Continuously rotatable plug

1. A rotating electrical socket or plug adaptor comprising:

a. a housing having a front surface defining an orifice therein;

b. a faceplate rotatably coupled to the front surface of the housing across the orifice, the faceplate defining a plurality of slots therein, configured to receive and engage a plurality of male connector prongs;

c. a plurality of female connector members, each of the plurality of female connector members operably coupled to each of the plurality of slots; and

d. a toroidal ring component having an upper planar portion, a lower planar portion, an outer rotating arc surface and an inner rotating arc surface,

i. the upper planar portion comprising a plurality of poloidally distributed conductor tracks extending toridally on the inner rotating arc surface;

ii. the lower planar portion comprising a plurality of poloidally distributed conductor tracks extending toridally on the outer rotating arc surface, wherein each of the poloidally distributed conductor tracks extending toridally on the outer rotating arc:

wherein at least one of the poloidally distributed conductor tracks extending toridally on the outer rotating arc surface is electrically slidably coupled, and wherein the each of the plurality of the female connector members is configured to electrically couple to a corresponding poloidally distributed conductor track extending toridally on the inner rotating arc surface of the toroidal ring component upon insertion of the male connector prong.

2. The socket of clam 1 , wherein the orifice defined in the front surface further comprises a rearward extending circular ring and wherein the faceplate further defines a circular channel configured to rotatbly couple to the rearward extending ring.

3. The socket of claim 1 , wherein each of the female connector member comprises:

a. a front arcuate elongated slab having an outer frontal convex surface with a transverse shelf disposed basally;

b. a rear arcuate elongated slab having an outer posterior convex surface with a transverse shelf disposed basally;

c. a biasing member configured to bias the front arcuate elongated slab towards the rear arcuate elongated slab; and

d. a resilient contact rod extending apically from the rear arcuate elongated slab,

wherein the faceplate defines a front arcuate groove configured to accommodate and engage the transverse shelf basally disposed in the front arcuate elongated slab and a posterior arcuate groove configured to accommodate and engage the transverse shelf basally disposed in the rear arcuate elongated slab, and wherein the distance between the axial center of the front arcuate elongated slab and the axial center of the is smaller than the width of the male connector prong.

4. The socket of claim 3 , wherein the male connector comprises an elongated prong slab having an arcuate tip, the elongated prong slab configured to extend beyond the apical end of the front arcuate elongated slab of the female connector and beyond the apical end of the rear arcuate elongated slab of the female connector.

5. The socket of claim 4 , wherein the resilient contact rod is configured to abut a corresponding poloidally distributed conductor track extending toridally on the inner rotating arc surface of the toroidal ring component upon insertion of the male connector.

6. The socket of claim 5 , wherein the resilient contact rod further comprises an arcuate tab extending apically from the contact rod.

7. The socket of claim 6 , wherein the resilient contact rod further comprises an elbow extending forward from the rear arcuate elongated slab and wherein the arcuate tip of the male connector is configured to abut the elbow.

8. The socket of claim 7 , wherein the male connector prong, front arcuate elongated of the female connector member, arcuate elongated of the female connector member, and the contact rod are each made of conductive material.

9. The socket of claim 1 , wherein toroidal ring component having an upper planar portion, a lower planar portion, an outer rotating arc surface and an inner rotating arc surface,

a. the upper planar portion comprising three poloidally distributed conductor tracks extending toridally on the inner rotating arc surface; and

b. the lower planar portion comprising three poloidally distributed conductor tracks extending toridally on the outer rotating arc surface,

wherein each of the three poloidally distributed conductor tracks extending toridally on the outer rotating arc surface is in electric communication with a diametrically opposing poloidally distributed conductive track extending toridally on the inner rotating arc surface.

10. The socket of claim 1 , wherein the toroidal ring component is defined by an oblate spheroid rotating about an axis coplanar with the oblate spheroid's minor axis.