WO2002007624A1 - Spinal implants, insertion instruments, and methods of use - Google Patents
Spinal implants, insertion instruments, and methods of use Download PDFInfo
- Publication number
- WO2002007624A1 WO2002007624A1 PCT/US2001/023006 US0123006W WO0207624A1 WO 2002007624 A1 WO2002007624 A1 WO 2002007624A1 US 0123006 W US0123006 W US 0123006W WO 0207624 A1 WO0207624 A1 WO 0207624A1
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- WO
- WIPO (PCT)
- Prior art keywords
- wing
- main body
- axis
- implant
- alignment
- Prior art date
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Classifications
-
- A—HUMAN NECESSITIES
- A61—MEDICAL OR VETERINARY SCIENCE; HYGIENE
- A61K—PREPARATIONS FOR MEDICAL, DENTAL OR TOILETRY PURPOSES
- A61K31/00—Medicinal preparations containing organic active ingredients
- A61K31/33—Heterocyclic compounds
- A61K31/335—Heterocyclic compounds having oxygen as the only ring hetero atom, e.g. fungichromin
- A61K31/365—Lactones
- A61K31/366—Lactones having six-membered rings, e.g. delta-lactones
- A61K31/37—Coumarins, e.g. psoralen
-
- A—HUMAN NECESSITIES
- A61—MEDICAL OR VETERINARY SCIENCE; HYGIENE
- A61B—DIAGNOSIS; SURGERY; IDENTIFICATION
- A61B17/00—Surgical instruments, devices or methods, e.g. tourniquets
- A61B17/56—Surgical instruments or methods for treatment of bones or joints; Devices specially adapted therefor
- A61B17/58—Surgical instruments or methods for treatment of bones or joints; Devices specially adapted therefor for osteosynthesis, e.g. bone plates, screws, setting implements or the like
- A61B17/68—Internal fixation devices, including fasteners and spinal fixators, even if a part thereof projects from the skin
- A61B17/70—Spinal positioners or stabilisers ; Bone stabilisers comprising fluid filler in an implant
- A61B17/7062—Devices acting on, attached to, or simulating the effect of, vertebral processes, vertebral facets or ribs ; Tools for such devices
- A61B17/7068—Devices comprising separate rigid parts, assembled in situ, to bear on each side of spinous processes; Tools therefor
-
- A—HUMAN NECESSITIES
- A61—MEDICAL OR VETERINARY SCIENCE; HYGIENE
- A61B—DIAGNOSIS; SURGERY; IDENTIFICATION
- A61B17/00—Surgical instruments, devices or methods, e.g. tourniquets
- A61B17/56—Surgical instruments or methods for treatment of bones or joints; Devices specially adapted therefor
- A61B17/58—Surgical instruments or methods for treatment of bones or joints; Devices specially adapted therefor for osteosynthesis, e.g. bone plates, screws, setting implements or the like
- A61B17/60—Surgical instruments or methods for treatment of bones or joints; Devices specially adapted therefor for osteosynthesis, e.g. bone plates, screws, setting implements or the like for external osteosynthesis, e.g. distractors, contractors
- A61B17/66—Alignment, compression or distraction mechanisms
-
- A—HUMAN NECESSITIES
- A61—MEDICAL OR VETERINARY SCIENCE; HYGIENE
- A61B—DIAGNOSIS; SURGERY; IDENTIFICATION
- A61B17/00—Surgical instruments, devices or methods, e.g. tourniquets
- A61B17/56—Surgical instruments or methods for treatment of bones or joints; Devices specially adapted therefor
- A61B17/58—Surgical instruments or methods for treatment of bones or joints; Devices specially adapted therefor for osteosynthesis, e.g. bone plates, screws, setting implements or the like
- A61B17/68—Internal fixation devices, including fasteners and spinal fixators, even if a part thereof projects from the skin
- A61B17/70—Spinal positioners or stabilisers ; Bone stabilisers comprising fluid filler in an implant
- A61B17/7071—Implants for expanding or repairing the vertebral arch or wedged between laminae or pedicles; Tools therefor
-
- A—HUMAN NECESSITIES
- A61—MEDICAL OR VETERINARY SCIENCE; HYGIENE
- A61B—DIAGNOSIS; SURGERY; IDENTIFICATION
- A61B17/00—Surgical instruments, devices or methods, e.g. tourniquets
- A61B17/02—Surgical instruments, devices or methods, e.g. tourniquets for holding wounds open; Tractors
- A61B17/025—Joint distractors
- A61B2017/0256—Joint distractors for the spine
Definitions
- This invention relates to instruments used for the insertion of spinal implants during spinal surgery and to the spinal implants.
