Capacitively coupled flat conductor connector

1. A capacitively coupled flat conductor connector, for interconnection with a female connector body provided with a female outer conductor coupling surface at a connector end of the female connector body and an alignment receptacle coupled to the female connector body; comprising:

a male connector body provided with a bore and a male outer conductor coupling surface provided at a connector end of the male connector body;

an outer conductor dielectric spacer dimensioned to cover the male outer conductor coupling surface;

an alignment insert coupled to the male connector body; the alignment insert dimensioned to support a predefined length of an inner conductor seated within the bore;

the male outer conductor coupling surface dimensioned to seat, spaced apart by the outer conductor dielectric spacer, against the female outer conductor coupling surface;

the alignment receptacle dimensioned to receive a connector end of the alignment insert to seat an overlapping portion of the inner conductor and a mating conductor seated in the alignment receptacle parallel with one another against opposite sides of a dielectric spacer.

2. The connector of claim 1 , wherein the male outer conductor coupling surface is provided with a conical outer diameter seat surface at the connector end;

the seat surface dimensioned to seat against an annular groove of the female outer conductor coupling surface.

3. The connector of claim 2 , further including a lock ring adapted to engage base tabs of the female connector body to retain the seat surface against the annular groove.

4. The connector of claim 3 , wherein the lock ring is a dielectric material.

5. The connector of claim 3 , wherein the lock ring is electrically isolated from the male connector body by a lock ring dielectric spacer.

6. The connector of claim 1 , wherein the male outer conductor coupling surface is provided with a seat surface provided on an inner diameter of the male connector body proximate the connector end; the seat surface dimensioned to seat against an inner sidewall of an annular groove of the female outer conductor coupling surface.

7. The connector of claim 6 , further including a lock ring adapted to engage threads of the female connector body to retain the seat surface against the annular groove.

8. The connector of claim 1 , wherein the outer conductor is coupled to the male connector body in a molecular bond.

9. The connector of claim 1 , further including a ramp surface on the alignment insert that seats against an angled groove of the alignment receptacle, whereby longitudinal advancement of the alignment insert into the alignment receptacle drives the inner conductor and the mating conductor laterally towards one another.

10. The connector of claim 9 , wherein the ramp surface and angled groove are provided on first and second sides of the alignment insert and alignment receptacle.

11. The connector of claim 1 , further including a conductor seat on a bottom of the alignment insert; the conductor seat dimensioned to receive a predefined length of the inner conductor.

12. The connector of claim 11 , further including a transverse trough in the conductor seat, proximate a connector end of the conductor seat.

13. The connector of claim 1 , further including a support spline on the alignment insert; the support spline extending normal to the conductor seat.

14. The connector of claim 1 , wherein the alignment insert couples to the male connector body via at least one protrusion which mates with a corresponding coupling aperture of the male connector body.

15. The connector of claim 1 , wherein the alignment insert has a mounting face normal to a longitudinal axis of the alignment insert, the mounting face provided with an inner conductor slot dimensioned to receive the inner conductor therethrough.

16. A method for manufacturing a connector according to claim 1 , comprising the steps of:

forming the outer conductor dielectric spacer as a layer of ceramic material upon the male outer conductor coupling surface.

17. The method of claim 16 , wherein the ceramic material is applied by physical vapor deposition upon the seating surface.

18. A method for manufacturing a connector according to claim 1 , comprising the steps of:

forming the outer conductor dielectric spacer as a layer of ceramic material upon the female outer conductor coupling surface.

19. A capacitively coupled flat conductor connector, for interconnection with a female connector body provided with a female outer conductor coupling surface at a connector end of the female connector body; comprising:

a male connector body provided with a bore and a male outer conductor coupling surface provided at a connector end of the male connector body;

an outer conductor dielectric spacer dimensioned to cover the male outer conductor coupling surface;

the male outer conductor coupling surface dimensioned to seat, spaced apart by the outer conductor dielectric spacer, against the female outer conductor coupling surface;

alignment elements of the male connector body and the female connector body supporting an inner conductor and a mating conductor, respectively, the inner conductor and the mating conductor parallel to one another and overlapping one another longitudinally, separated by a dielectric spacer.

20. The connector of claim 19 , wherein the alignment elements are an alignment receptacle coupled to the female connector body and an alignment insert coupled to the male connector body;

the alignment insert dimensioned to support a predefined length of the inner conductor seated within the bore;

the alignment receptacle dimensioned to receive a connector end of the alignment insert to seat an overlapping portion of the inner conductor opposite the mating conductor.