Radio frequency (RF) connector assembly
The present disclosure is generally directed to an RF connector assembly for use within a node of a broadband distribution network, and can receive a center conductor pin of a coaxial cable, e.g., via insertion by a technician, and electrically couple the center conductor pin to circuitry within the node, such as an amplifier. The RF connector assembly preferably also securely physically couples to the center conductor pin via a spring-biased arrangement (and thus by extension securely couples the coaxial cable to the housing of the node) which can supply a bias force to the center conductor pin in response to insertion of the same into the RF connector assembly. This advantageously eliminates the necessity of opening the housing of the node to couple/decouple the center conducting pin of the coaxial cable to the node.
1. A radio frequency (RF) connector assembly for use in a broadband distribution network, the RF connector assembly to electrically couple a coaxial connector to circuitry within a housing of a node of the broadband distribution network, the RF connector assembly comprising:
a body having a receptacle end for coupling to the coaxial connector and a channel for receiving a center conducting pin of the coaxial connector;
a rotatable member configured to rotate about a single axis of rotation and be slidably displaced along an engagement axis, the engagement axis being transverse to the axis of rotation, wherein at least a portion of the rotatable member has a cylindrical shape such that the rotatable member only rotates about the single axis of rotation, the rotatable member including a mating surface configured to be engaged by the center conducting pin of the coaxial connector to cause rotation of the rotatable member about the single axis of rotation, wherein the rotatable member includes annular projections defining the mating surface between the annular projections, and wherein the mating surface is configured to provide a mechanical guide for the center conducting pin;
a spring member to supply a bias force to the rotatable member in a first direction along the engagement axis; and
wherein the channel of the body is aligned with the mating surface of the rotatable member, and wherein the mating surface is further configured to be engaged by the center conducting pin of the coaxial connector to cause the rotatable member to be displaced in a second direction opposite the first direction.
2. The RF connector assembly of claim 1 , wherein, the receptacle end defines an aperture to receive the center conducting pin of the coaxial connector into the channel.
3. The RF connector assembly of claim 1 , wherein the channel defines an insertion axis for insertion of the center conducting pin into the channel, the insertion axis being transverse relative to the engagement axis of the rotatable member.
4. The RF connector assembly of claim 1 , further comprising an electrical interconnect to electrically couple with the circuitry within the housing of the node, and wherein the body further defines an alignment slot aligned with the mating surface of the rotatable member, the alignment slot is configured to guide the center conducting pin of the coaxial connector along a path that causes the center conducting pin of the coaxial connector to be disposed between the electrical interconnect and the mating surface of the rotatable member.
5. The RF connector assembly of claim 1 , wherein the mating surface is a concave surface.
6. The RF connector assembly of claim 1 , wherein the body defines a transaxial notch, the transaxial notch extending transverse relative to the channel.
7. The RF connector assembly of claim 6 , wherein the transaxial notch is configured receive the rotatable member and allow the rotatable member to be slidably displaced along the engagement axis.
8. The RF connector assembly of claim 1 , wherein the body is formed of a first material, the first material having a dielectric constant equal to or less than 2.02.
9. The RF connector assembly of claim 1 , wherein the rotatable member is formed of a second material, the second material having a dielectric constant equal to or less than 2.02.
10. A distributed access architecture (DAA) node comprising:
a housing;
an amplifier disposed in the housing;
at least one coaxial connector port coupled to the housing for electrically coupling the amplifier to a coaxial connector that provides a feed line of a broadband network, the at least one coaxial connector port comprising:
a body having a receptacle end for coupling to the coaxial connector and a channel for receiving a center conducting pin of the coaxial connector;
a rotatable member configured to rotate about a single axis of rotation and be slidably displaced along an engagement axis, the engagement axis being transverse to the axis of rotation, wherein at least a portion of the rotatable member has a cylindrical shape such that the rotatable member only rotates about the single axis of rotation, the rotatable member including a mating surface configured to be engaged by the center conducting pin of the coaxial connector to cause rotation of the rotatable member about the single axis of rotation, wherein the rotatable member includes annular projections defining the mating surface between the annular projections, and wherein the mating surface is configured to provide a mechanical guide for the center conducting pin;
a spring member to supply a bias force to the rotatable member in a first direction along the engagement axis; and
wherein the channel of the body is aligned with the mating surface of the rotatable member, and wherein the mating surface is further configured to be engaged by the center conducting pin of the coaxial connector to cause the rotatable member to be displaced in a second direction opposite the first direction.
11. The DAA node of claim 10 , wherein the channel extends along an insertion axis for insertion of the center conducting pin of the coaxial connector, the insertion axis being transverse relative to the engagement axis of the rotatable member.
12. The DAA node of claim 10 , wherein the receptacle end of the body defines an aperture to receive the center conducting pin of the coaxial connector into the channel.
13. The DAA node of claim 10 , wherein the at least one coaxial connector port comprises an electrical interconnect to electrically couple the center conducting pin to the amplifier, and wherein the body further defines an alignment slot aligned with the mating surface of the rotatable member, the alignment slot is configured to guide the center conducting pin of the coaxial connector along a path that causes the center conducting pin of the coaxial connector to be disposed between the electrical interconnect and the mating surface of the rotatable member and electrically couple to the electrical interconnect.
14. The DAA node of claim 10 , wherein the mating surface of the rotatable member is a recessed surface.
15. The DAA node of claim 10 , wherein the body defines a transaxial notch, the transaxial notch extending transverse relative to the channel, and wherein the transaxial notch is configured receive the rotatable member and allow the rotatable member to be slidably displaced along the engagement axis.
16. The RF connector assembly of claim 1 , wherein the mating surface is a recessed surface.
17. The DAA node of claim 10 , wherein the mating surface is a concave surface.