- this invention is directed toward apparatus and methods for relieving pain associated with the spine.
- Inventive spinal implants can be inserted using inventive instruments between spinous processes using inventive methods to keep adjacent vertebrae at a desired separation.
- an implant can have a main body assembly which comprises a tissue expander, a spacer, and a main body that includes a wing.
- the spacer is placed between dorsal spinous processes of adjacent vertebrae.
- the main body assembly has a main body wing which can be positioned on one side of adjacent dorsal spinous processes.
- a second, universal wing of the invention can be attached to the main body assembly and can be positioned on the other side of the adjacent dorsal spinous processes using another instrument of this invention.
- the spacer separates the adjacent spinous processes, thereby reducing the symptoms of spinal stenosis and/or other symptoms associated with the spine.
- the spacer between the wings is rotatable and can provide for placement of the implant between spinous processes.
- This invention includes instruments and methods for the insertion of inventive spinal implants into the spine of a surgical patient.
- An insertion instrument generally has a handle for grasping and another portion which engages a portion of a spinal implant.
- An implant can be engaged by the insertion instrument and then can be positioned relative to adjacent vertebrae of a patient.
- Instruments can be desirably made of biologically inert materials, such as stainless steel, and can be designed simply, so that the component parts of the instruments can be separated easily from one another for cleaning and sterilization between uses.
- spring- actuated locking mechanisms and one or more alignment pins can unite with alignment points of the inventive implant and can hold portions of the implant.
- alignment pins it can be desirable to orient the longitudinal axis of the pins across the axis of the locking mechanism.
- the implants When engaged by the locking mechanism and alignment pins, the implants can be held firmly in relationship to the insertion instrument, making positioning of the implant easy and convenient.
- the locking mechanism When the implant is positioned and secured in place, the locking mechanism can be easily disengaged from the implant, leaving the implant in place in the spine.
- an insertion instrument can have a driver for engaging a fastener of a universal wing with a main body assembly, via a threaded fastener or other suitable means.
- insertion instruments and implant devices can improve the efficiency of spinal surgery to relieve pain associated with spinal stenosis and other degenerative and traumatic injuries to the spine.
- Insertion of spinal implants can be generally accomplished using three instruments of this invention, one to determine the correct size of an implant to be used and to distract the spinous processes, one to insert a main body assembly, and another to install a universal wing.
- a surgical field is prepared, an incision or access port is made in the back of the patient.
- the intraspinous space is accessed, and specially designed trial implant instruments can be used to determine the correct size of a spinal implant to be inserted and to distract the spinous processes.
- the smallest trial implant is inserted between the spinous processes. If the smallest trial implant is too loose in the interspinous space, the next largest size is tried. The process continues until the correct size of implant is determined.
- a main body insertion instrument can be used to hold a main body assembly and a main body wing in position relative to the spinous processes of adjacent vertebrae.
- the main body assembly is urged into the intraspinous space, preferably near the vertebral body.
- Another instrument of this invention can be used to attach a universal wing to the main body assembly. The two wings assist in maintaining the spacer in place between the spinous processes.
- Figure 2 depicts a schematic, sectional, longitudinal view of a main body insertion instrument as depicted in Figure 1.
- Figures 3a - 3c depict schematic views of an insertion tip of the main body insertion instrument of one embodiment of this invention as shown in Figures 1 and 2. More particularly, Figures 3a - 3c depict the following.
- Figure 3a depicts a side view of the insertion tip of a main body insertion instrument of one embodiment of this invention with a locking pin and spacer engagement pin spacer in the extended position.
- Figure 3b depicts the insertion tip as shown in Figure 3a with a locking pin and spacer engagement pin spacer in a retracted position.
- Figure 3c depicts a top view of the insertion tip of the main body insertion instrument of one embodiment of this invention with the locking pin and engagement pin spacer in a retracted position.
- Figure 4a depicts an embodiment of a main body assembly of a spinal implant of the invention used with a main body insertion instrument of this invention.
- Figures 4b depicts an embodiment of a main body insertion instrument of this invention and an embodiment of a main body assembly of the invention as shown in Figure 4a, showing the points of engagement between the assembly and the instrument.
- Figure 4c depicts an embodiment of a main body assembly of the invention and an embodiment of a main body insertion instrument of the invention, both depicted in Figure 4b, engaged with one another.
