One Surgeon. One Patient. FLH /11

Similar documents
References. One Surgeon. One Patient. FLM /08

Proven 1-4, Safe Performance. Product overview

ReCap Technical Design Rationale

Vitamin E technology Overview. Locking in Life *

DuraCer. Ceramic Components. The Strong Choice In Ceramics

Joint Replacement Implants Hip Joint Prostheses

Let s Talk. Science... The Science of: > > > Motion13. Wear1. Triathlon. Knee System

Ceramics in Orthopaedic and Neurosurgery. B. Sonny Bal, MD MBA JD PhD University of Missouri-Columbia Amedica Corporation

Trabecular Metal Revision Shell. Surgical Technique IMAGE TO COME. The Best Thing Next to Bone

The information contained in this document is intended for healthcare professionals only.

The Required Mechanical Properties. of Hip and Knee Components

Biodynamics medical technology is the centre of excellence in the area of endoprosthetics and is specialised in joint implants and instruments.

Influence of the diameter and the material type on the contact pressure in the acetabular component of a total hip prosthesis.

vitamys The E-Factor Makes the Difference

THE TRUTH ABOUT HIGHLY CROSSLINKED POLYETHYLENE

Ceramic on XLPE My Choice. Javad Parvizi MD, FRCS Professor Orthopedic Surgery Rothman Institute at Thomas Jefferson Uuiversity

ALTERNATIVE BEARING SURFACES: THE GOOD, BAD & UGLY

The perfect equation for hips

Platelet Concentrate in Total Knees BIOLOGICS. This brochure is for International use only. It is not for distribution in the United States.

SETTING THE STANDARD FOR ORTHOPAEDIC PLASTICS

Highly Crosslinked Polyethylene for Total Hip Arthroplasty. William H Harris, MD, D.Sc

Short Aramid Fibre Reinforced Ultra-High Molecular Weight Polyethylene Composite. A new hip-prosthesis Hofsté, Joanna Maria

CoAxial Spray Kit And Applicator Tips. Simplifying the Application of Platelet and Plasma Concentrate

POLYETHYLENE [UHMW PE]

VERILAST Oxidized Zirconium with XLPE

Has anyone really thought about the requirements for drilling living human bone tissue until now? One simple solution.

Overview of ASTM Subcommittee F04.15 on Material Test Methods Terry O. Woods, Ph.D. FDA Center for Devices & Radiological Health

Advanced Surface Technology

Date July 16, 2015 Court Intellectual Property High Court Case number 2015 (Gyo-Ke) 10002

X-LINKed UHMWPE. The new material from LINK. Materials

SCOPE OF ACCREDITATION TO ISO/IEC 17025:2005. ELEMENT CINCINNATI 3701 Port Union Road Fairfield, Ohio Justin Riebesel Phone:

We report two cases of surface deterioration of a

MEDPOR. Orbital Floor

CONSERVE Total A-CLASS ADVANCED METAL WITH BFH TECHNOLOGY HIP SYSTEM

Volumetric Wear Analysis of Hip Joint Implants by Optical Methods. Matúš Ranuša. Ph.D. Defense Brno, 8th January Doc. Ing. Martin Vrbka, Ph.D.

INDUSTRY OVERVIEW SOURCE OF INFORMATION

HydroSet. Injectable HA Bone Substitute

Safe Harbor Statement

Ceramic Implant Evaluations and OXINIUM Technology Joint Replacement with Oxidized Zirconium Bearing Components

company products development production innovation service customized products co-operation

EasyClip Xpress Sterile staple solution. Operative technique

The Biomechanics of ProLayer Acellular Dermal Matrix: suture retention strength

Biomaterials in Medical device design

HANDLING OF WRIGHT MEDICAL DISPOSABLE PROPHECY TM ANKLE INSTRUMENTS

URGENT: Field Safety Notice. ABGII Modular Stems and ABGII Modular Necks Rejuvenate Modular Stems and Rejuvenate Modular Necks

CHAPTER 5 RETRIEVAL STUDY

Exactech Investor Update

Charles W. Jewett, P.E.

