Bioelectric implant and method
Bioelectric implants are provided in three distinct embodiments, namely a bone/tissue anchor, a suture construction, and a plate. The bioelectric implants function in dual capacities as both fixation devices, and as galvanic cells for the production of electrical energy used for therapeutic purposes in tissue regeneration and healing. The bioelectric anchor may take the general form of a screw or pin having a hollow interior or cavity that extends through the body of the anchor. A coating can be applied to the cavity to form the anode portion of the galvanic cell. The outer surface of the anchor serves as a cathode. Bodily fluids and tissue act as an electrolyte to facilitate the chemical reactions necessary for the galvanic cell. For the suture construction, one or more strands of material are the cathode, and one or more strands of peripheral surrounding material act as the anode. Bodily fluids/tissue in contact with the suture act as an electrolyte. The bioelectric plate can be used in combination with the bioelectric anchor to supplement delivery of electrical energy. The plate has anode and cathode portions also making it a source of electrical energy.
1. A bioelectric implant comprising:
a body forming a cathode portion, said body having an external surface, and a plurality of protrusions including threads formed over the body and extending from said outer surface; said body further having a central opening formed therein defining a cavity;
an anode portion formed within and exposed to said cavity, said anode portion being made of a dissimilar material as compared to said cathode portion,
a plurality of perforations formed through said body and separated from said threads;
said bioelectric implant forming a galvanic cell in which bodily fluids/tissue act as electrolytes to facilitate a galvanic reaction for production of electrical energy; and
wherein said cavity remains open such that said bodily fluids/tissue contact said body including said cavity.
2. An implant, as claimed in claim 1 , further including:
at least one suture routed through a perforation of said plurality of perforations.
3. An implant, as claimed in claim 1 , wherein:
said body has a first part and second part, said first part having first and second ends, and said second part having first and second ends, said second end of said first part engaging said first end of said second part.
4. An implant, as claimed in claim 3 , further including:
a tab extending away from said second part, and said tab extending exteriorly from and adjacent to said first part.
5. A bioelectric implant comprising:
a body forming a cathode portion, said body having an external surface, and a plurality of protrusions extending from said outer surface; said body further having a central opening formed therein defining a cavity;
an anode portion formed within said cavity, said anode portion being made of a dissimilar material as compared to said cathode portion,
a plurality of perforations formed through said body;
wherein said bioelectric implant forms a galvanic cell in which bodily fluids/tissue act as electrolytes to facilitate a galvanic reaction for production of electrical energy; and
a bioelectric suture contacting said bioelectric implant, said bioelectric suture including a core forming an anode portion, and at least one peripheral member forming a cathode portion, wherein said bioelectric suture generates electrical energy by contact of said suture with bodily fluids/tissue that acts as an electrolyte.
6. An implant, as claimed in claim 1 , wherein:
said anode portion is formed as a coating upon a portion of said body within said cavity.
7. A method of generating electrical energy for purposes of healing/regeneration of tissue, said method comprising:
a body forming a cathode portion, said body having an external surface, and a plurality of protrusions extending from said outer surface; said body further having a central opening formed therein defining a cavity;
an anode portion formed within and exposed to said cavity, said anode portion being made of a dissimilar material as compared to said cathode portion,
a plurality of perforations formed through said body; and
emplacing the bioelectric implant in tissue of a patient; and
generating an electrical field by bodily fluids/tissue acting as an electrolyte to create a galvanic cell wherein a galvanic reaction takes place between the anode and cathode portions of said bioelectric implant, and wherein said cavity remains open such that said bodily fluids/tissue contact said body including said cavity.
8. A method, as claimed in claim 7 , further including:
adjusting the location where the electrical energy is produced by selecting a number, size, and distribution of perforations.
9. A method, as claimed in claim 7 , further including:
adjusting the potential of the electrical energy by selecting different anode and cathode materials.
10. An implant, as claimed in claim 1 , further including:
an insulating element positioned between said anode portion and said cathode portion to control the location of galvanic reactions to take place thereby isolating targeted tissue to receive electrical energy.
11. A method, as claimed in claim 7 , wherein:
said anode portion is formed as a coating upon a portion of said body within said cavity.