- Figure 5 depicts an exterior view of an embodiment of a wing insertion instrument of the invention.
- Figure 6 depicts a schematic, sectioned, longitudinal view of the embodiment of a wing insertion instrument of the invention as shown in Figure 6.
- Figure 7a depicts an end view of an embodiment of an insertion tip of a wing insertion instrument of the invention are depicted in Figures 5 and 6..
- Figure 7b depicts a top view of an embodiment of an insertion tip of a wing insertion instrument of the invention as depicted in Figure 7a with a driver in a distal position.
- Figure 7c depicts a top view of the embodiment of the insertion tip of a wing insertion instrument of the invention as depicted in Figures 7a and 7b with the driver in a proximal position.
- Figure 8a depicts a side view of an embodiment of a universal wing of the invention which is implantable with a wing insertion instrument of the invention.
- Figure 8b depicts an end view of an embodiment of a universal wing of the invention are depicted in Figure 8a without an attachment bolt.
- Figure 8c depicts the embodiment of an embodiment of the universal wing of the invention as shown in Figure 8b with an attachment bolt.
- Figures 9a - 9c depict an embodiment of an insertion tip of a wing insertion instrument of the invention as shown in Figure 6 and 7, and an embodiment of a universal wing of the invention. More particularly, Figures 9a-9c depict the following.
- Figure 9a is a side view showing the relationships of an embodiment a universal wing of the invention and an embodiment of a wing insertion instrument of the invention, showing the points of engagement.
- Figure 9b is a side view of the embodiment of the universal wing and the wing insertion instrument of the invention depicted in Figure 9a after engagement.
- Figure 9c is a top view of the embodiment of a universal wing and a wing insertion instrument of the invention as depicted in Figure 9b.
- Figures 10a - 10d depict trial implantation and distraction instruments of the invention.
- Figures 11 a and 11 b depict the insertion of a main body assembly of the invention into the spine of a patient. More particularly, Figures 1a and 11 b depict the following.
- Figure 11a depicts a lateral view of a spine, and an embodiment of a main body insertion instrument of the invention engaged with an embodiment of a main body assembly of the invention positioned between spinous processes of adjacent vertebrae of a patient.
- Figure 11b depicts a dorsal view of a spine of a patient depicting an embodiment of a main body assembly of the invention inserted between spinal processes of adjacent vertebrae.
- Figure 12 depicts a lateral view of a spine with an embodiment of a main body assembly of the invention inserted between spinous processes of adjacent vertebrae and a wing implant insertion instrument of the invention engaged with an embodiment of a universal wing of the invention, showing the points of attachment between the embodiment of the main body assembly and the universal wing of the invention.
- Figure 13 depicts a dorsal view of a spine with an embodiment of a main body assembly of the invention inserted between spinous processes of adjacent vertebrae, and showing the insertion of an embodiment of a universal wing of the invention and its attachment to the embodiment of main body assembly of the invention.
- This invention includes instruments and methods for inserting spinal implants in the vertebral columns of patients and to spinal implants themselves.
- instruments are provided for inserting a main body assembly between spinous processes of adjacent vertebrae.
- These instruments termed herein “main body insertion instruments” generally comprise an elongated body portion having a handle at one end, an insertion shaft and an insertion tip. The insertion tip engages with the main body assembly and holds the assembly in fixed relation to the instrument. The surgeon prepares the site for implantation, and uses the instrument to urge the assembly between spinous processes of adjacent vertebrae.
- wing insertion instruments In other embodiments of this invention, different instruments can be used to insert universal wings on to the main body assembly of the spinal implant. These other instruments are termed herein “wing insertion instruments.”
- a wing insertion instrument generally comprises a handle, an insertion shaft and an insertion tip. The insertion tip of a wing insertion instrument engages with the universal wing and holds it fixed relative to the instrument. The surgeon then grasps the handle portion of the instrument and uses it to urge the wing implant portion into proximity with a main body assembly which has been inserted between spinous processes of the spine.
- FIG. 1 depicts an exterior view of a main body insertion instrument 100 of this invention having a handle 10, an insertion shaft 20 and an insertion tip 30.
- Handle 10 can be made of any suitable material, such as by way of example only, Gray ULTEM TM, a polyetherimide resin.
- Insertion shaft 20 can be made of any suitable, strong material, such as 304 stainless steel. Insertion shaft 20 has a central bore extending through its length.
- insertion shaft 20 is adapted to fit within the distal end of handle 10, and can be held in place with a set screw, made of, byway of example only, 304 or 455 stainless steel.
