Vascular occlusion device

1. A vascular occlusion device for occluding a body vessel, the device comprising:

a hub having proximal and distal ends;

a plurality of anchoring struts, each anchoring strut having a first end and a second end, the first ends being connected together at the hub, each of the second ends extending freely from the first end to engage the body vessel for anchoring the device therein;

a central strut attached to the proximal end of the hub;

proximal and distal members coupled to the central strut, wherein the proximal and distal members are proximal and distal discs respectively; and

an extracellular matrix material disposed about the central strut between the proximal and distal members, wherein the extracellular matrix material has a first thickness in a compressed delivery state for delivering the extracellular matrix material to a target location and a second thickness in an expanded deployed state for occluding the body vessel, wherein the extracellular matrix material is configured to automatically expand from the first thickness of the compressed delivery state to the second thickness of the expanded deployed state.

2. The device of claim 1 wherein the hub comprises a bore formed therethrough, the central strut being attached to the proximal end of the hub and disposed in the bore.

3. The device of claim 1 wherein the central strut is made of shape memory alloy.

4. The device of claim 3 wherein the shape memory alloy is Nitinol.

5. The device of claim 1 wherein the extracellular matrix material comprises small intestine submucosa.

6. The device of claim 1 wherein the extracellular matrix material comprises an extracellular matrix material with one or more alkaline substances.

7. The device of claim 1 wherein each of the anchoring struts extend arcuately from the first end to the second end.

8. A vascular occlusion device for occluding a body vessel, the device comprising:

a hub having proximal and distal ends;

a plurality of anchoring struts, each anchoring strut having a first end and a second end, the first ends being connected to the hub, each of the second ends extending freely from the first end to engage the body vessel for anchoring the device therein;

a central strut detachably connected to the proximal end of the hub; and

an extracellular matrix material disposed about the central strut and coupled to a portion of the plurality of struts, wherein the extracellular matrix material has a first thickness in a compressed delivery state for delivering the extracellular matrix material to a target location and a second thickness in an expanded deployed state for occluding the body vessel, wherein the extracellular matrix material is configured to automatically expand from the first thickness of the compressed delivery state to the second thickness of the expanded deployed state.

9. The device of claim 8 wherein the hub comprises a bore formed therethrough, the central strut being attached to the proximal end of the hub into the bore.

10. The device of claim 8 wherein the central strut is made of shape memory alloy.

11. The device of claim 10 wherein the shape memory alloy is Nitinol.

12. The device of claim 8 wherein the extracellular matrix material comprises small intestine sub mucosa.

13. The device of claim 8 wherein the extracellular matrix material comprises an extracellular matrix material with one or more alkaline substances.

14. The device of claim 8 wherein each of the anchoring struts extend arcuately from the first end to the second end.

15. A method of occluding a body vessel, the method comprising:

introducing a vascular occlusion device through a delivery catheter, the device comprising:

a hub having proximal and distal ends;

a plurality of anchoring struts, each anchoring strut having a first end and a second end, the first ends being connected together at the hub, each of the second ends extending freely from the first end to engage the body vessel for anchoring the device therein;

a central strut attached to the proximal end of the hub;

an extracellular matrix material disposed about the central strut, wherein the extracellular matrix material has a first thickness in a compressed delivery state for delivering the extracellular matrix material to a target location and a second thickness in an expanded deployed state for occluding the body vessel; and

proximal and distal members slidably disposed about the central strut wherein the extracellular matrix is disposed between the proximal and distal members;

pushing the anchoring struts through the catheter to engage the body vessel for anchoring the device therein;

automatically radially expanding the extracellular matrix material from the first thickness of the compressed delivery state to the second thickness of the expanded deployed state; and

absorbing blood in the extracellular matrix material to occlude the body vessel.

16. The method of claim 15 wherein pushing the anchoring struts comprises:

ascertaining the location of the anchoring struts in the body vessel; and

deploying the device in the body vessel at a point of occlusion in the body vessel.

17. The method of claim 16 wherein ascertaining the location comprises:

repositioning the anchoring struts within the body vessel to the point of occlusion in the body vessel.

18. A vascular occlusion device for occluding a body vessel, the device comprising:

a hub having proximal and distal ends;

a plurality of anchoring struts, each anchoring strut having a first end and a second end, the first ends being connected together at the hub, each of the second ends extending freely from the first end to engage the body vessel for anchoring the device therein;

a central strut attached to the proximal end of the hub;

proximal and distal members coupled to the central strut, wherein the proximal and distal members are slidably disposed about the central strut; and

an extracellular matrix material disposed about the central strut between the proximal and distal members, wherein the extracellular matrix material has a first thickness in a compressed delivery state for delivering the extracellular matrix material to a target location and a second thickness in an expanded deployed state for occluding the body vessel, wherein the extracellular matrix material is configured to automatically expand from the first thickness of the compressed delivery state to the second thickness of the expanded deployed state.