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An electrosurgical device including a reinforcing underlayment having a non-stick, anti-microbial coating. In one embodiment, the coating includes a non-stick material having anti-microbial particles interspersed in the non-stick material. This coating is applied to the surfaces of the electrode to

An electrosurgical device including a reinforcing underlayment having a non-stick, anti-microbial coating. In one embodiment, the coating includes a non-stick material having anti-microbial particles interspersed in the non-stick material. This coating is applied to the surfaces of the electrode to minimize the build-up of charred tissue on the surfaces of the electrode. Also, the coating tends to kill harmful organisms residing on the surfaces of the electrode. In another embodiment, a primer coating is initially applied to the surfaces of the electrode. A plurality of anti-microbial particles are then applied to the primer coating layer and engage and are embedded in the primer coating layer. A top coat including a non-stick material is applied to the anti-microbial particle layer. In either embodiment, the coating layers applied to the surfaces of the electrode are cured to harden and adhere the layers to the electrode.

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The invention claimed is: 1. An electrosurgical electrode connectible to a handle, said electrosurgical electrode comprising: a conductive substrate; and at least one substantially uniform coating applied to said substrate, wherein the coating includes a cured base material having a plurality of an

The invention claimed is: 1. An electrosurgical electrode connectible to a handle, said electrosurgical electrode comprising: a conductive substrate; and at least one substantially uniform coating applied to said substrate, wherein the coating includes a cured base material having a plurality of anti-microbial particles interspersed in said base material, wherein said anti-microbial particles are at least partially electrostatically bonded to said base material and are formulated to kill a microbial organism independent of any energy source. 2. The electrosurgical electrode of claim 1, wherein the conductive substrate includes a metal. 3. The electrosurgical electrode of claim 2, wherein the metal includes stainless steel. 4. The electrosurgical electrode of claim 1, which includes an electrically insulative material applied to at least a portion of a surface of the conductive substrate. 5. The electrosurgical electrode of claim 4, wherein a portion of the conductive substrate underneath the electrically insulative material includes the substantially uniform coating. 6. The electrosurgical electrode of claim 1, wherein the base material includes a non-stick material. 7. The electrosurgical electrode of claim 6, wherein the non-stick material includes at least one of the non-stick materials selected from the group consisting of: a silicone, a polytetrafluoroethylene, a fluoropolymer, a ceramic and a combination of fluorosilicones. 8. The electrosurgical electrode of claim 1, wherein the anti-microbial particles include at least one of the group consisting of: silver particles, ceramic particles and a combination of silver and ceramic particles. 9. The electrosurgical electrode of claim 1, wherein the anti-microbial particles includes silver particles. 10. The electrosurgical electrode of claim 9, wherein a first quantity of anti-microbial particles in the substantially uniform coating is formulated to conduct electricity a first amount and a second, greater quantity of anti-microbial particles in the substantially uniform coating is formulated to conduct electricity a second, greater amount. 11. The electrosurgical electrode of claim 9, wherein a first density of anti-microbial particles applied to a surface of the substrate is formulated to conduct electricity a first amount and a second, greater density of anti-microbial particles applied to the surface of the substrate is formulated to conduct electricity a second, greater amount. 12. The electrosurgical electrode of claim 1, wherein at least part of the conductive substrate forms a shape selected from the group consisting of: a blade, a scalpel, a needle, a probe, a knife, a wire and a ball. 13. The electrosurgical electrode of claim 1, which includes at least one additional coating of anti-microbial particles applied on top of the substantially uniform coating. 14. The electrosurgical electrode of claim 1, wherein the base material is electrostatically grounded. 15. The electrosurgical electrode of claim 1, wherein the anti-microbial particles are electrostatically charged. 16. The electrosurgical electrode of claim 1, which includes a plurality of different sized anti-microbial particles. 17. The electrosurgical electrode of claim 1, wherein at least one of the anti-microbial particles is a shape selected from the group consisting of: flat-shaped, flake-shaped, angular-shaped, cylindrical-shaped, oblong-shaped and leaf-shaped particles. 18. A method of coating an electrosurgical device including a conductive substrate, said method comprising: (a) applying a substantially uniform coating to a surface of the conductive substrate of the electrosurgical device, said coating including an base material having a plurality of anti-microbial particles interspersed in said base material, wherein said anti-microbial particles are at least partially electrostatically bonded to the base material and are formulated to kill a microbial organism independent of any energy source; and (b) at least partially curing said base material and the particles interspersed in the base material. 19. The method of claim 18, which includes repeating (a) to (b) until a desired thickness is achieved. 20. The method of claim 18, wherein the anti-microbial particles include at least one of the group consisting of: silver particles, ceramic particles and a combination of silver and ceramic particles. 21. The method of claim 18, which includes applying an electrically insulative material to at least a portion of the surface of the conductive substrate. 22. The method of claim 21, which includes applying the substantially uniform coating to a portion of the surface of the conductive substrate which is underneath the insulative material. 23. The method of claim 18, which includes applying a wet bonding material to the surface of the conductive substrate prior to applying the substantially uniform coating to the surface of the conductive substrate. 24. The method of claim 23, wherein the wet bonding material includes a primer. 25. The method of claim 18, which includes applying at least one additional coating to the surface of the substrate after applying the substantially uniform coating to the surface of the conductive substrate. 26. The method of claim 25, wherein the additional coating includes a non-stick material. 27. The method of claim 26, wherein the non-stick material includes at least one of the non-stick materials selected from the group consisting of: a silicone, a polytetrafluoroethylene, a fluoropolymer, a ceramic and a combination of fluorosilicones. 28. The method of claim 25, wherein the additional coating includes the base material and the plurality of anti-microbial particles interspersed in the base material. 29. The method of claim 18, wherein the base material includes a non-stick material. 30. The method of claim 29, wherein the non-stick material includes at least one of the non-stick materials selected from the group consisting of: a silicone, a polytetrafluoroethylene, a fluoropolymer, a ceramic and a combination of fluorosilicones. 31. The method of claim 18, which includes a plurality of different sized anti-microbial particles. 32. The method of claim 18, wherein at least one of the anti-microbial particles is a shape selected from the group consisting of: flat-shaped, flake-shaped, angular-shaped, cylindrical-shaped, oblong-shaped and leaf-shaped particles.