- a main body insertion tip 30 is attached to the distal end of the insertion shaft. Insertion tip 30 can be made of, byway of example only, 17-4 stainless steel.
- a bore extends longitudinally through the insertion tip 30 and is contiguous with the bore through the insertion shaft 20.
- An insertion rod 40 having a distal end with a spacer engagement pin and a locking pin, extends through the length of the bore in insertion shaft 20. Insertion rod 40 extends into the handle 10 of the main body insertion instrument 100.
- insertion knob 110 On one side of handle 10, insertion knob 110, having a raised portion 112, is for manipulation of a locking pin and spacer engagement pin in insertion tip 30.
- the insertion knob 110 can be made of, by way of example only, 304 stainless steel.
- the stainless steel components of the instruments of this invention can desirably meet ASTM Standard F899- 95: Standard Specifications for Stainless Steel Billet, Bar, and Wire for Surgical Instruments.
- Figure 2 depicts a longitudinal cross-sectional view of a main body insertion instrument 100 as depicted in Figure 1 , and shows details of this embodiment of the invention.
- Handle 10 has an insertion knob groove 105 on a lateral surface, within which insertion knob 110 is provided. Insertion knob 110 and groove 105 are sized so that insertion knob 110 can move in a proximal/distal path along the handle 10. Insertion knob 110 has said raised portion 112 used for applying force to move insertion knob 110 proximally and distally along handle 10. Insertion knob 110 is attached to rod 111, which is located within cavity 121 of the cavity 121. When placed within cavity 121 , the rod 111 engages spring 125, which is located within an interior space 124 of handle 10.
- Spring 125 is urged against insertion rod 40.
- the spring 125 provides a force that urges rod 111 and also rod 40 toward the distal portion of the instrument 100.
- Spring 125 is compressed by manual movement of insertion knob 110 in a proximal direction, acting via rod 111. Because insertion rod 40 is engaged with rod 111 , insertion rod 40 is drawn proximally by proximal movement of insertion knob 110.
- spring 125 urges rod 111 , insertion rod 40 and insertion knob 110 in a distal direction.
- FIG. 2 depicts insertion shaft 20 having a proximal end that is adapted to fit within the distal portion of handle 10.
- set screw 130 engages with insertion shaft 20 to keep insertion shaft 20 engaged in handle 10.
- Set screw 130 can be made of any convenient material, such as, by way of example only, stainless steel. It can be especially desirable for set screws 120 and 130 to be completely removable from handle 10, to provide open access to the interior of handle 10 for cleaning and sterilization.
- Insertion tip 30 is adapted to fit onto the distal end of insertion shaft 20, by way of example only, with an interference fit.
- Figure 2 depicts such an interference fit engagement of insertion tip 30 with the distal end of insertion shaft 20.
- other ways of attaching insertion tip 30 to insertion shaft are possible.
- Figure 2 depicts components of insertion tip 30, which include a proximal portion 145, which can act as a position stop for spacer engagement pin 157.
- Spacer engagement pin 157 protrudes laterally from the portion of the insertion rod 40, and is adapted to engage a spacer engagement hole of a main body assembly. When so engaged, spacer engagement pin 157 can position a spacer relative to the remainder of the main body wing and tissue expander, making insertion of the implant between spinous processes convenient.
- locking pin 155 is positioned to engage a hole in the main body assembly. Thus, when so engaged, locking pin 155 and spacer engagement pin 157 can hold the main body, tissue expander and spacer in position relative to one another for convenient insertion.
- portion 147 having a flat medial surface 165, can support the main body.
- one or more alignment pins 160 can be provided to engage with a main body to provide additional support during surgery.
- main body insertion instrument 100 desirably is sufficiently robust to provide firm support of the main body assembly during surgery.
- the connective tissue, including ligaments can be strong and tough, tending to resist stretching.
- the surfaces can be smooth and have relatively simple geometrical shape.
- Simple shape and relatively open construction can provide for easy access to the interior of the parts of the instrument, and can permit easy and convenient cleaning and sterilization.
- Figure 3a - 3c depict the insertion tip 30 of main body implant insertion instrument 100 in additional detail.
- Figure 3a depicts a side view of insertion tip 30 fitted into the distal end of insertion shaft 20.
- Bore 150 of insertion shaft 20 is shown in dashed lines.
- Locking pin 155 of insertion rod 40 is shown in the distal-most extension, as urged by spring 125 of Figure 2.