The Orthopaedic Research Laboratory (ORL) performs research in the field of orthopaedics.

Trabecular Metal Technology

Trabecular Metal Acetabular Revision System Cup-Cage Construct

COATING TECHNOLOGIES REVIEW:

This publication is not intended for distribution in the USA. PRODUCT RATIONALE

Saikko, Vesa & Kostamo, Jari RandomPOD - A new method and device for advanced wear simulation of orthopaedic

Hip Joint Tribology. Wear and Wear Mechanisms. Friction and Lubrication. Tribology Testing Using Hip Simulators. Amir Kamali

ZIMMER 5-POINT P O LY E T H Y L E N E. One Source Addresses All The Poly Wear Issues.

REVA s Bioresorbable Scaffold Program Update. Alexandre Abizaid, MD, PhD, FACC Instituto Dante Pazzanese de Cardiologia Sao Paulo, Brazil

An Overview of Silicon Nitride as a Novel Biomaterial

Assessment of Bore-Cone Taper Junctions in Explanted Modular Total Hip Replacements

Mechanical Properties of Hip Joint Heads Made of the Dispersion Ceramic - Alumina Toughened Zirconia

Introduction to Materials Science & Engineering

SilForce* SL6625. Technical Data Sheet. SilForce* SL6625 Release Coating

More than surface deep

Structural Optimization of a Total Replacement Hip Prosthesis

SilForce* SL7562S Solventless Coating

Bioresorbable Scaffold Program Update. Alexandre Abizaid, MD, PhD, FACC Instituto Dante Pazzanese de Cardiologia Sao Paulo, Brazil

MEDICAL HERMETIC DEVICES. Electrical Feedthrus and Windows for Hermetic Medical Applications

SLAM* Technical Data Sheet

OK mill The most reliable and efficient mill for raw and cement grinding

Choice of Test Machines

Mold Design. 12. Mold Materials. Bong-Kee Lee School of Mechanical Engineering Chonnam National University

A Study of Surface Modification on Current Orthopaedic Bioceramics after In Vivo Exposure to the Physiological Environment

Advancing the Open Ventral Hernia Repair Experience

New creative textile construction using innovative braiding technology and materials

Leksell. Vantage Stereotactic System. Advancing stereotactic neurosurgery

Metallurgy 101 (by popular request)

Crystallinity in Polymers. Polymers. Polymer Crystallinity. Outline. Crystallinity in Polymers. Introduction. % crystallinity 100

Title:Implant Based Differences in Adverse Local Tissue Reaction in Failed Total Hip Arthroplasties: A Morphological and Immunohistochemical Study

mediatek mediatek Library and archive shelving systems Taking shelving to the next level BC004.03

Median Sternotomy Closure Utilizing Platelet Concentrate BIOLOGICS

COOLING OF ROLLS USED IN HOT ROLLING OF LONG PRODUCTS

STRING THEORY: AN EXAMINATION OF THE PROPERTIES OF HIGH STRENGTH SUTURE MATERIALS

YOUR VALVE SPECIALIST

CoatingImplants. ResearchEngineer OrchidOrthopedicSolutions

Underfloor Heating System

PharmaCote. Durability, Productivity, Longevity. MKT-01 Issue 8

Strength Characterization of Ceramic Femoral Heads of Total Hip Arthroplasties using a

Interline The next generation chemical tank coating

Weir Specialty Pumps. WEMCO Torque-Flow

Zirconia and alumina ceramics in comparison with stainless-steel heads

TECHNOLOGY FOR THE WELDER S WORLD. ROBO Compact W600 Rugged, powerful & reliable.

Structure of Biological Materials

Experiment 4: Heat Engine Cycle

Soft Solids Research

Uncompromised accuracy in neuroimaging and treatment

Research Article Can Pin-on-Disk Testing Be Used to Assess the Wear Performance of Retrieved UHMWPE Components for Total Joint Arthroplasty?

