Spinal stabilization systems and methods of use

1. An orthopedic implant, comprising:

a first bone abutment surface movably joined at a coupling to a first segment of a first connecting member;

a second bone abutment surface movably joined to a first segnent of a second connecting member, said first bone abutment surface being aligned to face said second bone abutment surface; and

a locking member positioned between each of said first and said second bone abutment surfaces and comprising a first side wall, a second side wall, at least one connecting wall configured to extend therebetween, and an internal cavity at least partially bound by said walls;

wherein a second segment of said first connecting member enters said internal cavity through an aperture of said first side wall, a second segment of said second connecting member enters said internal cavity through an aperture of said second side wall;

wherein an actuator member enters said internal cavity through an aperture of said connecting wall; and

wherein said actuator member extends from a first end to a second end along a central axis and, upon advancement in a first direction, concurrently causes advancement of each of said first and said second bone abutment surfaces towards said locking member positioned therebetween; and

wherein said first and second bone abutment surfaces are each divided into a first and a second bone abutment segment by a plane that includes said central axis of said actuator member.

2. The implant of claim 1 , wherein said first connecting member is coupled to said first bone abutment member at said first segment of said first connecting member and coupled to said locking member at said second segment of said first connecting member.

3. The implant of claim 2 , wherein said movably joining of said first connecting member and said first bone abutment member permits rotational movement between them.

4. The implant of claim 1 , wherein said second connecting member is coupled to said second bone abutment member at said first segment of said second connecting member and coupled to said locking member at said second segment of said second connecting member.

5. The implant of claim 4 , wherein said movably joining of said second connecting member and said second bone abutment member permits rotational movement between them.

6. The implant of claim 1 , wherein at least one of said first and second bone abutment surfaces comprises a feature configured to increase fixation onto bone.

7. The implant of claim 1 , wherein advancement of said actuator in said first direction concurrently causes advancement of each of said first and said second bone abutment surfaces towards one another.

8. The implant of claim 1 , wherein advancement of said actuator in a second direction concurrently causes retraction of each of said first and said second bone abutment surfaces away from said locking member positioned therebetween.

9. The implant of claim 1 , wherein advancement of said actuator in a second direction concurrently causes retraction of each of said first and said second bone abutment surfaces away from one another.

10. The implant of claim 1 , wherein said actuator comprises a screw.

11. The implant of claim 1 , wherein said implant is at least partially manufactured from at least one of: a metallic material or a plastic material.

12. An orthopedic implant, comprising:

a first bone abutment surface movably joined to a first segment of a first interconnecting member at a first coupling;

a second bone abutment surface movably joined to a first segment of a second interconnecting member at a second coupling, said first bone abutment surface being aligned to face said second bone abutment surface; and

a locking assembly movably joined to each of said first and second interconnecting members and being positioned an equal distance from each of said first coupling and said second coupling, said locking assembly having a first side wall, a second side wall, at least one connecting wall configured to extend therebetween, and an internal cavity at least partially bound by said walls;

wherein said internal cavity is entered by: a) a second segment of said first interconnecting member through an aperture of said first side wall; b) a second segment of said second interconnecting member through an aperture of said second side wall and c) an actuator member through an aperture of said connecting wall;

wherein said actuator member extends from a first end to a second end along a central axis and comprises a segment seated within a receiving member that is at least partially positioned within said internal cavity; and

wherein translation of said receiving member relative to said actuator member along said central causes concurrent advancement of each of said first and said second bone abutment surfaces towards one another.

13. The implant of claim 12 , wherein said coupling between said first interconnecting member and said first bone abutment member permits rotational movement between said first interconnecting member and said first bone abutment member.

14. The implant of claim 12 , wherein at least one of said first and second bone abutment surfaces comprises a feature configured to increase fixation onto bone.

15. The implant of claim 12 , wherein said translation of said receiving member relative to said actuator member causes concurrent advancement of each of said first and said second bone abutment surfaces towards one another.

16. The implant of claim 15 , wherein translation said member of said locking feature in a second direction causes concurrent retraction of each of said first and said second bone abutment surfaces away from one another.

17. The implant of claim 12 , wherein said actuator member comprises a screw.

18. The implant of claim 12 , wherein said implant is at least partially manufactured from at least one of: a metallic material or a plastic material.

19. A method for stabilization of a spinal segment comprising a superior vertebral bone and an immediately adjacent inferior vertebral bone, said method comprising:

approaching a posterior aspect of said spinal segment;

identifying an inter-spinous space, said inter-spinous space being positioned between a spinous process of said superior vertebral bone and a spinous process of said inferior vertebral bone;

positioning a central body of an orthopedic implant at least partially within said inter-spinous space;

positioning a first bone abutment surface of said orthopedic implant on a left side of each of said spinous process of said superior vertebral bone and of said spinous process of said inferior vertebral bone;

positioning a second bone abutment surface of said orthopedic implant on a right side of each of said spinous processes of said superior vertebral bone and of said spinous process of said inferior vertebral bone; and

positioning a first segment and a second segment of said first bone abutment surface to abut each of said left side surface of said spinous process of said superior vertebral bone and said left side surface of said spinous process of said inferior vertebral bone, respectively;

wherein said first bone abutment surface comprises a monolithic structure that is movably joined to a first segment of a first connecting member, said second bone abutment surface is movably joined to a first segment of a second connecting member and said first bone abutment surface is aligned to face said second bone abutment surface;

wherein an advancement feature of said central body is configured to contact said first and second connecting members to cause a concurrent movement of each of said first and second bone abutment surfaces towards said central body.

20. The method of claim 19 , further comprising actuating said advancement feature by rotating an actuator member of said advancement feature in a first direction.

21. The method of claim 20 , wherein rotation of said actuator member in a second direction opposite said first direction causes concurrent movement of each of said first and second bone abutment surfaces away from one another.

22. The method of claim 19 , further comprising capturing each of said spinous process of said superior and inferior vertebral bones between said first and second bone abutment surfaces, said capturing being enhanced via a bone engagement feature on at least one of first and second bone abutment surfaces.