- Portion 147 is shown having alignment pin 160 with an axis aligned substantially perpendicularly to the plane of portion 147.
- Spacer engagement pin or catch 157 is shown above locking pin 155. At its distal-most extension, locking pin 155 crosses the axis of alignment pin 160.
- Figure 3b depicts an insertion tip as shown in Figure 3a in which the insertion rod 40 has been moved to a proximal position.
- locking pin 155 and spacer engagement pin 157 have been retracted sufficiently to be proximal to surface 156 of insertion tip 30.
- Figure 3c depicts a top view of insertion tip 30. Insertion rod 40 is shown in the retracted position, with locking pin 155 and spacer engagement pin 157 being located proximally to surface 156 of insertion tip 30.
- Two alignment pins 160 are shown. When engaged with a main body assembly, flat surfaces 156 and 165, alignment pins 160, and locking pin 155 and spacer engagement pin 157 of the instrument 100 can hold the main body assembly firmly to the insertion instrument.
- Figures 4a - 4c depict the method of engagement of a main body , insertion instrument of the invention with a main body assembly of the invention.
- Figure 4a depicts a main body assembly 400 of the invention for use with the instrument 100 of this invention.
- Main body assembly 400 has a main body wing 401 having a cephalad wing member 402 and a caudal wing member 402a.
- Cephalad wing member 402 after insertion, is aligned toward the head of the subject along the right side of a dorsal spinous process.
- Member 402a is also positioned along the side of a spinous process.
- Main body wing 401 also can have one or more holes 403 adapted to receive alignment pins 160 of main body insertion instrument 100.
- Main body wing 401 also has locking pin hole 404 adapted to receive locking pin 155 of main body insertion instrument 100.
- Main body wing 401 is attached to spacer 405, which has spacer engagement hole 406 adapted to receive spacer engagement pin 157 of insertion instrument 100.
- tissue expander 407 is shown, having a threaded hole 408 adapted to receive a bolt of a universal wing implant (described below).
- Tissue expander 407 has a tapered left end to ease insertion of the main body assembly between spinous processes.
- Figure 4b depicts a lateral view showing the points of engagement between a main body assembly and main body insertion instrument. Insertion rod 40 of insertion instrument is shown in a retracted, or proximal position.
- Locking pin 155 and spacer engagement pin 157 are shown aligned proximally to plane 156 of insertion tip 30.
- Spacer engagement pin 157 is adapted to engage with spacer engagement hole 406
- locking pin 155 is adapted to engage with locking pin hole 404
- alignment pin 160 is adapted to engage with alignment hole 403.
- Figure 4c depicts main body insertion instrument engaged with main body assembly. While insertion rod 40, locking pin 155 and spacer engagement pin 157 are in the retracted position, a main body assembly has been positioned with alignment pin 160 received into alignment pin hole 403. Thereafter, insertion rod 40 has been urged distally by the spring 125 of Figure 2, thereby engaging locking pin 155 with locking pin hole 404 and spacer engagement pin 157 with spacer engagement hole 406. The engagement of spacer engagement pin 157 with spacer 405 keeps spacer 405 from rotating about its axis, and thereby keeps the spacer 405 in position relative to the tissue expander 407 and to the main body implant insertion instrument 100.
- FIG. 5 depicts an exterior, lateral view of a wing insertion instrument 500, having a handle 10, and insertion shaft 20, an insertion tip 30 and a driver knob 50.
- insertion knob 110 As with the main body insertion instrument 100 depicted in Figures 1 and 2, on a lateral surface, insertion knob 110, having raised portion 112 is provided to actuate a locking mechanism at the distal end of the instrument.
- Figure 5 depicts a cross-sectional longitudinal view through the wing insertion instrument 500 of this invention.
- Handle 10 has an insertion knob groove 505 on a lateral surface, within which insertion knob 110 is provided.
- Insertion knob 110 and groove 505 are sized so that insertion knob 110 can move in a proximal/distal path along the handle 10.
- Insertion knob 110 has a raised portion 112 used for applying force to move insertion knob 110 proximally and distally along handle 10.
- Insertion knob 110 is attached to rod 511, which is located within interior space 521 of the handle 10.
- Rod 511 engages insertion rod 541 by way of set screw 520 which is accessible through hole 515.
- Hole 515 is desirably of sufficient size to permit complete removal of set screw 520 from the instrument, permitting insertion knob 110 to be removed from handle 10 and the instrument to be cleaned and sterilized.
- Insertion shaft 540 has a proximal end that fits within the distal portion of the bore of handle 10.
- Set screw 530 is inserted through hole 535, and engages insertion shaft 540 with handle 10. It is desirable for hole 535 to be of sufficient size for set screw 530 to be completely removed, permitting cleaning and sterilization of the component parts of instrument 500.
- Insertion rod 541 extends through the full length of the bore of instrument 500, and has a proximal portion sized to accommodate spring 525. When installed in handle 10, insertion rod 541 compresses spring 525. The distal end of spring 525 is held in place by handle end cap 501 , which, along with handle 10 can be made of, by way of example, Gray ULTEM TM . Handle end cap 501 is engaged with handle 10 by means of threads. Thus, for disassembly, handle end cap 501 can be disengaged from handle 10, and spring 525 and insertion rod 541 can be removed from the proximal end of handle 10. When assembled, rod 511 and insertion knob 110 are urged by spring 525 in a distal direction.
- insertion knob 110 or rod 511 reach the distal wall of space 521.
- Spring 525 is further compressed by manual movement of insertion knob 110 in a proximal direction, acting via insertion rod 511. Because insertion rod 541 is engaged with rod 511 , insertion rod 541 is drawn proximally by proximal movement of insertion knob 110.
- spring 525 urges insertion rod 541 and insertion knob 110 in a distal direction. As insertion rod 541 is urged distally, driver 555 is urged toward the distal end of insertion instrument 500 as well.
- Driver knob 502 is provided at the proximal end of instrument 500.
- Driver knob 502 can be made of, by way of example, Gray ULTEM TM .
- Driver knob 502 has a bore into which the proximal most extension of insertion rod 541 is placed. Insertion rod 541 is held within driver knob 502 by means of set screw 504 within hole 503. It can be desirable for hole 503 to be sufficiently large so that set screw 504 can be completely removed from driver knob 502 for cleaning and sterilization.
- Insertion rod 541 desirably is free to rotate about its longitudinal axis, so that when driver knob 504 is rotated, driver 555 is rotated.
- set screws 120, 130 of main body insertion instrument 100, and set screws 520, 530, and 504 of universal wing insertion instrument 500 can be removed using a hex screw driver, having a hexagonal driver head made of, by way of example, 455 stainless steel. Such removal can be used to disassemble the instruments 100 and 500 for cleaning.
- Figures 7a - 7c depict details of insertion tip 30 of wing insertion instrument 500 of this invention.
- Figure 7a is an end-view of the distal end of insertion tip 30, showing driver 555, alignment pins 560, and surfaces 547 and
- An edge of universal wing 800 can abut surface 547 to provide support during the insertion of universal wing 800.
- a surface of universal wing 800 can abut surface 565 to provide additional support of universal wing 800.
- Figure 7b depicts a bottom view of insertion tip 30 of wing insertion instrument 500. Insertion rod 541 is depicted in a distal position, within insertion shaft 540. Driver 555 is shown extending into space 567 of insertion tip 30.
- Figure 7c depicts a bottom view of the insertion tip 30 as shown in Figure 7b with the driver 555 and insertion rod 541 in a proximal position, with the distal-most end of driver 555 retracted from the space 567. In this position, mounting ring 816 of Figure 8 (below) of a universal wing can be received in space 567.
- Figures 8a - 8c depict a universal wing 800 of the invention for use with the wing insertion instrument 500 of the invention.
- Figure 8a is a lateral view of universal wing 800, having caudad portion 801 and cephalad portion 802.
- Alignment holes 806 are adapted to receive alignment pins 560 of wing insertion instrument 500. Although two alignment holes 806 are depicted, additional or fewer alignment holes can be provided. Between caudad portion 801 and cephalad portion 802, mounting ring 816 is provided having an oblong bore therethrough to receive shaft 814 of bolt 812. Bolt 812 has a proximal end with a recess 813 adapted to receive driver 555 of instrument 500. The distal end of bolt 812 is threaded to engage with hole 408 of a tissue expander 407 depicted in Figures 4a - 4c. The oblong bore has partial threads that allow a bolt to be screwed through the bore with the smooth shaft of the bolt then trapped in the bore.
- Figure 8b is a side view of universal wing 800 without bolt 812, depicting mounting ring 816 with oblong bore 817 therethrough. Alignment holes 806 are shown as dashed lines.
- Figure 8c depicts a similar view of universal with 800 with bolt 812 provided. Hex recess 813, adapted to receive driver 555 of instrument 500 is shown. Hole 817 is oblong to provide a choice of positions of bolt 812 within bore 817. By providing a choice of bolt positions, the surgeon can install universal wing with a desired spacing between universal wing 800 and main body wing 401.
- Figures 9a - 9c depict the relationships between wing insertion instrument 500 of this invention and the universal wing 800 of the invention.
- Figure 9a depicts a lateral view of the insertion tip 30, with driver 555 in space 567 and alignment pin 560. Insertion rod 541 is shown within insertion shaft 540.
- universal wing 800 having bolt 812 with recess 813, mounting ring 816, alignment hole 806, and caudad wing portion 801.
- the axes of driver 555 and alignment pin 560 which in this embodiment cross each other and can be substantially perpendicular if desired, are shown in relation to recess 813 and alignment hole 806, respectively.
- Figure 9b depicts a lateral view of insertion tip 30 engaged with universal wing 800.
- Driver 555 is received by recess 813 in bolt 812 and alignment pin 560 is received by alignment hole 806.
- Bolt 812 is received within recess 567 of insertion tip 30, and when insertion shaft 541 is rotated, bolt 812 can rotate.
- Figure 9c depicts a bottom view of insertion tip 30 and universal wing
- Trial Implant Instruments Spinal implant surgery can be carried out by using specially designed instruments to determine the correct size of an implant to be used and to predistract the spinous process.
- the instruments incorporating trial implants comprise a handle, made of a convenient material, for example, Gray ULTEM TM .
- Figures 10a - 10d depict four embodiments of trial implant instruments of the invention.
- Figure 10a - 10d depict instruments 1000, 1001 , 1002, and 1003 of this invention, each having handle 1006 and insertion shaft 1007.
- the instruments differ in the size of the trial implant for each.
- Trial implant 1010 is the smallest, implant 1011 , 1012, and 1013 become progressively larger, corresponding to instruments 1000, 1001 , 1002 and 1003, respectively.
- trial implants in the embodiment are cylindrical in shape with diameters of 6 mm, 8 mm, 10 mm, and 12 mm, respectively.
- the trial implants have a lead-in nose, guide, or tissue expander that is cone shaped.
- Other shapes such as elliptical shapes, oval shapes, and egg-shapes are within the scope of the invention.
- the nose can be of other shapes such as pyramid shaped.
- these trial implant instruments are used one after the other to size the implant location and to progressively distract the implant location in preparation for insertion of the implant, which is left in the patient.
- a patient is placed, desirably in a lateral decubitus position with maximum flexion of the lumbar spine.
- Lateral decubitus position permits easy orientation of the main body assembly during surgery.
- the implant can be inserted between the spinous processes from the bottom or right side of the spinous processes to the top or left side of the spinous processes.
- Such orientation permits easy visualization of the main body assembly when the universal wing is attached.
- the wings should be oriented properly, with cephalad portions 402 and 802 oriented in a cephalad direction, and caudad portions 402a and 801 oriented in a caudal direction.
- the field is prepared for sterile surgery, and local anesthesia of the area is provided. Once the entry point is determined, local anaesthetic is applied to the skin and the underlying musculature.
- a midline incision about 1.5 inches long is made at the entry point, exposing the supraspinous ligament overlying the spinous processes at the symptomatic level.
- the fascia may be incised on either side of the spinous processes and supraspinous ligament.
- the paraspinous musculature can be elevated laterally from both sides of the midline.
- the supraspinous ligament is desirably preserved.
- the interspinous ligament may be separated to permit insertion of main body assembly 400.
- a midline incision about 3 inches long is made at the entry point, exposing the supraspinous ligament overlying the spinous processes at the appropriate segments.
- the fascia is incised if necessary on either side of the spinous processes and supraspinous ligament.
- the paraspinous musculature can be elevated laterally from both sides of the midline.
- the first implant 400 can be inserted at the inferior level, and the second implant 400 of the same or different size, can be inserted at the superior, adjacent level after the first implant has been completely secured. If the supraspinous ligament is compromised during the procedure, it can be desirable to suture the excision in the ligament closed after insertion of the spinal implant.
- the intraspinous space is prepared using trial implants.
- the surgeon can first select the smallest trial implant, for example, trial implant 1000.
- the trial implant 1000 is urged between the spinous processes of the patient, and if little resistance is encountered, the surgeon can select a larger sized trial implant, such as trial implant 1001. If insufficient resistance is encountered, the surgeon can use progressively larger trial implants to distract the spinous process.
- the spinal implant 400 is then chosen for insertion. Additionally, the surgeon may choose to use a trial implant instrument that is larger than the implant to be used in order to further distract the spinous process to make the insertion of the implant easier.
- a surgeon or assistant engages such assembly with main body insertion instrument 100 of this invention.
- tissue expander 407 of the main body assembly is advanced through the interspinous ligament. If significant resistance is encountered during the insertion of the implant, the next smallest size main body assembly can be used. Once the correct sized implant has been selected, the main body implant is inserted as shown in Figures 11a and 11b.
- Figure 11a depicts a right lateral view of a portion of a spine of a patient.
- L4 and L5 refer to lumbar vertebrae 4 and 5, respectively. For purposes of illustration only, these lumbar segments are depicted. However, any spinal segments can be the sites of insertion of the implants by use of the instruments of this invention.
- L4-5D refers to the intravertebral disk.
- L4D and L5D refer to the dorsal spinous processes of L4 and L5, respectively.
- Main body insertion instrument 100 having insertion tip 30 attached to main body assembly 400 is shown in position. Cephalad portion 402 and caudad portion 402a of a main body wing are shown. It can be desirable to urge main body assembly 400 ventrally within intraspinous space 1005.
- Figure 11b depicts a dorsal view of an inserted main body assembly 400.
- Spacer 405 is shown between dorsal spinous processes L4D and L5D.
- Main body wing 401 is shown near the right lateral surfaces of spinous processes L4D and L5D.
- Figure 12 depicts a left lateral view of the L4-L5 area of a patient.
- the main body assembly 400 has been inserted, and the tissue expander 407 is shown, urged ventrally in intraspinous space 1005.
- Main body wing portions 402 and 402a are shown in dashed lines, being located behind (i.e., the right of) the spinous process L4D and L5D, respectively.
- Threaded hole 408 in tissue expander 407 is shown, and axis (dashed lines) is shown to depict the insertion of threaded portion 815 of bolt 812 of universal wing 800.
- Insertion tip 30 of wing insertion instrument 500 is shown, with a universal wing engaged 800, as depicted in Figures 9b and 9c.
- the engaged wing is shown from the top view, in contrast to the view of Figure 9c, which is from the bottom.
- the surgeon While grasping main body insertion instrument 100, the surgeon inserts the universal wing with wing insertion instrument 500.
- bolt 812 can be inserted into hole 408 of the tissue expander 407, and by rotation of the driver knob 50 of Figure 5 in a clockwise direction, driver 555 can rotate bolt 812 thereby engaging threads of the threaded end 815 with the threads of hole 408.
- driver knob 50 should be rotated in a counterclockwise direction to engage bolt 812 with threaded hole 408.
- FIG. 13 depicts a dorsal view of the spine of a patient, depicting an installed main body assembly 400 with universal wing 800 attached thereto.
- Universal wing portion 802 is shown oriented in the cephalad direction, as is main body wing portion 402.
- Caudad wing portions 801 and 402a are shown oriented in the caudal direction.
- Wing element 400, 402a are shown near the right lateral surface of the spinous process.
- Universal wing 800 is shown placed near the left lateral surfaces of the spinous process. Adjustment of the spacing between universal wing 800 and the spinous process is accomplished by urging the wing medially before tightening bolt 812 in oblong mounting ring 817.
Abstract
Description
Claims
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AU2001282926A AU2001282926A1 (en) | 2000-07-21 | 2001-07-20 | Spinal implants, insertion instruments, and methods of use |
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US22002200P | 2000-07-21 | 2000-07-21 | |
US60/220,022 | 2000-07-21 | ||
US09/799,470 US6902566B2 (en) | 1997-01-02 | 2001-03-05 | Spinal implants, insertion instruments, and methods of use |
US09/799,470 | 2001-03-05 |
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WO2002007624A1 true WO2002007624A1 (en) | 2002-01-31 |
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PCT/US2001/023006 WO2002007624A1 (en) | 2000-07-21 | 2001-07-20 | Spinal implants, insertion instruments, and methods of use |
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US (2) | US6902566B2 (en) |
AU (1) | AU2001282926A1 (en) |
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Also Published As
Publication number | Publication date |
---|---|
US20040193159A1 (en) | 2004-09-30 |
AU2001282926A1 (en) | 2002-02-05 |
US6902566B2 (en) | 2005-06-07 |
US20010020170A1 (en) | 2001-09-06 |
US7510567B2 (en) | 2009-03-31 |
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