Wear of Mixed Ceramic-on-Ceramic Hip Replacement Bearings under Adverse Edge Loading Conditions Due to Translational Mal-Positioning

35, rue des Bas-Trévois CS Troyes Cedex - France Tél : +33 (0) Fax : +33 (0) web :

CONNECTOR B L O C K S H E A R. Design for Composite Structural Action BLOCK SHEAR CONNECTOR APPLICATION. Airspace

HIP IMPLANT ANALYSIS WITH CATIA

Transcription:

FLH 219 03/11 This publication has been issued by: European Central Marketing Waterton Industrial Estate Bridgend South Wales CF31 3XA +44 [0] 1656 655221 +44 [0] 1656 645454 Responsible Manufacturer: Biomet Spain Orthopaedics S.L. P.O. Box 96 Calle Islas Baleares 50 46988 Fuente del Jarro Valencia Spain +34.96.137.9500 +34.96.137.9510 www.biomet.com One Surgeon. One Patient.

E1 Tapered Liners Design Rationale

Disclaimer This publication and all content, artwork, photographs, names, logos and marks contained in it are protected by copyright, trademarks and other intellectual property rights owned by Biomet or its affiliates or licensed to Biomet or its affiliates. This brochure must not be used, copied or reproduced in whole or in part for any purposes other than marketing by Biomet or its authorised representatives. For other purposes is prohibited. Biomet does not practice medicine and does not recommend any particular orthopaedic implant or surgical technique for use on a specific patient. The surgeon who performs any implant procedure is responsible for determining and utilising the appropriate techniques for implanting prosthesis in each individual patient. Biomet is not responsible for selection of the appropriate orthopaedic implant or surgical technique, nor does it advocate a particular technique to be utilised on an individual patient. Biomet 2011 E1 is a registered trademark of Biomet UK Ltd.

E1 Tapered Liners Design Rationale Contents Ultra Low Wear 2 Tri Bearing Options 3 Easier Revisions 4 Reduced Cup Inventory 4 Maximised Bearing Diameter 4 Optimal Mobility and Limited Risk of Dislocation 5 Stability 5 Fatigue Resistance 5 Liner Options 6 Ordering Information 7 References 9

E1 Tapered Liners Design Rationale The E1 tapered Liners complement the existing family of low wear hard bearing liner options used with the Exceed ABT taperfit cups. E1 Antioxidant Infused Technology prevents oxidative degradation of the polyethylene, and offers an alternative ultra low wear soft bearing option. The tri-bearing Exceed ABT acetabular platform addresses patients and practice needs by combining technological development in large diameter bearings with clinically proven fixation methods. Ultra Low Wear E1 Antioxidant Infused Technology surpasses the limitations of first generation highly crosslinked polyethylene. This unique technology is the first vitamin E stabilized highly crosslinked polyethylene bearing that has been shown in testing to provide high mechanical strength and true oxidative stability: Ultra low wear rates with large heads: 95 percent wear reduction when comparing 40mm E1 liners with 36mm ArCom liners and 99 percent wear reduction with smaller femoral heads when compared with already low wear rates of ArComXL polyethylene (figure 1 & 2) Volumetric Wear Rate mm 3 /10 6 Cycles 80 70 60 50 40 30 20 10 0 2.7 Clean Conditions Volumetric Wear 5 million cycles on a hip simulator 36mm and 40mm head size 55.4 Fig 1 8.9 72.3 Abrasive Conditions 40mm E1 36mm ArCom* Fatigue strength greater than first generation re-melted HXLPE 1,2,3 Stronger than sequentially crosslinked and annealed materials after an environmental stress cracking (ESC) study 1 60 50 Small Diameter Volumetric Wear 1 5 million cycles on a hip simulator 28mm head size 53.3 True oxidative protection without re-melting: no evidence of measurable oxidation 1 Volumetric Wear Rate mm 3 /10 6 Cycles 40 30 20 29.4 10 0 ArCom Polyethylene* ArComXL 0.24 E1 2 Fig 2

