Bone Void Filler. Callos. The Next Generation in Calcium Phosphate Cement A COLSON ASSOCIATE

Similar documents
Calcium Phosphate Cement

Indications. Neuro Surgery. Plastic Surgery. ENT Surgery. Oral Maxillofacial Surgery

Callos Bone Void Filler

The injectable, self-setting calcium phosphate bone graft substitute.

CALLoSr. Calcium Phosphate Cement

Calcium Phosphate Bone Void Filler TECHNIQUE GUIDE

CERAMENT BONE VOID FILLER

Surgical Technique Guide. Impact & Inject Formulations

ADVANCED BONE GRAFT SYSTEM OVERVIEW

Bone Grafting and Bone Graft Substitutes. Original Author: James Krieg, MD Revision Author: David Hak, MD Last Revision May 2010

Clinical. Solutions. Synthes Solutions. Foot and Ankle.

Effective combination of bone substitute and screws in the jail technique: a biomechanical study of tibial depression fractures

FLT105 12/02.

2.4 mm Variable Angle LCP Volar Extra-Articular Distal Radius System. For fragment-specific fracture fixation with variable angle locking technology.

POWER TO RESTORE WITHOUT LEAVING A TRACE. The only remaining evidence of the trauma

NEW FIXATION STRATEGIES FOR OSTEOPOROTIC BONE

Drillable Fast Set Putty

chronos Inject. Synthetic Bone Substitute Injectable, Osteoconductive, Resorbable.

chronos Bone Void Filler. Beta-Tricalcium Phosphate ( β-tcp) bone graft substitute.

Graftys. Cross-selling. Indications. Comparison. Basic Science. Graftys 415 rue Claude Nicolas Ledoux Aix en Provence Cedex 4

AxSOS Locking Plate System

HydroSet. Fast-setting HA bone substitute

Radiology Case Reports. Bone Graft Extruded From an Intramedullary Nail Tract in the Tibia. Penelope J. Galbraith, M.D., and Felix S. Chew, M.D.

Technique Guide. 3.5 mm LCP Proximal Tibia Plate. Part of the Synthes Small Fragment LCP System.

ctive Bone Bonding Bone Regeneration Osteostimulation*

Knee spanning solutions

Surgical Technique. Anterolateral and Medial Distal Tibia Locking Plates

Dieter Marquardt Medizintechnik GmbH 08 Cannulated Screws

Inion BioRestore. Bone Graft Substitute. Product Overview

Drillable. Fiber reinforced calcium phosphate bone void filler. Surgical Technique

Surgical Technique. 3.5mm and 4.5mm Lateral Proximal Tibia Locking Plates

Locking Plate System. Operative Technique. Distal Anterolateral Tibia Distal Medial Tibia

CASE STUDY: PRO-DENSE Injectable Regenerative Graft Used to Backfill a Bone Cavity Following Resection of a Giant Cell Tumor

Norian Drillable: A Competitive Analysis

Technique Guide. chronos Strip. Osteoconductive betatricalcium phosphate ( -TCP) composite.

AxSOS Locking Plate System

Perfect partner for your infection management strategy

LCP Medial Proximal Tibial Plate 3.5. Part of the Synthes small fragment Locking Compression Plate (LCP) system.

THE NEXT FRONTIER OF BONE REGENERATION. where Technology meets Nature

ANATOMIC LOCKED PLATING SYSTEM

PFNA. With Augmentation Option.

LCP Extra-articular Distal Humerus Plate.

THE NEXT FRONTIER OF BONE REGENERATION. where Technology meets Nature

CELLPLEX TCP SYNTHETIC CANCELLOUS BONE

Orthopedic & Sports Medicine, Bay Care Clinic, 501 N. 10th Street, Manitowoc, WI Procedure. Subtalar arthrodesis

The aim of this study was to evaluate prospective patients with periarticular fractures where a metaphyseal

Locking Ankle Plating System. Surgical Technique

The Outcome of Bone Substitute Wedges in Medial Opening High Tibial Osteotomy

Large External Fixator Delta Frame Ankle Bridge. For staged fixation of the distal tibia.

AxSOS Targeting System

CRANIAL RECONSTRUCTION SOLUTIONS

BIOACTIVE SYNTHETIC GRAFT

B U I L D S T R O N G B O N E F A S T

LCP Medial Proximal Tibial Plate 4.5/5.0. Part of the Synthes LCP periarticular plating system.

Increasing surgical freedom Restoring patient function

NEXGEN COMPLETE KNEE SOLUTION S A. Tibial Stem Extension & Augmentation Surgical. ATechnique

Advice sheet for Surgeons and Radiologists. Radiographic appearance of CERAMENT

BONE void FILLER. Beta-tricalcium phosphate ( b-tcp) bone graft substitute. OvERvIEW BROCHURE

Elbow System Anatomy:

Metha Short Hip Stem System

Carpal Tunnel Ligament Release

SpeedTip CCS 2.2, 3.0

BonAlive Clinical Cases

PFNA. With Augmentation Option.

TOTAL KNEE ARTHROPLASTY (TKA)

Carpal Tunnel Ligament Release

CALCIUM-BASED NEUTRAL AND BIORESORBABLE SELF-SETTING INJECTABLE BONE PUTTY. Ping Luo and Kenneth Trauner* Berkeley Advanced Biomaterials, Inc.

In Vivo Evaluation of BioSphere Bioactive Bone Graft Putty: Improved Bone Formation

Void Fillers: White Paste or Bone

Index. Note: Page numbers of article titles are in boldface type. Hand Clin 21 (2005)

A locking plate system that expands a surgeon s options in trauma surgery. Zimmer NCB Plating System

Medical Devices DYNAMIC MULTIAXIAL FIXATOR

Carpal Tunnel Ligament Release

4/28/2010. Fractures. Normal Bone and Normal Ossification Bone Terms. Epiphysis Epiphyseal Plate (physis) Metaphysis

Surgical Technique. Cannulated Angled Blade Plate 3.5 and 4.5, 90

Tibial plateau fractures are common injuries that result from

OssiMend Bone Graft Matrix

Hoffmann II Micro External Fixation System. Indications for the Hand

Isolated Subtalar or Talonavicular Fusion Has Failed. Now What?

Surgical Technique. Targeter Systems Overview

Arthrex Open Wedge Osteotomy Technique Designed in conjunction with:

Carpal Tunnel Ligament Release

Made to make a difference

AcUMEDr. BIoTRAKt Resorbable Pin

Calcium Phosphate Cement Augmentation of the Femoral Neck Defect Created After Dynamic Hip Screw Removal

Spine A Preliminary Study of the Efficacy of Beta-Tricalcium Phosphate as a Bone Graft Expander for Instrumented Posterolateral Fusions

General Concepts. Growth Around the Knee. Topics. Evaluation

Conventus CAGE PH Surgical Techniques

Regeneration Bone Grafting & Soft Tissue Management

Flower Opening Wedge Plate

Hybrid Fixator Proximal Tibia Frame. Using rings with clamps.

Graftys Quickset & Graftys HBS use in plateau tibial fracture

3.0/3.5/4.0/4.5/6.5/7.0/7.3. Cannulated Screws. Surgical Technique

Ankle and subtalar arthrodesis

PRO-STIM Injectable Inductive Graft TECHNICAL MONOGRAPH

Trabecular Metal Acetabular Revision System Buttress and Shim Augments Surgical Technique

Lawrence A. DiDomenico, DPM, FACFAS

LISS DF and LISS PLT. Less Invasive Stabilization Systems for Distal Femur and Proximal Lateral Tibia.

OptiLock Periarticular Plating System For Distal Tibial Fractures. Surgical Technique

Biomet Large Cannulated Screw System

Transcription:

Callos Bone Void Filler The Next Generation in Calcium Phosphate Cement A COLSON ASSOCIATE

Callos Calcium Phosphate Cement Callos is a high performance next generation calcium phosphate cement indicated for filling bony defects in cancellous bone. This material was designed to overcome the limitations of the first calcium phosphate cements. First generation cements had good compression strength, but were weak in tension, flexural strength and fracture toughness, which combined with poor handling properties, have limited their use in fracture fixation. Callos is available in two forms: Callos Impact moldable cement Callos Inject injectable cement Advantages Biocompatible Allows for natural bone remodeling, or healing, while still maintaining the strength of cancellous bone Callos Impact Easy to mix and deliver with supplied mixing system Fast, hard-setting; approximately 5 minutes at 37 C in wet environment Immediate higher compressive strength than cancellous bone Can be drilled and inserted with screws May be implanted before or after hardware allowing surgeons to maintain their standard surgical technique and allowing precise cement and hardware placement Can be mixed with autograft as autograft extender Callos Inject

Clinical Applications Simple voids in metaphyseal bone, (small tumors, cysts, defects) Traumatic fractures that result in bone voids in metaphyseal areas Fractures of the: Distal Radius (Colles) Proximal Humerous Pelvic Bone Proximal Femur (Intertroch, Femoral Neck) Distal Femur Tibial Plateau Tibial Pilon Calcaneus Osteotomies (Distal Radius, Tibial Plateau) All Oncological applications Revision Total Joints Iliac Crest back fill Autograft extender

Science Drillable Osteoconductive Scaffold Composition Bone remodeling is the healing process whereby old bone is naturally removed and replaced with new bone. Callos is similar in composition to the mineral phase of bone. A calcium phosphate starting powder is reacted with diluted silicate liquid, and undergoes a non-exothermic chemical reaction to form low crystalline hydroxyapatite, which hardens in vivo to create an Osteoconductive scaffold. Bony ingrowth occurs through the same cell mediated process as the patient s natural bone remodeling. Callos is optimal as a filler for metaphyseal defects due to its high immediate mechanical strength and ability to maintain that strength long term throughout the healing process. Patterns show X-ray diffraction showing Callos and bone have the same chemical and crystalline composition. Histology Histology analysis demonstrated that Callos is highly biocompatible and osteoconductive. Histological sections were examined following four weeks and six months in vivo and showed extensive bone apposition with no adverse tissue reaction. Normal bone remodeling by localized osteoclastic, cell mediated resorption coupled with new bone formation within the implanted area was a consistent finding in areas implanted with Callos. Figure 1 Femoral specimen implanted with bone cements after one month. Formation of several Haversian canals were observed in and around the implanted region. (Trichrome staining) Figure 2 Femoral Specimen implanted with Callos after six months at low (left) and high (right) magnification. Mature Haversian canals were seen in areas where Callos was originally implanted. (HE staining)

Biomechanical Analysis A clinically relevant understanding of long-term strength of defects treated with calcium phosphate bone void fillers (or any other bioactive material) are appropriately evaluated only in vivo. An in vivo biomechanical study was performed at four weeks and six months postimplantation to assess the in vivo strength of cancellous bone defects treated with Callos bone void filler during replacement by native cancellous bone. Callos is radiopaque and is visible under flouroscopy to allow proper placement of hardware and to ensure the cancellous defect has been completely filled. Callos can be drilled and inserted with a screw to optimize use of the combination of hardware Load (Newton) 350 300 250 200 150 100 50 0 278 Callos 4 weeks and cement, essential in treating periarticular fractures. Callos Impact can accept hardware after a setting time of 6 minutes in vivo, and Callos Inject can accept 311 Callos 6 months 130 Bone (Control) An in vivo study shows Callos maintains strength above cancellous bone as it gets remodeled. hardware after setting a time of 10 minutes in vivo. Callos should be drilled only with fluted bits or screws. Remodeling Case Study Pre-op shows the calcaneus void after fracture Post-op image shows the amount of Callos implanted. Remodeling of Callos is evidenced by reduction in density of the implanted area. As material continually remodels, radiographic evidence of the implanted area returning to trabecular structure.

Indications and Case Trauma Tibial Plateau Fracture Pre-op CT shows low energy Tibial Plateau fracture Post-op X-ray shows the fixation by plating and Callos implantation Distal Radius Fracture Pre-op X-ray showing on extra-articular fracture. Lateral view shows Callos implantation in both dorsal and volarside of distal radius. Post-op image of implantation of Callos with K-wires. Calcaneus Fracture Post-op lateral image of calcaneus shows fixation with plate and Callos. 10cc Implant Post-op AP view shows the location of implanted Callos. 10cc Implant

Studies any body copy? Total Joint Revision Pre-op view shows extensive osteolysis in both compartments of tibial bone underneath the tibial tray. Intra-op view of filling the bony voids with Callos. Post-op view of Callos implant and new total knee joint has been inserted. Oncology Pre-op MRI view of atypical bone cyst. Post-op radiograph shows complete filling of the defect in calcaneus. Giant cell tumor of tibia. Radiographic view shows complete filling with Callos. Approximately 80cc of material was used.

Ordering Information CALLOS INJECT CALL-0003 Callos Inject (MX), 3cc Rotary Mixer configuration CALL-0005 Callos Inject (MX), 5cc Rotary Mixer configuration CALL-0010 Callos Inject (MX), 10cc Rotary Mixer configuration Inject Contents: Callos Mixer System (Mixer, Plunger, & Syringe), Cannula, Callos Inject Powder and Liquid Set CALLOS IMPACT CALL-0105 Callos Impact (MX), 5cc Rotary Mixer configuration CALL-0110 Callos Impact (MX), 10cc Rotary Mixer configuration Impact Contents: Callos Mixer System (Mixer, & Spatula), Callos Impact Powder and Liquid Set References 1. Improved Flexural Strength of a Novel Craniomaxillofacial Cement Lin, J; Yetkinler, D N; Delaney, D; Nguyen, H; Constantz, B R Orthopaedic Research Society Transactions Vol.30, Washington, D.C., 2005 2. Optimization of the Osteoinductiveness and Mechanical Properties of Calcium Phosphate Bone Cement using Demineralized Bone Matrix Banki, P; Karkar, V; Somayaji, S Orthopaedic Research Society Transactions Vol.29, San Francisco, California, 2004 3. In Vitro and In Vivo Evaluation of Two Calcium Phosphate Cements Yetkinler, D N; Delaney, D; Constantz, B R Orthopaedic Research Society Transactions Vol.29, San Francisco, California, 2004 4. Increased Fracture Toughness Improves Clinical Utility of a Novel Calcium Phosphate Cement Lin, J; Lee, WJ; Yetkinler, DN; Constantz, BK; Orthopaedic Research Society Transactions Vol. 31, Chicago, Illinois 5. Lateral Tibial Plateau Fracture Split Depression Fracture Repairs Augmented with Calcium Phosphate Cement Have Higher In Situ Fatigue Strength than those with Autograft. McDonald E, Chu T, Tufaga M, Marmor M, Singh R, Yetkinler D, Matityahu A, Buckley JM, McClellan RT. Journal of Orthop Trauma, 2011;25(2):90-5. 6. Calcium Phosphate Cements Improve Bone Density When Used in Osteoporotic Sternums Muehrcke, DD; Shimp, Aponte-Lopez, WM Annuals of Thoracic Surgery, 2009; 88:1658-61 7. Hydroxyapatite cement resistant to fragmentation following full cerebrospinal fluid bathing Muhonen MG, Lonyai A, Westhout FD. Journal of Craniofacial Surgery. 2008. 19(1): 283-6. 8. Biomechanical Evaluation of a 1-Stage Revision Anterior Cruciate Ligament Reconstruction Technique Using a Structural Bone Void Filler for Femoral Fixation Vaughn Z, Schmidt J, Lindsey D, Dragoo J. Journal of Arthroscopic and Related Surgery, 2009;25:1011-1018 9. In vivo assessment of Callos/OsteoVation calcium phosphate cement containing autologous bone S. Jalota, D. C. Delaney and D.N. Yetkinler; Annual Meeting, Society for Biomaterials, April 21 25, 2010, Seattle, WA. A COLSON ASSOCIATE Skeletal Kinetics LLC 10201 Bubb Road Cupertino, CA USA 95014 408.366.5000 www.skeletalkinetics.com LBL 10208 Rev AD