Penta-port-cage system
A penta-port-cage system includes a first port cage. A pair of second port cages on the penta-port-cage system are each connected to the first port cage opposite the first port cage from each other, are each oriented such that they are rotated about their longitudinal axis relative to the first port cage, and are inverted relative to each other. A pair of third port cages on the penta-port-cage system are each connected to the first port cage opposite the first port cage from each other, are each oriented such that they are rotated about their longitudinal axis relative to the first port cage, and are inverted relative to each other. Each of the first port cages, the pair of second port cages, and the pair of third port cages are configured to couple cabling systems to a processing system in a networking device.
1 . A penta-port-cage system, comprising:
a first port cage;
a pair of second port cages that are each connected to and fixed relative to the first port cage such that they are on opposite sides of the first port cage from each other, that are each angled relative to the first port cage by a respective angle between their respective longitudinal axis and a longitudinal axis of the first port cage, and that are inverted relative to each other; and
a pair of third port cages that are each connected to and fixed relative to the first port cage such that they are on opposite sides of the first port cage from each other, that are each angled relative to the first port cage by a respective angle between their respective longitudinal axis and a longitudinal axis of the first port cage, and that are inverted relative to each other.
2 . The system of claim 1 , further comprising:
a plurality of device chassis mounting members that extend from at least one of the second port cages and the third port cages and that are configured to mount to a device chassis.
3 . The system of claim 1 , further comprising:
a respective port connector included in the first port cage, each of the pair of second port cages, and each of the pair of third port cages; and
a respective board cable extending from the respective port connector included in the first port cage, each of the pair of second port cages, and each of the pair of third port cages, where each respective board cable is configured to connect to a board to couple the respective port connector in the first port cage, each of the pair of second port cages, and each of the pair of third port cages to the board.
4 . The system of claim 1 , wherein a first of each of the pair of second port cages and the pair of third port cages is angled relative to the first port cage by the same angle between their respective longitudinal axis and the longitudinal axis of the first port cage but in opposite directions, and wherein a second of each of the pair of second port cages and the pair of third port cages is angled relative to the first port cage by the same angle between their respective longitudinal axis and the longitudinal axis of the first port cage but in opposite directions.
5 . The system of claim 1 , wherein each of the second port cages and the third port cages includes opposing side surfaces, and wherein a respective structural support element extends between adjacent side surfaces on adjacent first and second port cages.
6 . The system of claim 1 , wherein the first port cage, each of the pair of second port cages, and each of the pair of third port cages are configured to receive a respective Quad Small Form-factor Pluggable (QSFP) transceiver device.
7 . An Information Handling System (IHS), comprising:
a device chassis;
a processing system that is housed in the device chassis; and
a communication system that is housed in the device chassis, that is coupled to the processing system, and that includes a plurality of penta-port-cage systems, wherein each penta-port-cage system includes:
a first port cage that is accessible on a surface of the device chassis;
a pair of second port cages that are each accessible on the surface of the device chassis, that are each connected to and fixed relative to the first port cage such that they are on opposite sides of the first port cage from each other, that are each angled relative to the first port cage by a respective angle between their respective longitudinal axis and a longitudinal axis of the first port cage, and that are inverted relative to each other; and
a pair of third port cages that are each accessible on the surface of the device chassis, that are each connected to and fixed relative to the first port cage such that they are on opposite sides of the first port cage from each other, that are each angled relative to the first port cage by a respective angle between their respective longitudinal axis and a longitudinal axis of the first port cage, and that are inverted relative to each other.
8 . The IHS of claim 7 , wherein each penta-port-cage system includes:
a plurality of device chassis mounting members that extend from at least one of second port cages and the third port cages on that penta-port-cage system and that are mounted to the device chassis.
9 . The IHS of claim 7 , wherein each penta-port-cage system includes:
a respective port connector included in the first port cage, each of the pair of second port cages, and each of the pair of third port cages on that penta-port-cage system; and
a respective board cable extending from the respective port connector included in the first port cage, each of the pair of second port cages, and each of the pair of third port cages on that penta-port-cage system, where each respective board cable is configured to connect to a board to couple the respective port connector in the first port cage, each of the pair of second port cages, and each of the pair of third port cages on that penta-port-cage system to the board.
10 . The IHS of claim 7 , wherein a first of each of the pair of second port cages and the pair of third port cages on each penta-port-cage system is angled relative to the first port cage on that penta-port-cage system by the same angle between their respective longitudinal axis and the longitudinal axis of the first port cage but in opposite directions, and wherein a second of each of the pair of second port cages and the pair of third port cages on each penta-port-cage system is angled relative to the first port cage on that penta-port-cage system by the same angle between their respective longitudinal axis and the longitudinal axis of the first port cage but in opposite directions.
11 . The IHS of claim 7 , wherein each of the second port cages and the third port cages on each penta-port-cage system includes opposing side surfaces, and wherein a respective structural support element extends between adjacent side surfaces on adjacent first and second port cages on each penta-port-cage system.
12 . The IHS of claim 7 , wherein the first port cage, each of the pair of second port cages, and each of the pair of third port cages on each penta-port-cage system are configured to receive a respective Quad Small Form-factor Pluggable (QSFP) transceiver device.
13 . The IHS of claim 7 , wherein the device chassis defines a plurality of airflow apertures adjacent the first port cage, each of the pair of second port cages, and each of the pair of third port cages on each penta-port-cage system.
14 . A method for connecting ports on a networking device using a penta-port-cage system, comprising:
coupling, by a first port cage on a penta-port-cage system, to a first cabling system;
coupling, by each of a pair of second port cages on the penta-port-cage system, to respective second cabling systems, wherein the pair of second port cages are connected to and fixed relative to the first port cage such that they are on opposite sides of the first port cage from each other, are each angled relative to the first port cage by a respective angle between their respective longitudinal axis and a longitudinal axis of the first port cage, and are inverted relative to each other; and
coupling, by each of a pair of third port cages on the penta-port-cage system, to respective third cabling systems, wherein the pair of third port cages are connected to and fixed relative to the first port cage such that they are on opposite sides of the first port cage from each other, are each angled relative to the first port cage by a respective angle between their respective longitudinal axis and a longitudinal axis of the first port cage, and are inverted relative to each other.
15 . The method of claim 14 , wherein a plurality of device chassis mounting members extend from at least one of second port cages and the third port cages and are mounted to a device chassis.
16 . The method of claim 14 , wherein a respective port connector is included in the first port cage, each of the pair of second port cages, and each of the pair of third port cages, and wherein the method further comprises:
transmitting, by a respective board cable extending between a board and the respective port connector included in the first port cage, each of the pair of second port cages, and each of the pair of third port cages, data with the first cabling system, the second cabling system, and the third cabling system.
17 . The method of claim 14 , wherein a first of each of the pair of second port cages and the pair of third port cages is angled relative to the first port cage by the same angle between their respective longitudinal axis and the longitudinal axis of the first port cage but in opposite directions, and wherein a second of each of the pair of second port cages and the pair of third port cages is angled relative to the first port cage by the same angle between their respective longitudinal axis and the longitudinal axis of the first port cage but in opposite directions.
18 . The method of claim 14 , wherein each of the second port cages and the third port cages includes opposing side surfaces, and wherein a respective structural support element extends between adjacent side surfaces on adjacent first and second port cages.
19 . The method of claim 14 , wherein the first cabling system is coupled to the first port cage, each of the second cabling systems is coupled to each of the pair of second ports cages, and each of the third cabling systems is coupled to each of the pair of third port cages, by a respective Quad Small Form-factor Pluggable (QSFP) transceiver device.
20 . The method of claim 14 , further comprising:
transmitting, by a plurality of airflow apertures defined by a device chassis adjacent the first port cage, each of the pair of second port cages, and each of the pair of third port cages, an airflow.