E1 Tapered Liners Design Rationale Tri-Bearing Options The Exceed-ABT acetabular system is a highly versatile multi-bearing platform capable of addressing the needs of both primary and revision hip surgery. The facility to select intra-operatively between C2A- Delta (ceramic), M2A (CoCr) and E1 large diameter bearings optimises implant function in line with clinical requirements and patient activity. Exceed ABT TaperFit Exceed ABT Ringloc-X Standard TaperFit Shell 15 TaperFit Shell 3-Hole Shell Multi-Hole Shell C2A Ceramic Liner E1 Liner M2A Metal Liner E1 Standard Liner E1 High-Wall Liner E1 10 Liner C2A Ceramic Head M2A CoCrMo Head 3

E1 Tapered Liners Design Rationale Easier Revisions The straightforward replacement of cobalt chromium or Biolox Delta ceramic liners with the E1 tapered liners makes revision cases easier, eliminating the need for an acetabular cup replacement. In addition, the 10-degree E1 Liner can be an ideal revision option should the acetabular cup be too vertically positioned. Reduced Cup Inventory If they wish, surgeons willing to use a soft bearing liner can use the Exceed-ABT Taperfit cup instead of the Exceed-ABT Ringloc- X Cup. The E1 line extension will permit hospitals to reduce their Exceed-ABT cup inventory, without having to compromise their choice of optimal bearing options for their patients. Maximised Bearing Diameter E1 tapered liners are made with E1 polyethylene inserts pressed into 1.5mm thick titanium tapered sleeves. A built-in offset (Fig 3) helps maximise the bearing diameter (28, 32, 36mm) without compromising the minimum polyethylene thickness (5.7mm minimum nominal thickness), and therefore without compromising the polyethylene mechanical properties. Fig 3 Fig 3 45 Thickness 4

E1 Tapered Liners Design Rationale Optimal Mobility and Limited Risk of Dislocation The E1 tapered liners have been developed to maximise the patient range of motion (Fig 4). The most critical head/liner/stem implant combinations have been tested and fully satisfy the range of motion performance requirements 4. 180 Internal/External Rotation 115 Abduction/Adduction Angle 135 Flexion/Extension Angle The range of motion has been maximised whilst preserving the femoral head coverage. Between 179 and 181 degrees of head coverage is achieved across the range 5 in order to limit the risk of implant dislocation. Stability Fig 4 Like the Biolox delta ceramic and cobalt chromium liners, the titanium sleeve of the E1 tapered liners solidly locks into the shell thanks to the Ceralock taper interface, technology from Ceramtec. The titanium sleeve has a circumferential retaining groove which prevents micro-motion of the inner E1 liners. The surface finish of the metal back combined with the tight press-fit of the inner E1 liner address risks of component rotation. Fig 5 The E1 tapered liner underwent series of levelout, push-out and torsion-out mechanical tests. It has been demonstrated that the E1 tapered liner provides excellent resistance to mechanical forces and minimises the risk of polyethylene disengagement from its titanium sleeve 6. Fatigue Resistance Rim impingement test (Fig 6) were carried-out by an independent institute. The 2 million cycle test unveiled the absence of cracks, deformation, delamination of the polyethylene subsequent to loading 7. Fig 6 Biolox and Ceralock are Ceramtec Brands 5

E1 Tapered Liners Design Rationale Liner Options Additional Lateralisation The E1 tapered liners are available in bearing sizes 28, 32 and 36mm in standard and 10-degree configurations. The 10-degree liners address vertically positioned acetabular shells, and help restore the biomechanics of the hip. Compared with the standard liner, It provides an additional 10-degree inclination/version depending upon placement of the liner in the cup. The Femoral head is therefore lateralised in comparison to the standard E1 tapered liners (Fig 7). The 10-degree liner has a radiolucent pin to check the correct rotational position of the liner inside the acetabular shell. Note: The 10-degree liner cannot be used in conjunction with the Exceed ABT Taperfit 15-degree shell. Standard E1 Tapered Liner 10 E1 Tapered Liner Fig 7 6

Ordering Information Implants Size (mm) Ø46 Ø48 Ø50 Ø52 Ø54 Ø56 Ø58 Ø60 Ø62 Ø64 Ø66 Ø68 Ø70 E1 tapered Liners* Ø28 Ø32 Ø36 Std 10 Std 10 Std 10 E1-002837 E1-102837 E1-003239 E1-103239 E1-003644 E1-103644 E1-003648 E1-103648 E1-003652 E1-103652 *The colours correspond to those on the shell, liner labels and related trial liners. Exceed ABT Taperfit Acetabular Components Size (mm) Standard TaperFit Shells PC HA/PC BM/PC Size (mm) 15 Degree TaperFit Shells PC HA/PC BM/PC Ø46 123746 123746HA 123746BM Ø48 123748 123748HA 123748BM Ø50 123950 123950HA 123950BM Ø52 123952 123952HA 123952BM Ø54 124454 124454HA 124454BM Ø56 124456 124456HA 124456BM Ø58 124858 124858HA 124858BM Ø60 124860 124860HA 124860BM Ø62 125262 125262HA 125262BM Ø64 125264 125264HA 125264BM Ø66 125266 125266HA 125266BM Ø68 125268 125268HA 125268BM Ø70 125270 125270HA 125270BM Ø46 233746 233746HA 233746BM Ø48 233748 233748HA 233748BM Ø50 233950 233950HA 233950BM Ø52 233952 233952HA 233952BM Ø54 234454 234454HA 234454BM Ø56 234456 234456HA 234456BM Ø58 234858 234858HA 234858BM Ø60 234860 234860HA 234860BM Ø62 235262 235262HA 235262BM Ø64 235264 235264HA 235264BM Ø66 235266 235266HA 235266BM Ø68 235268 235268HA 235268BM Ø70 235270 235270HA 235270BM *The colours correspond to those on the shell and liner labels. 7

Ordering Information Instruments Product Description Order Code 1 Exceed-ABT E1 Tapered Trial Liners Complete Set E1-100000 1 Exceed-ABT E1 Tapered Trial Liners Empty Case E1-100001 1 E1 Tapered Trial Liner 0-28/37 E1-002837T 1 E1 Tapered Trial Liner 0-32/39 E1-002839T 1 E1 Tapered Trial Liner 0-36/44 E1-003644T 1 E1 Tapered Trial Liner 0-36/48 E1-003648T 1 E1 Tapered Trial Liner 0-36/52 E1-003652T 1 E1 Tapered Trial Liner 10-28/37 E1-102837T 1 E1 Tapered Trial Liner 10-32/39 E1-103239T 1 E1 Tapered Trial Liner 10-36/44 E1-103644T 1 E1 Tapered Trial Liner 10-36/48 E1-103648T 1 E1 Tapered Trial Liner 10-36/52 E1-103652T 8

References 1. Data on file at Biomet. Bench test results not necessarily indicative of clinical performance. 2. Wannomae, K. Environmental Stress Cracking of Two-Tocopherol Doped, Irradiated UHMWPEs and Two Contemporary UHMWPEs. Report Provided by the Orthopaedic Biomechanics and Biomaterials Laboratory at Massachusetts General Hospital. January 12, 2007. 3. Bhambri S., et al. The effect of aging on mechanical properties of melt-annealed highly crosslinked UHMWPE. Crosslinked and Thermally Treated Ultra-High Molecular Weight Polyethylene for Joint Replacements. 171-82, 2004.2004 4. Data on file at Biomet; Report E1 tapered Ensayo Rango Movimiento Angular 200804 5. Data on file at Biomet; Report E1 tapered Head coverage angle 200804 6. Data on file at Biomet; Report E1 tapered Level-out, Push-out, torsional test LE-061SO/ 7. Data on file at Biomet: Report E1 tapered liner Rim Impingement test Instituto de Biomecanica de Valencia 9

10 Notes

Notes 11