Optical Instruments
Chapter 3: Mirrors and Lenses
The new Akreos MI 60 lens Joel Pynson, MD - Director Design Engineering Bausch & Lomb, Toulouse - France London, September 9th 2006.
Guy Kleinmann Kaplan Medical Center, Rehovot, Israel Financial disclosure: Dr. Kleinmann is a consultant for Hanita Lenses, Israel.
Aspheric IOL’s: clinical benefits and customizing cataract surgery Bojan Pajic, MD, PhD, FEBO Swiss Eye Research Foundation, ORASIS, Reinach, Switzerland.
Ruth Lapid-Gortzak MD PhD 1,2, Jan Willem van der Linden BOpt 2, and Ivanka J. van der Meulen MD 1,2 1 Department of Ophthalmology, Academic Medical Center,
Intraocular lenses for small incision surgery
L 33 Light and Optics [3] Measurements of the speed of light  The bending of light – refraction  Total internal reflection  Dispersion Dispersion 
Refractive Lens Exchange. 2 How the eye works Light rays enter the eye through the clear cornea, pupil and lens. These light rays are focused directly.
Copyright © 2009 Pearson Education, Inc. Chapter 33 Lenses and Optical Instruments.
Chapter 18 Mirrors and Lenses Lenses A. Types of Lenses A. Types of Lenses B. Convex Lenses B. Convex Lenses C. Concave Lenses C. Concave Lenses.
How We See Chapter *Light enters the eye through an opening called the pupil. The light is refracted by the lens and cornea and creates an image.
Light Waves Sec 1.
W. A. Maxwell, MD, PhD ASCRS 2008 Comparison of the Optical Image Quality for Presbyopia Correcting IOLs using Modulation Transfer Function Testing W.
Dr. Andrew Tomasch 2405 Randall Lab
Chapter 23 Mirrors and Lenses.
Medical Director - R & D Consultant, Ziemer Group AG, Port, Switzerland Speaker, Bausch & Lomb do Brasil Territory Manager.
Chapter 23 Properties of Light. Section 1: Objectives Use ray diagrams to show how light is reflected or refracted. Compare plane mirrors, concave mirrors,
2 pt 3 pt 4 pt 5pt 1 pt 2 pt 3 pt 4 pt 5 pt 1 pt 2pt 3 pt 4pt 5 pt 1pt 2pt 3 pt 4 pt 5 pt 1 pt 2 pt 3 pt 4pt 5 pt 1pt Vocabulary Reflection and Mirrors.
Geometric Optics. An object inside the focus casts a virtual image that is only focused by the eye.
Optical Density - a property of a transparent medium that is an inverse measure of the speed of light through the medium. (how much a medium slows the.
Rumex International Co. Bridge between innovative technology and perfect surgery Rumex International Company th Street North, Suite 317 Clearwater,
Rumex International Co. Bridge between innovative technology and perfect surgery Rumex International Company th Street North, Suite 317 Clearwater,
1 32 Optical Images image formation reflection & refraction mirror & lens equations Human eye Spherical aberration Chromatic aberration.
Rumex's Advangates Ophthalmic Surgical Instruments Cardiovascular Instruments innovations.
Rumex International Co. Bridge between innovative technology and perfect surgery Rumex International Company th Street North, Suite 317 Clearwater,
Chapter 23, Sections 2 and 3 Mirrors and the Eye.
Human Perception of Light
Chapter 18-2 Lenses.
innovations Rumex International Co. The advantages of instruments by.
L 33 Light and Optics [3] images formed by mirrors
Physics 203/204 4: Geometric Optics Images formed by refraction Lens Makers Equation Thin lenses Combination of thin lenses Aberration Optical Instruments.
AcrySof ® ReSTOR ® Aspheric IOL. Aspheric IOL AcrySof ® ReSTOR ® 2 AcrySof ® ReSTOR ® Aspheric IOL SN6AD3 Add Power: +4 D Spectacle Plane: 3.2 D Range:
Modern Cataract Surgery Professor Ejaz Ansari, FRCOphth MD.
Adapted by T. Trimpe
Presentation RUMEX International Co th Street North, Suite 317 Clearwater, FL Tel | Fax
© 2010 Pearson Education, Inc. When light bends in going from one medium to another, we call this process refraction.
Lenses Properties, Characteristics & Ray Diagrams.
Lens Applications.
Precision with the VisTor IOL Prof. Med. Manfred Tetz ESCRS 2015 Barcelona.
Part 10 Optics --Mirrors and Lenses Chapter 24 Geometric Optics.
Example: What kind of lens must be used, in order to give an erect image 1/5 as large as an object placed 15 cm in front of it? M = -q/p  -q/p=1/5 So.
Refraction & lenses. Types Of Lenses Image Formation via Refraction by thin lenses Thin lenses are those whose thickness is small compared to their radius.
Refraction & Lenses. Refraction of Light When a ray of light traveling through a transparent medium encounters a boundary leading into another transparent.
Lecture 25-1 Locating Images Real images form on the side of a mirror where the objects are, and virtual images form on the opposite side. only using the.
OUR EXPERIENCE WITH PRELOADED IOL CT LUCIA 601P(Y)
Unit 3 Lesson 4 Light Waves and Sight
MI60 INTRAOCULAR LENSES – OUR EXPERIENCE
12.1 Characteristics of Lenses
Unit 3 Lesson 4 Light Waves and Sight
Presentation transcript:

Rumex International Co. Bridge between innovative technology and perfect surgery Rumex International Company th Street North, Suite 317 Clearwater, FL 33760, USA

2 RUMEX Hydrophilic IOLs

3 Material (co-polymer of hydrophilic and hydrophobic monomers) – high level of biocompatibility with a strong matrix, which exhibits excellent folding and unfolding characteristics Angulation 5° eliminates wrinkles&reduces PCO Extreme double-square edge around entire optic periphery - 360° barrier helps to prevent PCO – causing cellular migration Co-Aspheric Minimized glare and unwanted images Water content: 25.5 % +/- 2.0% Not tacky – Lens does not stick to itself or instruments Method of Sterilization: Steam Sterilization at 121 °C No vacuoles or glistening, due to the fact that the lenses are lathe-cut and not molded. Molded lenses trap air which will produce vacuoles and glistening. Hydrophilic IOLs

4 Every human cornea has some level of asphericity, some positive and some negative. Some IOL's are intended to correct one or the other with either positive or negative asphericity on one side of the lens. However, this "one size fits all" approach in many cases leaves too little correction or even over correction which leaves the eye in a worse condition than before. Standard non-aspheric IOL's introduce additional spherical aberrations into the eye. Co-aspheric lenses like Rumex have equal convex and asphericity on both sides of the lens. In this way the eye is neither over nor under corrected, but is left in the natural state without any additional aberrations introduced by the lens itself. For Rumex Hydrophilic IOLs, Center thickness is.51 mm for 10.0 power,.80 for 20.0 power and 1.10 for 30.0 power. The periphery thickness is.25 mm for all powers. Co-Aspheric

5 Optic Size : 6.0 mm Overall Diameter : 12.5 mm Angulation: 5° A-Constant :118 AC -Depth: 4.65 Refractive Index: 1.46 (Hydrated at 35 °C) Min.incision size: 2.2 mm Hydro – Sense Aspheric Diopter range: + 10 D to +30,0 D (0.5D increments from 14.5 D to 24.5 D; 1D increments from 10D to 14D and from 25D to 30D)* * Any lenses below 10.0 D or above 30.0 D are considered custom lenses, can be ordered on request for special price.

6 Material: Natural Yellow Optic Size : 6.0 mm Overall Diameter : 12.5 mm Angulation: 5° A-Constant :118 AC -Depth: 4.65 Refractive Index: 1.46 (Hydrated at 35 °C) Min.incision size: 2.2 mm Filter of blue light Hydro – Sense Aspheric Yellow Diopter range: + 10 D to +30,0 D (0.5D increments from 14.5 D to 24.5 D; 1D increments from 10D to 14D and from 25D to 30D)* * Any lenses below 10.0 D or above 30.0 D are considered custom lenses, can be ordered on request for special price.

7 Hydro – Sense Aspheric Yellow – Natural Yellow lens is superior to other yellow IOL material because it filters out harmful violet rays protecting the retina without blocking needed blue light still allowing some beneficial violet rays to enter, providing complete natural protection without losing contrast sensitivity or color perception. Recent independent investigations have shown that current blue blocking IOLs cause a loss in contrast sensitivity and color perception. There is nothing more natural than using the same chromophore that nature intended when the natural lens must be replaced. Natural Yellow

8 Optic Size : 6.0 mm Overall Diameter : 11 mm Angulation: 5° A-Constant :118 AC -Depth: 4.65 Refractive Index: 1.46 (Hydrated at 35 °C) Min.incision size: 1.8 mm Hydro – 4 Aspheric Diopter range: + 10 D to +30,0 D (0.5D increments from 14.5 D to 24.5 D; 1D increments from 10D to 14D and from 25D to 30D)* * Any lenses below 10.0 D or above 30.0 D are considered custom lenses, can be ordered on request for special price.

9 Double square-edge Double square-edge around entire periphery. Finite Elemental Analysis (FEA) geometry designed to minimize capsular bag stretching, but to conform the optic edge for maximum capsular adhesion.

10 Square-Edge Design Acrylmex material Designed to eliminate capsular bag stretching 6.0 mm optic; 12.5 mm overall Extreme double-square edge around entire optic periphery Bi-Sign Aspheric

11 Posterior Capsular Opacification Prevention Double square-edge design encompasses entire optic periphery, forming a 360° barrier to help prevent PCO-causing cellular migration.

12 Rumex International Company th Street North, Suite 317 Clearwater, FL 33760, USA USA, Canada: Tel: +1 (727) Toll Free: +1 (877) 77 RUMEX Fax: +1 (727) Europe, Asia, Africa, Latin America: Tel: