Surgical Technique & Ordering Information



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Surgical Technique & Ordering Information

D E S I G N I N G S U R G E O N S Curtis A. Dickman, MD Associate Chief of Spine Surgery Director of Spinal Research Barrow Neurological Institute Phoenix, Arizona Jeffrey S. Fischgrund, MD Orthopaedic Surgeon William Beaumont Hospital Royal Oak, Michigan Michael G. Fehlings, MD, Ph.D., FRCSC Professor of Neurosurgery Krembil Chair University of Toronto, Medical Director Krembil Neuroscience Center Toronto Western Hospital, University Health Network Toronto, Canada Michael W. Groff, MD Director of Spinal Surgery Department of Neurological Surgery Indiana University Indianapolis, Indiana Robert F. Heary, MD Professor of Neurological Surgery Program Director of Neurological Residency Training Program UMDNJ, New Jersey Medical School Newark, New Jersey Mark E. Shaffrey, MD Professor Department of Neurological Surgery University of Virginia Health System Charlottesville, Virginia

I N T R O D U C T I O N The SKYLINE Anterior Cervical Plate provides a versatile system of implants and instruments to accommodate the needs and individual preferences of surgeons. The system offers optimal visualization, adapts to the anatomy of the patient, and instills the confidence afforded through proven technology. Note: The described technique presents only a few of the many approaches to stabilization of the anterior cervical spine. The surgeon is encouraged to utilize the SKYLINE Anterior Cervical Plating System with those techniques that most favor the desired surgical result. C O N T E N T S System Description...2 Operative Technique...3 Screw Length/Color Chart...5 Other Instruments...11 Plate Removal/Screw Removal...13 Ordering Information...14-20 1

SYSTEM DESCRIPTION The SKYLINE Anterior Cervical Plate System is designed for use in a variable, constrained, or hybrid screw configuration. Implant & Instrument Versatility Constrained screws provide up to 5 of angulation in the coronal plane while maintaining sagittal alignment of the screw. This flexibility allows for easier placement of the screw without affecting the stability of the construct. Variable screws provide up to 20 of angulation. Self-drilling, self-tapping and oversized screws. Multiple drill guide and hole preparation options. Optimized Plate Design Thickness = 2.5 mm Width = 16 mm Waist = 14 mm Plates are pre-lordosed, reducing the need for contouring. Unique window design allows for optimal visualization of the graft, vertebral bodies, and endplates. Clinically Proven Technology Tri-Lobe CAM LOC mechanism provides audible, palpable, and visual confirmation of screw lock. 2

OPERATIVE TECHNIQUE Figure 1 STEP 1: SITE PREPARATION Perform disc excision and spinal decompression using standard surgical technique (Figure 1). Insert appropriate graft such as VG2 Cervical Allograft and HEALOS Bone Graft Replacement. Care should be taken to perform appropriate soft tissue dissection and to remove anterior osteophytes to provide optimal bone-plate interface. When satisfied with the graft position, remove all bone distraction instruments. Figure 2 STEP 2: PLATE SIZE SELECTION The SKYLINE Anterior Cervical Plates are available in lengths from 1 to 5 levels ranging from 12 to 105 mm. Measurements are taken from the center hole of the cephalad level to the center hole of the caudad level. Using the plate holder, position the appropriate plate on the vertebral column to confirm its suitability (Figure 2). When the plate is properly sized and positioned. The superior screw holes should align with the inferior 1 /3 of the superior vertebral body. The inferior screw holes should align with the superior 1 /3 of the inferior vertebral body. 3

OPERATIVE TECHNIQUE Figure 3A STEP 3: PLATE CONTOURING The SKYLINE Anterior Cervical Plates are pre-lordosed. Additional contouring may be accomplished by inserting the plate into the plate bender (Figure 3A) and squeezing the handles. The SKYLINE Anterior Cervical Plate is provided with bend zones and may not be bent across the CAM LOC mechanism (Figure 3B). Use only the SKYLINE Plate Bender to bend the plate. Figure 3B Plates should be bent in one direction, kyphosis or lordosis only. Never reverse the bend as this may create micro fractures that will weaken the plate. ` Short plates of each level do not have bend zones and therefore cannot be bent. Figure 4 STEP 4: POSITION PLATE AND INSERT TEMPORARY FIXATION PINS Using the plate holder, re-position the plate on the vertebral bodies. Insert a temporary fixation pin, available in both straight and threaded shaft options, into one of the cephalad and one of the caudad screw bores of the plate (Figure 4). Fluoroscopy may be used to confirm alignment of the plate in both planes. 4

Figure 5 VARIABLE CONSTRAINED 14mm Self-Tapping STEP 5: SCREW SELECTION The SKYLINE Anterior Cervical Plate System offers two options for screw kinematics, variable or constrained. The variable screw offers a 20 cone of angulation. The constrained screw maintains its sagittal trajectory while allowing up to 5 of angulation in the coronal plane. Screws are available in self-drilling, self-tapping, and oversized configurations. The screws are color-coded to denote screw kinematics, length, and diameter as illustrated in Figure 5 and the following chart. The screw length corresponds to screw engagement within bone. Color Code 4.0mm Self Drilling 4.0mm Self Tapping 4.5 mm Oversized 14mm Self-Drilling 14mm Oversized 10mm 12mm 13mm 14mm 15mm 16mm 17mm 18mm 20mm 22mm 24mm 26mm Green Blue Violet Gold Light Blue Magenta Light Green Titanium Titanium Titanium Titanium Titanium 5

OPERATIVE TECHNIQUE Figure 6A STEP 6: PREPARE SCREW HOLE The SKYLINE System offers multiple drill guide options. Use of the single barrel drill guide is detailed below. The insertion technique for the universal and pistol grip drill guides are detailed in the Other Instruments section. NOTE: Self-drilling screws do not normally require predrilling, however, an awl should be used to perforate the cortex to provide a starting point for screw insertion. Using the Self-Centering Awl Figure 6B The self-centering awl is provided as a two-piece assembly for ease in cleaning and sterilization. Assemble the outer sheath over the handle assembly until the top of the outer sheath bottoms out on the base of the handle (Figure 6A). A tactile and audible click will signify that the outer sheath is properly retained on the handle assembly. Once the plate is positioned and temporarily fixed to the vertebral bodies, place the ball tip of the self-centering awl in the screw bore and press it in the direction of the desired screw angle. The self-centering awl can protrude into the bone up to a depth of 7mm (Figure 6B). To penetrate dense cortical bone, strike the handle of the self-centering awl with a mallet. 6

Figure 7A Single Barrel Drill Guide NOTE: When using a constrained screw, the constrained single barrel drill guide must be used. The tip of the constrained drill guide mimics the head of the constrained screw (Figure 7A) in order to ensure the drilled hole is within the functional range of the constrained screw as illustrated (Figure 7B). Figure 7B Figure 7C Insert the tip of the single barrel drill guide into the bore of the screw and orient as desired. Exercise caution as certain angles may direct the screws toward vulnerable vascular and neural structures or allow screw tips to intersect one another inhibiting proper screw insertion. The neutral angle of a SKYLINE Screw is 10 rostral /caudal and 5 medial. The constrained screw can pivot 2.5 medial/lateral from the neutral angle (Figure 7B). The constrained single barrel drill guide will limit drilling trajectory to within the range of the constrained screw. The variable screw can pivot 10 in all directions from the neutral angle (20 cone of angulation, Figure 7C). 7

OPERATIVE TECHNIQUE Drill Bit Selection and Use Figure 8 The SKYLINE System provides 12mm (blue), 14mm (gold), and 16mm (magenta) fixed depth drill bits. The colors of the collars correspond to their respective screw length colors (Figure 8). Figure 9 Attach the desired drill bit onto the quick couple handle or power drill. Advance the drill bit through the single barrel drill guide until the shelf of the drill contacts the guide (Figure 9). The SKYLINE System provides both self-drilling and self- tapping screws. Therefore, a separate tapping operation may not be necessary. A 10 mm tap is provided should tapping be required. STEP 7: SCREW INSERTION The self retaining screw-driver may be used to remove the desired screw from the screw caddy. Figure 10 Insert the screw into the screw bore and advance it into the vertebral body (Figure 10). Use fluoroscopic imaging to confirm the final trajectory of the screw and plate position before screws are fully tightened and secured with the CAM LOC. 8

Figure 11 STEP 8: LOCKING THE CAMS All screws should be secured to the vertebral bodies before beginning the CAM locking procedure. Assemble the CAM tightener shaft to the torque handle. Note that the shaft is double-ended to provide an additional tip should a tip become worn. Insert the tip of the CAM tightener shaft into the CAM ensuring that the driver is fully seated within the CAM (Figure 11). Rotate the CAM tightener clockwise. Resistance will be felt as the CAM contacts the head of the screw. The CAM tightener incorporates a torque-limiting feature (0.78 Nm) that will release when the appropriate torque level is achieved. When this occurs, an audible click will be heard. A lock is obtained when the CAM tightener torque limit releases or when the CAM is positioned within the typical locking zone shown (Figure 12). Do not rotate the CAM past 270 o. Turn CAM clockwise until you hear an audible click from the CAM torque handle Figure 12 Note: Exact position of a locked CAM may vary within the typical locking zone depending on screw angulations. 9

OPERATIVE TECHNIQUE STEP 9: FINAL SUPPORT For patients with three or four-level constructs, compromised bone quality, or other complications, additional support such as the Songer Cable Systems or the BREMER Halo System by DePuy Spine may increase post operative fusion success. The MOUNTAINEER OCT System may be of value for reinforcement of long anterior constructs. In order to provide versatility and options, the SKYLINE System was designed with multiple instruments to facilitate a variety of surgical preferences and situations. Note: Only the constrained single barrel drill guide should be used with constrained screws. For closure of surgical incisions, you can use DERMABOND Topical Skin Adhesive. 10

OTHER INSTRUMENTS PISTOL GRIP DRILL GUIDE (OPTIONAL) Figure 13 The pistol grip drill guide, similar in function to the variable single barrel drill guide, is additionally able to lock the guide to the plate; thereby, allowing it to be used as a plate holder. To attach, ensure that the ratchet mechanism on the handle is in place. Then place the tip of the pistol grip drill guide within the screw bore and orient as desired. Squeeze the trigger to engage the ratchet mechanism and lock the drill guide to the plate at the angle chosen (Figure 13). Note: The pistol grip drill guide can only be used with the variable screws. UNIVERSAL DRILL GUIDES Figure 14 The universal drill guides, available in single and double barrel configurations, facilitate the use of awls, drills, taps, and screw insertion without the need to remove the guide from the plate. Both the single barrel and double barrel drill guides utilize the outer and window profiles of the plate to index the drill tubes with the screw bores. The guides are self retaining, allowing them to be used as plate holders. The universal single barrel drill guide also features a 180 rotating handle allowing it to be placed out of the way of anatomical obstructions (Figure 14). 11

OTHER INSTRUMENTS Figure 15A Universal Single Barrel top view Instructions for using the universal drill guides: Place the selected drill guide over the selected screw holes such that the lateral tabs hug the outer profile of the plate and the medial tabs engage the window of the plate as illustrated (Figures 15 & 16). Figure 15B Universal Single Barrel bottom view Figure 16A Universal Double Barrel top view The drill guide will place the screws with a 5 medial trajectory. Rocking the guide to the desired angle will change the sagittal trajectory of the screw. Awl, drill, and/or tap the screw holes, as desired. Attach the screws to the self retaining screwdriver and insert them through the drill guide barrels. Screw progress will be visible through the windows in the guide. Remove the drill guide and finish tightening. Figure 16B Universal Double Barrel bottom view FREEHAND AWL The freehand awl may be used to begin a hole in place of the self-centering awl. As with the self-centering awl it may be used with or without a drill guide. To use, place the trocar tip of the awl in the center of the screw bore and press it in the direction of the screw angle desired. The awl can protrude into the bone a depth of 7mm. To penetrate dense cortical bone, strike the handle of the awl with a mallet. 12

PLATE REMOVAL ITEMS NEEDED: Standard screwdriver. Note: The self retaining screwdriver should not be used to remove the screws. The screwdriver tip should be in good condition. CAM tightener shaft and torque handle. Figure 17 REMOVAL TECHNIQUE: Thoroughly clean out the inside of the screw head and CAM driver pocket. Assemble the CAM tightener shaft to the torque handle. Insert the tip of the CAM tightener shaft into the CAM ensuring that the driver is fully seated within the CAM. Rotate the CAM counter-clockwise until the flat of the CAM is parallel with the vertebral body (Figure 17). Be careful to ensure that the CAM is not over turned, as damage to the driver and CAM can occur if turned past parallel. Any increase in resistance is an indication that the CAM has been turned too far. Insert the standard screwdriver ensuring the tip of the screwdriver is fully seated within the head of the screw. The shaft of the screwdriver should be aligned with the screw shank. Disengage the screws from the plate. Repeat for all screws. 13

ORDERING INFORMATION One Level Plates Part Number Level Size 1868-01-012* One level plate 12mm 1868-01-014* One level plate 14mm 1868-01-016 One level plate 16mm 1868-01-018 One level plate 18mm 1868-01-020 One level plate 20mm 1868-01-022 One level plate 22mm 1868-01-024 One level plate 24mm 1868-01-026 One level plate 26mm 1868-01-028 One level plate 28mm 1868-01-030 One level plate 30mm Two Level Plates Part Number Level Size 1868-02-030* Two level plate 30mm 1868-02-032 Two level plate 32mm 1868-02-034 Two level plate 34mm 1868-02-036 Two level plate 36mm 1868-02-038 Two level plate 38mm 1868-02-040 Two level plate 40mm 1868-02-042 Two level plate 42mm 1868-02-044 Two level plate 44mm Three Level Plates Part Number Level Size 1868-03-042* Three level plate 42mm 1868-03-045* Three level plate 45mm 1868-03-048 Three level plate 48mm 1868-03-051 Three level plate 51mm 1868-03-054 Three level plate 54mm 1868-03-057 Three level plate 57mm 1868-03-060 Three level plate 60mm 1868-03-063 Three level plate 63mm 1868-03-066 Three level plate 66mm 14 *Shorter level plates have medial slot only.

Four Level Plates Part Number Level Size 1868-04-064* Four level plate 64mm 1868-04-068 Four level plate 68mm 1868-04-072 Four level plate 72mm 1868-04-076 Four level plate 76mm 1868-04-080 Four level plate 80mm 1868-04-084 Four level plate 84mm 1868-04-088 Four level plate 88mm Five Level Plates Part Number Level Size 1868-05-075* Five level plate 75mm 1868-05-080* Five level plate 80mm 1868-05-085 Five level plate 85mm 1868-05-090 Five level plate 90mm 1868-05-095 Five level plate 95mm 1868-05-100 Five level plate 100mm 1868-05-105 Five level plate 105mm *Shorter level plates have medial slot only. 15

ORDERING INFORMATION Variable Self Drilling Screws (4.0mm) Part Number Description Size 1868-50-012 Self-Drilling Screw 12mm 1868-50-013 Self-Drilling Screw 13mm 1868-50-014 Self-Drilling Screw 14mm 1868-50-015 Self-Drilling Screw 15mm 1868-50-016 Self-Drilling Screw 16mm 1868-50-017 Self-Drilling Screw 17mm 1868-50-018 Self-Drilling Screw 18mm Variable Self Tapping Screws (4.0mm) Part Number Description Size 1868-52-010 Self-Tapping Screw 10mm 1868-52-012 Self-Tapping Screw 12mm 1868-52-013 Self-Tapping Screw 13mm 1868-52-014 Self-Tapping Screw 14mm 1868-52-015 Self-Tapping Screw 15mm 1868-52-016 Self-Tapping Screw 16mm 1868-52-017 Self-Tapping Screw 17mm 1868-52-018 Self-Tapping Screw 18mm 1868-52-020 Self-Tapping Screw 20mm 1868-52-022 Self-Tapping Screw 22mm 1868-52-024 Self-Tapping Screw 24mm 1868-52-026 Self-Tapping Screw 26mm Variable Oversized Screws (4.5mm) Part Number Description Size 1868-54-012 Large Diameter 12mm 1868-54-014 Large Diameter 14mm 1868-54-016 Large Diameter 16mm 1868-54-018 Large Diameter 18mm 16

Constrained Self Drilling Screws (4.0mm) Part Number Description Size 1868-60-012 Self-Drilling Screw 12mm 1868-60-013 Self-Drilling Screw 13mm 1868-60-014 Self-Drilling Screw 14mm 1868-60-015 Self-Drilling Screw 15mm 1868-60-016 Self-Drilling Screw 16mm 1868-60-017 Self-Drilling Screw 17mm 1868-60-018 Self-Drilling Screw 18mm Constrained Self Tapping Screws (4.0mm) Part Number Description Size 1868-62-010 Self-Tapping Screw 10mm 1868-62-012 Self-Tapping Screw 12mm 1868-62-013 Self-Tapping Screw 13mm 1868-62-014 Self-Tapping Screw 14mm 1868-62-015 Self-Tapping Screw 15mm 1868-62-016 Self-Tapping Screw 16mm 1868-62-017 Self-Tapping Screw 17mm 1868-62-018 Self-Tapping Screw 18mm 1868-62-020 Self-Tapping Screw 20mm 1868-62-022 Self-Tapping Screw 22mm 1868-62-024 Self-Tapping Screw 24mm 1868-62-026 Self-Tapping Screw 26mm Constrained Oversized Screws (4.5mm) Part Number Description Size 1868-64-012 Large Diameter 12mm 1868-64-014 Large Diameter 14mm 1868-64-016 Large Diameter 16mm 1868-64-018 Large Diameter 18mm 17

ORDERING INFORMATION Drill Guides Part Number Description 2868-00-000 Constrained Single Barrel Guide 2868-10-000* Variable Single Barrel Guide 2868-10-100 Variable Pistol Grip Guide 2868-10-200 Single Barrel Universal Guide 2868-10-300 Double Barrel Universal Guide Hole Preparation Part Number Description 2868-20-400* Self Centering Awl 2868-20-500 Freehand Awl 2868-20-012 12mm Drill (AO) 2868-20-014 14mm Drill (AO) 2868-20-016 16mm Drill (AO) 2868-20-112 12mm Drill (Jacobs) 2868-20-114 14mm Drill (Jacobs) 2868-20-116 16mm Drill (Jacobs) 2868-20-300 Tap Shaft 2865-22-000 Quick Couple Handle Drivers Part Number Description 2868-30-000* Spring Clip Driver 2868-30-100 Standard Driver 2868-30-200 Expansion tip screw driver 18 *Picture illustrated.

Cam Locking Part Number Description 2868-40-000* Cam Tightener Shaft 2897-07-000 Cam Tightener Torque Handle Temporary Fixation Pins Part Number Description 2868-50-000 TFP Inserter 2868-50-100 Straight TFP 2868-50-200* Threaded TFP Other Part Number Description 2865-06-000 Plate Holder 2868-60-200* Plate Bender *Picture illustrated. 19

ORDERING INFORMATION Cases & Trays Part Number Description 2868-80-001 Plate Caddy 2868-80-002 Variable Screw Caddy 2868-80-003 Constrained Screw Caddy 2868-80-004 4&5 Level plates Caddy 2868-80-006 Implants Tray (part of case & tray) 2868-80-007 Implants Tray (part of case & tray) 2868-80-005* Case & Trays 20 *Picture illustrated.

INDICATIONS The SKYLINE Anterior Cervical Plate System is indicated for stabilization of the cervical spine from C2 to C7 employing unicortical screw fixation at the anterior face of the vertebral bodies. Specific clinical indications for anterior plating include: instability caused by trauma; instability associated with correction of cervical lordosis and kyphosis deformity; instability associated with pseudoarthrosis as a result of previously failed cervical spine surgery; instability associated with major reconstructive surgery for primary tumors or metatstatic malignant tumors of the cervical spine; instability associated with single or multiple level corpectomy in advanced degenerative disc disease, spinal canal stenosis and cervical myelopathy. These devices are not approved for screw attachment or fixation to the posterior elements (pedicles) of the cervical, thoracic, or lumbar spine. CONTRAINDICATIONS (IFU): - Active systemic infection or an infection localized to the site of the proposed implantation. - Severe osteoporosis may prevent adequate fixation of screws and thus preclude the use of this or any other spinal instrumentation system. - Patients who have been shown to be safely and predictably treated without internal fixation. - Open wounds. - Relative contraindications include any entity or condition that totally precludes the possibility of fusion (e.g., cancer, kidney dialysis or osteopenia), obesity, certain degenerative diseases, and foreign body sensitivity. WARNINGS: Correct placement of the device is essential to optimal performance. Use of the SKYLINE Anterior Cervical Plate System should only be undertaken after the surgeon has become thoroughly knowledgeable about the spinal anatomy and biomechanics, has had experience with anterior approach spinal surgeries, and has had hands-on training in the use of the device. - Correct selection of the implant is extremely important. - Implants can break when subjected to the increased loading associated with delayed union or nonunion. - Mixing metals can cause corrosion. - In selecting patients for internal fixation devices, the following factors can be extremely important to the eventual success of the procedure, including: the patient s occupation or activity; a condition of senility, mental illness, alcoholism, or drug abuse; certain degenerative diseases; foreign body sensitivity; smoking. - If bony fusion does not occur within an expected period of time, the screws may break due to the high and sustained loading of these devices. This has been noted in patients with delayed, pseudoarthrosis or non-union and can result in the need to revise the device. PRECAUTIONS: - Surgical implants must never be reused. - Correct handling of the implant is extremely important. - Titanium alloy components should never be bent sharply or reverse bent. - If the devices are not removed after the completion of its intended use, any of the following complications may occur: corrosion with localized tissue reaction or pain; migration of implant position resulting in injury; risk of additional injury from postoperative trauma; bending, loosening, and/or breakage, which could make removal impractical or difficult; pain, discomfort, or abnormal sensations due to the presence of the device; possible increased risk of infection; and bone loss due to stress shielding. - The surgeon should carefully weigh the risks versus the benefits when deciding when to remove the implant. - Adequately instruct the patient. The patient must be made aware of the limitations of the implant, and instructed to limit and restrict physical activities. REVISION/PLATE REMOVAL: ITEMS NEEDED: Standard screwdriver. Note: The self retaining screwdriver should not be used to remove the screws. The screwdriver tip should be in good condition. CAM tightener shaft and torque handle. REMOVAL TECHNIQUE: Thoroughly clean out the inside of the screw head and CAM driver pocket. Assemble the CAM tightener shaft to the torque handle. Insert the tip of the CAM tightener shaft into the CAM ensuring that the driver is fully seated within the CAM. Rotate the CAM counter-clockwise until the flat of the CAM is parallel with the vertebral body. Be careful to ensure that the CAM is not over turned, as damage to the driver and CAM can occur if turned past parallel. Any increase in resistance is an indication that the CAM has been turned too far. Insert the standard screwdriver ensuring the tip of the screwdriver is fully seated within the head of the screw. The shaft of the screwdriver should be aligned with the screw shank. Disengage the screws from the plate. Repeat for all screws. Limited Warranty and Disclaimer: DePuy Spine products are sold with a limited warranty to the original purchaser against defects in workmanship and materials. Any other express or implied warranties, including warranties of merchantability or fitness, are hereby disclaimed. WARNING: In the USA, this product has labeling limitations. See package insert for complete information. CAUTION: USA Law restricts these devices to sale by or on the order of a physician. To order, call DePuy Spine Customer Service (1-800-227-6633). Not all products are currently available in all markets. DePuy Spine, Inc. 325 Paramount Drive Raynham, MA 02767 USA Tel: +1 (800) 227-6633 www.depuy.com 30% 30% DePuy Spine, Inc. 2010. All rights reserved. CR18-20-001 10/10 JC/UM