Prosthetic socket systems and methods

1. A multi-layer prosthetic socket, comprising:

a rigid premade outer shell socket with an asymmetric inner surface contour with curves forming an inner depression to capture an insert socket with corresponding surface features;

a customized prosthetic insert socket with:

an asymmetric outer contour with outer curves forming an outer protrusion that corresponds to the inner depression of the asymmetric inner surface contour of the rigid premade outer shell socket,

wherein the asymmetric inner surface contour of the rigid premade outer shell socket operates to capture and secure the customized prosthetic insert socket within the rigid premade outer shell socket upon insertion of the customized prosthetic insert socket into the rigid premade outer shell socket,

an inner contour that corresponds to a residual limb surface contour of a residual limb of a patient, wherein the inner contour of the customized prosthetic insert socket can be adjusted to fit the residual limb surface contour without modifying the asymmetric outer contour of the customized prosthetic insert socket,

fastener-receiving apertures reinforced with a reinforcement material, and

a plurality of bladders formed within the customized prosthetic insert socket to be selectively filled to apply pressure on the residual limb of the patient,

wherein the asymmetric outer contour of the customized prosthetic insert socket is different than the inner contour of the customized prosthetic insert socket, such that the asymmetric outer contour of the customized prosthetic insert socket is non-conformal with the residual limb surface contour;

an attachment puck integrated within the rigid premade outer shell socket, the attachment puck comprising:

thru-bores to receive fasteners to fasten the rigid premade outer shell to the customized prosthetic insert socket, and

attachment features for fastening a prosthetic limb to the attachment puck; and

a bladder control device to control the selective filling of the plurality of bladders in the customized prosthetic insert socket.

2. The multi-layer prosthetic socket of claim 1 , further comprising an O-ring between the customized prosthetic insert socket and the rigid premade outer shell socket.

3. The multi-layer prosthetic socket of claim 1 , wherein the bladder control device comprises a pump to control the selective filling of the bladders with a fluid.

4. The multi-layer prosthetic socket of claim 1 , wherein the rigid premade outer shell socket comprises at least one of fiberglass and carbon fiber.

5. The multi-layer prosthetic socket of claim 1 , wherein the customized prosthetic insert socket is three-dimensionally printed via a three-dimensional printer.

6. The multi-layer prosthetic socket of claim 1 , further comprising a perspiration collection subsystem to expel perspiration from the customized prosthetic insert socket.

7. A prosthetic system, comprising:

a rigid premade outer shell socket with an asymmetric inner surface contour with curves forming an inner depression to capture an insert socket with corresponding surface features;

an attachment puck to facilitate fastening of a prosthetic limb to the rigid premade outer shell socket;

a customized prosthetic insert socket with:

an asymmetric outer contour with curves forming an outer protrusion that corresponds to the inner depression of the asymmetric inner surface contour of the rigid premade outer shell socket, and

an inner contour that corresponds to a residual limb surface contour of a patient,

wherein the outer protrusion of the asymmetric outer contour of the customized prosthetic insert socket and the inner depression of the asymmetric inner surface contour of the rigid premade outer shell socket interact to selectively secure the customized prosthetic insert socket within the rigid premade outer shell socket,

wherein the asymmetric outer contour of the customized prosthetic insert socket is different than the inner contour of the customized prosthetic insert socket, such that the asymmetric outer contour of the customized prosthetic insert socket is non-conformal with the residual limb surface contour;

at least one bladder to be selectively filled and unfilled to adjust a fit between the inner contour of the customized prosthetic insert socket without changing the asymmetric outer contour of the customized prosthetic insert socket; and

a pump integrated within the attachment puck to selectively fill the at least one bladder.

8. The prosthetic system of claim 7 , wherein the at least one bladder is integrated within the customized prosthetic insert socket between the asymmetric outer contour of the customized prosthetic insert socket and the inner contour of the customized prosthetic insert socket.

9. The prosthetic system of claim 7 , wherein the pump integrated within the attachment puck comprises one of a manually controlled pump and an electronically controlled pump.

10. The prosthetic system of claim 7 , wherein the rigid premade outer shell socket comprises at least one of fiberglass and carbon fiber.

11. The prosthetic system of claim 7 , wherein the customized prosthetic insert socket is three-dimensionally printed via a three-dimensional printer.

12. The prosthetic system of claim 7 , further comprising a perspiration collection subsystem to expel perspiration from the customized prosthetic insert socket.

13. A method comprising:

determining a surface contour of a residual limb of a patient;

selecting a rigid premade outer shell socket of a particular size from a plurality of rigid premade outer shell socket sizes based on a dimension of the surface contour of the residual limb of the patient;

determining an asymmetric inner surface contour of the selected rigid premade outer shell socket that includes curves forming an inner depression to capture an insert socket with corresponding surface features;

printing, via a three-dimensional printer, a prosthetic insert socket with:

an inner contour that corresponds to the surface contour of the residual limb of the patient,

an asymmetric outer contour with outer curves forming an outer protrusion that corresponds to the inner depression of the asymmetric inner surface contour of the selected rigid premade outer shell socket,

wherein the asymmetric outer contour of the prosthetic insert socket is different than the inner contour of the prosthetic insert socket, such that the asymmetric outer contour of the prosthetic insert socket is non-conformal with the surface contour of the residual limb, and

a plurality of voids within the prosthetic insert socket between the asymmetric outer contour of the prosthetic insert socket and the inner contour of the prosthetic insert socket with a connection void to form a tube to connect the plurality of voids to a pump;

inserting the residual limb of the patient within the prosthetic insert socket;

inserting the prosthetic insert socket within the rigid premade outer shell socket to cause the inner depression of the rigid premade outer shell socket to interact with the outer protrusion of the asymmetric outer contour of the prosthetic insert socket, such that the prosthetic insert socket is captured within the rigid premade outer shell socket; and

filling the plurality of voids with a pump to adjust a fit between the inner contour of the prosthetic insert socket and the residual limb of the patient without modifying the asymmetric outer contour of the prosthetic insert socket.

14. The method of claim 13 , wherein each of the plurality of voids is selectively filled with a gas.

15. The method of claim 13 , wherein each of the plurality of voids is selectively filled with a liquid.

16. The method of claim 13 , further comprising:

connecting a prosthetic limb to an attachment puck integrated within the selected rigid premade outer shell socket.