Treatment of skeletal voids with implantable substrate hydrated with bone marrow concentrate
The invention is directed to a bone void filler comprising a scaffold or matrix. The scaffold or matrix may include a porous inorganic matrix component and/or a 3D-printed implantable device. The bone void filler may include a cellular component containing cells, some of which are capable of making extracellular matrix resembling native bone tissue. The bone void filler may include an organic matrix, such as, an organic biopolymer that aids in cell retention and renders the scaffold or matrix moldable. The bone void filler may include growth factors and/or cytokines. The bone void filler may include a clotting agent.
1. A 3D-printed implantable device comprising:
an outer body that forms a periphery of the 3D-printed implantable device, the outer body comprising a first angled bore and a second angled bore, the first angled bore comprising a first opening that passes through a side of the 3D-printed implantable device and a second opening that passes through a top of the 3D-printed implantable device, and the second angled bore comprising a first opening that passes through the side of the 3D-printed implantable device and a second opening that passes through a bottom of the 3D-printed implantable device;
a mesh disposed within the outer body;
a pocket formed through the mesh; and
an interior wall disposed around a periphery of the pocket, the interior wall comprising a plurality of perforations that permit communication of a material to and from the mesh, wherein the plurality of perforations do not pass through an outer wall of the outer body, wherein the outer wall is substantially solid.
2. The 3D-printed implantable device of claim 1 , wherein the mesh comprises lattice-type design.
3. The 3D-printed implantable device of claim 1 , wherein the mesh has a porosity of 50-90% by volume.
4. The 3D-printed implantable device of claim 1 , wherein the mesh comprises a plurality of voids arranged to create a straight-through design when viewed from the top of the 3D-printed implantable device.
5. The 3D-printed implantable device of claim 1 , further comprising an anti-backout plate that comprises:
a first winged portion that is capable of being positioned over a head of a first screw to prevent the first screw from backing out of the first angled bore; and
a second winged portion that is capable of being positioned over a head of a second screw to prevent the second screw from backing out of the second angled bore.
6. The 3D-printed implantable device of claim 5 , further comprising:
a screw for securing the anti-backout plate to the 3D-printed implantable device; and
a bore disposed between the first angled bore and the second angled bore for receiving the screw for securing the anti-backout plate.
7. The 3D-printed implantable device of claim 6 , wherein the screw comprises a bore that passes through the screw.
8. The 3D-printed implantable device of claim 1 , further comprising an indentation disposed on an outer surface of the outer body that facilitates handling of the 3D-printed implantable device with a tool.
9. The 3D-printed implantable device of claim 1 , wherein the first and second angled bores comprise walls that separate the first and second angled bores from the mesh.
10. A system for forming a union between two bones or bony ends, the system comprising:
an implantable device comprising:
a substantially solid outer body that forms a periphery of the implantable device, the outer body comprising a first angled bore and a second angled bore, the first angled bore comprising a first opening that passes through a side of the implantable device and a second opening that passes through a top of the implantable device, and the second angled bore comprising a first opening that passes through the side of the implantable device and a second opening that passes through a bottom of the implantable device;
a 3D-printed mesh disposed within the outer body; and
a pocket formed through the 3D-printed mesh;
an interior wall disposed around a periphery of the pocket, the interior wall comprising a perforation that permits communication of a material to and from the 3D-printed mesh; and
an anti-backout plate and a screw for securing the anti-backout plate to the outer body, the screw comprising a bore that extends through the screw; and
a filler for repair or regeneration of bone tissue, the filler comprising:
a cellular component;
an inorganic component; and
an organic biopolymer.
11. The system of claim 10 , wherein the 3D-printed mesh comprises a lattice-type design.
12. The system of claim 10 , wherein the 3D-printed mesh has a porosity of 50-90% by volume.
13. The system of claim 10 , wherein the 3D-printed mesh comprises a plurality of voids arranged to create a straight-through design when viewed from the top of the implantable device.
14. The system of claim 10 , wherein the anti-backout plate comprises:
a first winged portion that is capable of being positioned over a head of a first screw to prevent the first screw from backing out of the first angled bore; and
a second winged portion that is capable of being positioned over a head of a second screw to prevent the second screw from backing out of the second angled bore.
15. The system of claim 10 , wherein the outer body and the 3D-printed mesh are both 3D printed as a single component.
16. The system of claim 10 , wherein the outer body comprises a femoral ring.
17. The system of claim 10 , wherein the filler is placed into the 3D-printed mesh and into the pocket.
18. The system of claim 10 , wherein:
the filler is placed into the 3D-printed mesh;
a second filler is placed into the pocket; and
wherein the second filler is a different filler material from the filler in the 3D-printed mesh.
19. The system of claim 10 , wherein the first and second angled bores comprise walls that separate the first and second angled bores from the 3D-printed mesh.