Surface mating coaxial connector

Claim 2

A surface mating coaxial connector, comprising: a microcoaxial cable including at least a hollow cylindrical conductive shield means, insulated from a cylindrical central conductor by a dielectric material; a contact pin having a right cylindrical proximal end and a hemispherical distal end; an axially movable connection means through which said central conductor and the contact pin are mechanically and electrically connected such that axial motion of the contact pin in the direction of the central conductor is possible when an axial force is exerted on the contact pin and such that the contact pin returns to its original position when such force is removed, the axially movable connection means comprising a right cylindrical connector pin having a flat proximal end including an aperture for receiving said central conductor in an abutting manner and a flat distal end which abuts and is mechanically and electrically connected to a first end of an interconnect bellows, a second end of said interconnect bellows abutting and being mechanically and electrically connected to a flat proximal end of the contact pin; a hollow right cylindrical shield collar coaxial with and surrounding a distal end of the contact pin, but electrically insulated therefrom, said collar being resiliently compressible in an axial direction such that axial motion of the collar, independent of any axial motion of the contact pin, is possible when axial force is exerted on the shield collar, the shield collar including a conductive shield extension means formed thereto for maintaining an electrical contact with the shield collar during axial motion thereof; an insulating means in contact with said dielectric material and electrically insulating said shield extension means and shield collar from the central conductor, the axially movable connection means and the contact pin, said flat abutting surfaces of said central conductor, the axially movable connection means and the contact pin being substantially perpendicular to an axis of motion of the axially movable connection means such that the transmission impedence to a signal traveling from the central conductor through the axially movable connection means and to and through a terminal end of the contact pin remains substantially the same as the coaxial cable, said insulating means including an elastomer core surrounding said axially movable connection means and a portion of the contact pin such that axial force applied to the contact pin is transmitted to the elastomer core which can be resiliently compressed permitting axial movement of the contact pin; whereby the contact pin may be brought into contact with the surface with which it is desired to transmit signals through the contact pin to devices, circuits, components or other items electrically connected to the surface with which contact is made; the contact pin is electrically shielded by the shield collar to minimize interference from electrical noise sources proximate to the contact pin; and a transmission impedence of the connector is substantially the same as that of the coaxial cable such that the impedence of the surface with which the contact is made may be matched to that of the connector resulting in substantially elimination of signal reflection due to impedance mismatch.

Claim 3

The device of claim 1, wherein said axially-moveable connection means is coaxial with the central conductor.

Claim 4

The device of claim 1, wherein said shield collar is formed from a conductive elastomer.

Claim 5

A surface mating coaxial connector for use in making electrical connections for the transmission of signals to miniature electronic devices through contact surfaces approximately ten mils square comprising: a microcoaxial cable including at least a hollow right cylindrical conductive shield means, insulated from a right cylindrical central conductor by a dielectric material; a contact pin of greater diameter than and coaxial with said central conductor, the contact pin having a right cylindrical proximal end and a hemispherical distal end; an axially movable connection means through which said central conductor and the contact pin are mechanically and electrically connected such that axial motion of the contact pin in the direction of said central conductor is possible when an axial force is exerted on the contact pin and such that the contact pin returns to its original position when said force is removed, the axially movable connection means comprising a right cylindrical connector pin having a flat proximal end and including an aperture for receiving said central conductor in an abutting manner, and a flat distal end abutting and connected to a first end of a single loop spring-like connector, said spring-like connector having a second end abutting and connected to the contact pin; a right cylindrical shield collar coaxial with and surrounding said distal end of the contact pin but electrically insulated therefrom, said collar formed to be resiliently compressible in the axial direction such that axial motion of the collar, independent of any axial motion of the contact pin is possible when axial force is inserted on the shield collar, the shield collar further including a conductive shield extension means formed thereto for maintaining an electrical contact with the shield collar during axial motion thereof; an insulating means in contact with said dielectric material and electrically insulating said shield extension means and shield collar from said central conductor, said flat abutting surfaces of the axially movable connection means, the contact pin and the central conductor being perpendicular to an axis of motion of the axially movable connection means such that the transmission impedance to a signal traveling from the central conductor through the axially movable connection means and to and through a terminal end of the contact pin remains substantially the same as that of the coaxial cable, said insulating means including an elastomer core surrounding said axially movable connection means and a portion of the contact pin such that axial force applied to the contact pin is transmitted to the elastomer core which can be resiliently compressed permitting axial movement of the contact pin; whereby the contact pin and the shield collar may be brought into contact with the surface which which it is desired to transmit signals through the contact pin to miniature devices, circuits, components or other items electrically connected to the surface with which contact is made; the contact pin is electrically shielded by the shield collar to minimize interference from electrical noise sources proximate to the contact pin; and the transmission impedance of the connector is substantially the same as that of the coaxial cable such that the impedance with which contact is made may be matched to that of the connector resulting in substantial elimination of signal reflection due to impedance mismatch.

Claim 6

A surface mating coaxial connector for use in making electrical connections for the transmission of signals to miniature electronic devices through contact surfaces approximately ten mils square comprising: a microcoaxial cable including at least a hollow right cylindrical conductive shield means, insulated from a right cylindrical central conductor by a dielectric material; a contact pin of greater diameter than and coaxial with said central conductor, the contact pin having a right cylindrical proximal end and a hemispherical distal end; an axially movable connection means through which said central conductor and the contact pin are mechanically and electrically connected such that axial motion of the contact pin in the direction of said central conductor is possible when an axial force is exerted on the contact pin and such that the contact pin returns to its original position when said force is removed, the axially movable connection means comprising a right cylindrical connector pin having a flat proximal end and including an aperture for receiving said central conductor in an abutting manner, and a flat distal end abutting and connected to a first end of a single loop spring-like connector, said spring-like connector having a second end abutting and connected to the contact pin; a right cylindrical shield collar coaxial with and surrounding said distal end of the contact pin but electrically insulated therefrom, said collar formed to be resiliently compressible in the axial direction such that axial motion of the collar, independent of any axial motion of the contact pin is possible when axial force is inserted on the shield collar, the shield collar further including a conductive shield extension means formed thereto for maintaining an electrical contact with the shield collar during axial motion thereof; an insulating means in contact with said dielectric material and electrically insulating said shield extension means and shield collar from said central conductor, said flat abutting surfaces of the axially movable connection means, the contact pin and the central conductor being perpendicular to an axis of motion of the axially movable connection means such that the transmission impedance to a signal traveling from the central conductor through the axially movable connection means and to and through a terminal end of the contact pin remains substantially the same as that of the coaxial cable, said insulating means including an elastomer core surrounding said axially movable connection means and a portion of the contact pin such that axial force applied to the contact pin is transmitted to the elastomer core which can be resiliently compressed permitting axial movement of the contact pin; whereby the contact pin and the shield collar may be brought into contact with the surface which which it is desired to transmit signals through the contact pin to miniature devices, circuits, components or other items electrically connected to the surface with which contact is made; the contact pin is electrically shielded by the shield collar to minimize interference from electrical noise sources proximate to the contact pin; and the transmission impedance of the connector is substantially the same as that of the coaxial cable such that the impedance with which contact is made may be matched to that of the connector resulting in substantial elimination of signal reflection due to impedance mismatch.

Claim 7

The device of claim 4 wherein the axially movable connection means is coaxial with the central conductor.

Claim 8

The device of claim 4, wherein said axial motion of said contact pin and the shield collar are between 0 and 20 mils at a maximum.

Claim 9

The device of claim 4, wherein said micro-coaxial cable has an outside diameter of 70 mils or less.

Claim 10

A surface mating coaxial connector comprising: a microcoaxial cable including a hollow right cylindrical conductive shield means, insulated from the right cylindrical conductor by a first dielectric material; a contact pin of greater diameter than said central conductor, the contact pin having a right cylindrical proximal end for connection to said central conductor and a hemispherical distal end for contacting a test surface; an axially movable connection means through which said central conductor and said contact pin are mechanically and electrically connected such that axial motion of the contact pin in the direction of said central conductor is possible when an axial force is exerted on the contact pin, and such that the contact pin returns to its original position when said force is removed, the axially movable connection means comprising a right cylindrical connector pin having a flat proximal end including an aperture for receiving said central conductor in an abutting manner, and a flat distal end abutting and connected to a first end of a single loop spring-like connector, said spring-like connector having a second end abutting and connected to the contact pin; a hollow right cylindrical shield collar coaxial with and surrounding said distal end of the contact pin and electrically insulated therefrom, said collar including a transversely corregated section such that axial motion of the collar, independent of axial motion of the contact pin, is possible when axial force is exerted on the shield collar, the shield collar further including a conductive shield extension means formed thereto for maintaining an electrical contact with the shield collar during axial motion thereof; an insulating means in contact with said dielectrical material and electrically insulating said shield extension means and shield collar, the axially movable connection means and the contact pin from the central conductor such that the transmission impedence to a signal traveling from said central conductor through the axially movable connection means and to and through said distal end of the contact pin remains substantially the same as that of the coaxial cable, said insulating means including an elastomer core surrounding said axially movable connection means and a proximal portion of the contact pin such that axial force applied to the contact pin is transmitted to the elastomer core which can be resiliently compressed permitting axial movement of the contact pin; whereby the contact pin and the shield collar may be brought into contact with the surface to which it is desired to transmit signals through the contact pin; the contact pin is electrically shielded by the shield collar to minimize interference from electrical noise such as proximate to the contact pins; and the transmission impedance of the connector is substantially the same as that of the coaxial cable.

Claim 11

A surface mating coaxial connector comprising: a microcoaxial cable including a hollow right cylindrical conductive shield means, insulated from the right cylindrical conductor by a first dielectric material; a contact pin of greater diameter than said central conductor, the contact pin having a right cylindrical proximal end for connection to said central conductor and a hemispherical distal end for contacting a test surface; an axially movable connection means through which said central conductor and said contact pin are mechanically and electrically connected such that axial motion of the contact pin in the direction of said central conductor is possible when an axial force is exerted on the contact pin, and such that the contact pin returns to its original position when said force is removed, the axially movable connection means comprising a right cylindrical connector pin having a flat proximal end including an aperture for receiving said central conductor in an abutting manner, and a flat distal end abutting and connected to a first end of a single loop spring-like connector, said spring-like connector having a second end abutting and connected to the contact pin; a hollow right cylindrical shield collar coaxial with and surrounding said distal end of the contact pin and electrically insulated therefrom, said collar including a transversely corregated section such that axial motion of the collar, independent of axial motion of the contact pin, is possible when axial force is exerted on the shield collar, the shield collar further including a conductive shield extension means formed thereto for maintaining an electrical contact with the shield collar during axial motion thereof; an insulating means in contact with said dielectrical material and electrically insulating said shield extension means and shield collar, the axially movable connection means and the contact pin from the central conductor such that the transmission impedence to a signal traveling from said central conductor through the axially movable connection means and to and through said distal end of the contact pin remains substantially the same as that of the coaxial cable, said insulating means including an elastomer core surrounding said axially movable connection means and a proximal portion of the contact pin such that axial force applied to the contact pin is transmitted to the elastomer core which can be resiliently compressed permitting axial movement of the contact pin; whereby the contact pin and the shield collar may be brought into contact with the surface to which it is desired to transmit signals through the contact pin; the contact pin is electrically shielded by the shield collar to minimize interference from electrical noise such as proximate to the contact pins; and the transmission impedance of the connector is substantially the same as that of the coaxial cable.

Claim 12

A surface mating coaxial connector comprising: a microcoaxial cable including a hollow right cylindrical conductive shield means insulated from a right cylindrical central conductor by a dielectric material; a contact pin of greater diameter than said central conductor and having a solid right cylindrical proximal end for connecting to said central conductor and a hemispherical distal end for contacting a test surface; an axially movable connection means through which said central conductor and said contact pin are mechanically and electrically connected such that axial motion in the direction of said central conductor is possible when an axial force is exerted on the contact pin such that the contact pin returns to its original position when said force is removed; a hollow right cylindrical shield collar coaxial with and surrounding said distal end of the contact pin and electrically insulated, said collar including a lip extension formed to a distal end thereof such that said lip acts as a spring and compresses when contact is made with said test surface, the shield collar further including a hollow right cylindrical elastomeric conductive shield extension means formed thereto for maintaining an electrical contact with the shield collar during axial motion thereof; an insulating means in contact with said dielectric material and electrically insulating said shield extension means and shield collar, the axially movable connecting means and the contact pin from said central conductor such that the transmission impedance to a signal traveling from said central conductor through the axially movable connection and to and through said distal end of the contact pin is substantially matched to that of the coaxial cable said insulating means including an elastomer core surrounding said axially movable connection means and a proximal portion of the contact pin such that axial force applied to the contact pin is transmitted to the elastomer core which can be resiliently compressed permitting axial motion of the contact pin; whereby the contact pin and shield collar may be brought into contact with the surface to which it is desired to transmit signals through the contact pin; the contact pin electrically shielded by the shield collar to minimize interference from electrical noise sources proximate to the contact pin; and the transmission impedance of the connector is substantially the same as that of the coaxial cable.

Claim 13

A surface mating coaxial connector comprising: a microcoaxial cable including a hollow right cylindrical conductive shield means insulated from a right cylindrical central conductor by a dielectric material; a contact pin of greater diameter than said central conductor and having a solid right cylindrical proximal end for connecting to said central conductor and a hemispherical distal end for contacting a test surface; an axially movable connection means through which said central conductor and said contact pin are mechanically and electrically connected such that axial motion in the direction of said central conductor is possible when an axial force is exerted on the contact pin such that the contact pin returns to its original position when said force is removed; a hollow right cylindrical shield collar coaxial with and surrounding said distal end of the contact pin and electrically insulated, said collar including a lip extension formed to a distal end thereof such that said lip acts as a spring and compresses when contact is made with said test surface, the shield collar further including a hollow right cylindrical elastomeric conductive shield extension means formed thereto for maintaining an electrical contact with the shield collar during axial motion thereof; an insulating means in contact with said dielectric material and electrically insulating said shield extension means and shield collar, the axially movable connecting means and the contact pin from said central conductor such that the transmission impedance to a signal traveling from said central conductor through the axially movable connection and to and through said distal end of the contact pin is substantially matched to that of the coaxial cable said insulating means including an elastomer core surrounding said axially movable connection means and a proximal portion of the contact pin such that axial force applied to the contact pin is transmitted to the elastomer core which can be resiliently compressed permitting axial motion of the contact pin; whereby the contact pin and shield collar may be brought into contact with the surface to which it is desired to transmit signals through the contact pin; the contact pin electrically shielded by the shield collar to minimize interference from electrical noise sources proximate to the contact pin; and the transmission impedance of the connector is substantially the same as that of the coaxial cable.

Claim 14

The device of claim 9 wherein the axially movable connection means comprises a right cylindrical connector pin having a flat proximal end including an aperture for receiving said central conductor in an abutting manner, and a flat distal end abutting and connected to the first end of a single loop spring-like connector, said spring-like connector having a second end abutting and connected to the contact pin, each abutting surface formed to be perpendicular to said axis of motion of the connection means.

Claim 15

A surface mating coaxial connector for use in making electrical connections for the transmission of signals to miniature electronic devices through contact surfaces approximately ten mils square, comprising: a microcoaxial cable including at least a hollow right cylindrical conductive shield means, insulated from a right cylindrical central conductor by a dielectric material; a contact pin, of greater diameter than said central conductor and having a right cylindrical proximal end for connecting to said central conductor and a hemispherical distal end for contacting a test surface; an axially movable connection means through which said central conductor and the contact pin are mechanically and electrically connected, the connection means including a cylindrical connector pin having a flat proximal end including an aperture for receiving said central conductor in an abutting manner, and a flat distal end abutting and connected to a first end of an interconnect bellows, said interconnect bellows having a second end abutting and connected to a flat proximal end of the contact pin; a hollow right cylindrical shield collar coaxial with and surrounding said distal end of the contact pin and electrically insulated therefrom, said collar formed to be resiliently compressible in an axial direction such that axial motion of the collar, independent of any axial motion of the contact pin, is possible when axial force is exerted on the shield collar, the shield collar further including a conductive shield extension means formed thereto for maintaining an electrical contact with the shield collar during axial motion thereof; an insulating means in contact with said dielectric material and electrically insulating said shield extension means and shield collar from said central conductor, the axially movable connection means and the contact pin, said flat abutting surfaces of said central conductor, the axially movable connection means and the contact pin being substantially perpendicular to an axis of motion of the axially movable connection means such that the transmission impedance to a signal traveling from the central conductor to and through said distal end of the contact pin remain substantially the same as that of the coaxial cable, said insulating means including an elastomer core surrounding said axially movable contact means and a proximal portion of the contact pin such that axial force applied to the contact pin is transmitted to the elastomer core which can be resiliently compressed, permitting axial movement of the contact pin; whereby the contact pin and the shield collar may be brought into contact with a surface with which it is desired to transmit signals through the contact pin to miniature devices, circuits, components or other items electrically connected to the surface with which contact is made; the contact is electrically shielded by the shield collar to minimize interference from electrical noise sources proximate to the contact pin; and the transmission impedance of the connector is substantially the same as that of the coaxial cable such that the impedance with which contact is made may be matched to that of the connector resulting in substantial elimination of signal reflection due to impedence mismatch.

Claim 16

A surface mating coaxial connector for use in making electrical connections for the transmission of signals to miniature electronic devices through contact surfaces approximately ten mils square, comprising: a microcoaxial cable including at least a hollow right cylindrical conductive shield means, insulated from a right cylindrical central conductor by a dielectric material; a contact pin, of greater diameter than said central conductor and having a right cylindrical proximal end for connecting to said central conductor and a hemispherical distal end for contacting a test surface; an axially movable connection means through which said central conductor and the contact pin are mechanically and electrically connected, the connection means including a cylindrical connector pin having a flat proximal end including an aperture for receiving said central conductor in an abutting manner, and a flat distal end abutting and connected to a first end of an interconnect bellows, said interconnect bellows having a second end abutting and connected to a flat proximal end of the contact pin; a hollow right cylindrical shield collar coaxial with and surrounding said distal end of the contact pin and electrically insulated therefrom, said collar formed to be resiliently compressible in an axial direction such that axial motion of the collar, independent of any axial motion of the contact pin, is possible when axial force is exerted on the shield collar, the shield collar further including a conductive shield extension means formed thereto for maintaining an electrical contact with the shield collar during axial motion thereof; an insulating means in contact with said dielectric material and electrically insulating said shield extension means and shield collar from said central conductor, the axially movable connection means and the contact pin, said flat abutting surfaces of said central conductor, the axially movable connection means and the contact pin being substantially perpendicular to an axis of motion of the axially movable connection means such that the transmission impedance to a signal traveling from the central conductor to and through said distal end of the contact pin remain substantially the same as that of the coaxial cable, said insulating means including an elastomer core surrounding said axially movable contact means and a proximal portion of the contact pin such that axial force applied to the contact pin is transmitted to the elastomer core which can be resiliently compressed, permitting axial movement of the contact pin; whereby the contact pin and the shield collar may be brought into contact with a surface with which it is desired to transmit signals through the contact pin to miniature devices, circuits, components or other items electrically connected to the surface with which contact is made; the contact is electrically shielded by the shield collar to minimize interference from electrical noise sources proximate to the contact pin; and the transmission impedance of the connector is substantially the same as that of the coaxial cable such that the impedance with which contact is made may be matched to that of the connector resulting in substantial elimination of signal reflection due to impedence mismatch.

Claim 17

A surface mating coaxial connector for use in making electrical connections for the transmission of signals to miniature electronic devices through contact surfaces approximately ten mils square comprising: a microcoaxial cable including at least a hollow right cylindrical conductive shield means, insulated from a right cylindrical central conductor by a dielectric material; a contact pin of greater diameter than and coaxial with said central conductor, the contact pin having a right cylindrical proximal end and a hemispherical distal end; an axially movable connection means through which said central conductor and the contact pin are mechanically and electrically connected such that axial motion of the contact pin in the direction of said central conductor is possible when an axial force is exerted on the contact pin and such that the contact pin returns to its original position when said force is removed, the axially movable connection means comprising a braided wire central conductor having a compressible section intermediate to the contact pin and a terminal end of the dielectric material of the coaxial cable; a right cylindrical shield collar coaxial with and surrounding said distal end of the contact pin but electrically insulated therefrom, said collar formed to be resiliently compressible in the axial direction such that axial motion of the collar, independent of any axial motion of the contact pin is possible when axial force is inserted on the shield collar, the shield collar further including a conductive shield extension means formed thereto for maintaining an electrical contact with the shield collar during axial motion thereof; an insulating means in contact with said dielectric material and electrically insulating said shield extension means and shield collar from said central conductor, said flat abutting surfaces of the axially movable connection means, the contact pin and the central conductor being perpendicular to an axis of motion of the axially movable connection means such that the transmission impedance to a signal traveling from the central conductor through the axially movable connection means and to and through a terminal end of the contact pin remains substantially the same as that of the coaxial cable, said insulating means including an elastomer core surrounding said axially movable connection means and a portion of the contact pin such that axial force applied to the contact pin is transmitted to the elastomer core which can be resiliently compressed permitting axial movement of the contact pin; whereby the contact pin and the shield collar may be brought into contact with the surface which which it is desired to transmit signals through the contact pin to miniature devices, circuits, components or other items electrically connected to the surface with which contact is made; the contact pin is electrically shielded by the shield collar to minimize interference from electrical noise sources proximate to the contact pin; and the transmission impedance of the connector is substantially the same as that of the coaxial cable such that the impedance with which contact is made may be matched to that of the connector resulting in substantial elimination of signal reflection due to impedance mismatch.

Claim 18

A surface mating coaxial connector for use in making electrical connections for the transmission of signals to miniature electronic devices through contact surfaces approximately ten mils square comprising: a microcoaxial cable including at least a hollow right cylindrical conductive shield means, insulated from a right cylindrical central conductor by a dielectric material; a contact pin of greater diameter than and coaxial with said central conductor, the contact pin having a right cylindrical proximal end and a hemispherical distal end; an axially movable connection means through which said central conductor and the contact pin are mechanically and electrically connected such that axial motion of the contact pin in the direction of said central conductor is possible when an axial force is exerted on the contact pin and such that the contact pin returns to its original position when said force is removed, the axially movable connection means comprising a braided wire central conductor having a compressible section intermediate to the contact pin and a terminal end of the dielectric material of the coaxial cable; a right cylindrical shield collar coaxial with and surrounding said distal end of the contact pin but electrically insulated therefrom, said collar formed to be resiliently compressible in the axial direction such that axial motion of the collar, independent of any axial motion of the contact pin is possible when axial force is inserted on the shield collar, the shield collar further including a conductive shield extension means formed thereto for maintaining an electrical contact with the shield collar during axial motion thereof; an insulating means in contact with said dielectric material and electrically insulating said shield extension means and shield collar from said central conductor, said flat abutting surfaces of the axially movable connection means, the contact pin and the central conductor being perpendicular to an axis of motion of the axially movable connection means such that the transmission impedance to a signal traveling from the central conductor through the axially movable connection means and to and through a terminal end of the contact pin remains substantially the same as that of the coaxial cable, said insulating means including an elastomer core surrounding said axially movable connection means and a portion of the contact pin such that axial force applied to the contact pin is transmitted to the elastomer core which can be resiliently compressed permitting axial movement of the contact pin; whereby the contact pin and the shield collar may be brought into contact with the surface which which it is desired to transmit signals through the contact pin to miniature devices, circuits, components or other items electrically connected to the surface with which contact is made; the contact pin is electrically shielded by the shield collar to minimize interference from electrical noise sources proximate to the contact pin; and the transmission impedance of the connector is substantially the same as that of the coaxial cable such that the impedance with which contact is made may be matched to that of the connector resulting in substantial elimination of signal reflection due to impedance mismatch.

Claim 19

The device of claim 12 wherein the axially movable connection means is coaxial with the central conductor.

Claim 20

The device of claim 12 wherein said axial motion of the contact pin is between zero and twenty mils.

Claim 21

The device of claim 12 wherein said microcoaxial cable has an outside diameter of seventy mils or less.