Abstract: Scalable-bandwidth aggregation boxes are disclosed that allow scalable electrical connection bandwidth of multiple servers in a rack to aggregation modules and compact bifurcatable optical cables to connect the aggregation modules to switches, while minimizing switch faceplate connector area requirements by using optical connectors. Users of a system including scalable-bandwidth aggregation boxes can choose a desired bandwidth cable to connect a server to a switch via an aggregation box. An aggregation box may include a scalable-bandwidth electrical connector on a faceplate, signal lines coupled between the scalable-bandwidth electrical connector and a board connector in the housing, and a serviceable bandwidth-aggregation module removably disposed in the housing.

Abstract: Switch sub-chassis systems and methods for rack-scale servers are disclosed. A switch sub-chassis is arranged for modular installation in an enclosure and includes structural support features that allow multiple hot-serviceable line-cards and an integrated high-density optical fiber connectivity within the sub-chassis. Various features of the switch sub-chassis and associated line-cards allow liquid-electro-optical blindmate of the line-cards so that the line-cards are serviceable, allow high-density and complex fiber shuffle assemblies support, and facilitate ease of installation and/or servicing of fiber assemblies.

Abstract: An example device in accordance with an aspect of the present disclosure includes a first shield to provide thermal isolation between a first component and a heatsink of a second component, and to provide a cooling channel that is thermally isolated from the heatsink to receive an airflow for the first component. A second shield is to provide thermal isolation between the first shield and the heatsink, and to provide a thermal barrier region between the first shield and the second shield.

Abstract: An optical conversion module having a printed circuit board having a proximate and a distal end and including an electrical interface at the distal end. The optical conversion module also having a faceplate modularly connected to the proximate end of the printed circuit board, the faceplate having at least one retention device. The optical conversion module further having an optical transceiver disposed on and electrically connected to the printed circuit board, a chip optical connector disposed on and optically connected to the optical transceiver, and a faceplate optical connector modularly disposed through the faceplate and modularly connected to the chip optical connector through an optical fiber jumper.

Abstract: A system is provided for computer networking. The system includes a first frame installed in a rack. The first frame includes a first frame shuffle that interconnects resource modules within the first frame and a first rocker-arm plenum that interconnects resource modules of the first frame with resource modules of other frames of the rack through a high-bandwidth fabric. The system also includes a second frame installed in the rack. The second frame includes a second frame shuffle that interconnects resource modules within the second frame and a second rocker-arm plenum communicatively coupled to the first rocker-arm plenum, wherein the second rocker-arm plenum interconnects resource modules of the second frame with resource modules of other frames of the rack through the high-bandwidth fabric. The system further includes a frame bridge. The frame bridge includes a first bracket slidably connected to a second bracket.

Abstract: Example alignment members are provided herein. In one example, the alignment member includes a frame member, a stiffener member, a bracket member, and a spring member. The frame member includes a set of roller bushings. The stiffener member includes a set of cam members. The bracket member to receive the stiffener member. The spring member is connected to the stiffener member. The spring member to expand and contract based on the position of the set of roller bushings.

Abstract: One example of a system includes a system board including first contacts and second contacts and a cage attached to the system board. The cage includes a first side over the first contacts and a second side over the second contacts. A first lever is coupled to the first side of the cage and pivotable with respect to the cage. A second lever is coupled to the second side of the cage and pivotable with respect to the cage. A removable transceiver module includes third contacts. The transceiver module is installable in at least one of the first side and the second side of the cage using at least one of the first lever and the second lever.

Abstract: A system is provided for computer networking. The system includes a first frame installed in a rack. The first frame includes a first frame shuffle that interconnects resource modules within the first frame and a first rocker-arm plenum that interconnects resource modules of the first frame with resource modules of other frames of the rack through a high-bandwidth fabric. The system also includes a second frame installed in the rack. The second frame includes a second frame shuffle that interconnects resource modules within the second frame and a second rocker-arm plenum communicatively coupled to the first rocker-arm plenum, wherein the second rocker-arm plenum interconnects resource modules of the second frame with resource modules of other frames of the rack through the high-bandwidth fabric. The system further includes a frame bridge. The frame bridge includes a first bracket slidably connected to a second bracket.

Abstract: Example methods and apparatus to implement an electrical/optical transceiver to facilitate data transfer are disclosed. An example apparatus includes an electrical transceiver lane to transfer data at a first bandwidth over an electrical link. The example apparatus also includes a plurality of optical transceiver sub-lanes to transfer data over an optical link. The example apparatus also includes a lane switch to dynamically map the electrical transceiver lane to the plurality of optical transceiver sub-lanes based on an analysis of the first bandwidth and the plurality of optical transceiver sub-lanes to accommodate the first bandwidth with at least a subset of the plurality of optical transceiver sub-lanes to transfer data between the electrical link and the optical link.

Abstract: Example alignment members are provided herein. In one example, the alignment member includes a frame member, a stiffener member, a bracket member, and a spring member. The frame member includes a set of roller bushings. The stiffener member includes a set of cam members. The bracket member to receive the stiffener member. The spring member is connected to the stiffener member. The spring member to expand and contract based on the position of the set of roller bushings.

Abstract: One example of a cable assembly includes a housing, a first cable, a first connector board, a second cable, and a second connector board. The first connector board is electrically coupled to the first cable and is at least partially arranged within the housing. The second connector board is electrically coupled to the second cable and is at least partially arranged within the housing.

Abstract: One example of a multi-chip module includes a substrate, a semiconductor chip, and an optical transceiver. The substrate has a first side and a second side opposite the first side. The semiconductor chip is electrically coupled to the first side of the substrate. The optical transceiver is electrically coupled to the second side of the substrate.

Abstract: One example of an optical transceiver module includes a receptacle including at least one receptacle bay supporting at least 1-lane for optical transmit and receive signals. The at least one receptacle bay is to connect to any one of a 1-connector bay single-density optical cable and a 1-connector bay double-density optical cable.

Abstract: Example alignment members are provided herein. In one example, the alignment member includes a frame member, a stiffener member, a bracket member, and a spring member. The frame member includes a set of roller bushings. The stiffener member includes a set of cam members. The bracket member to receive the stiffener member. The spring member is connected to the stiffener member. The spring member to expand and contract based on the position of the set of roller bushings.

Abstract: A bridge adapter that includes a first end and a second end. The bridge adapter further including a first ferrule connection on the first end and a second ferrule connection on the second end. The bridge adapter also including an optical path optically connecting the first ferrule connection and the second ferrule connection. Also, a method of connection optical cable having multiple pitches, the method including connecting a first optical cable having a first fiber pitch to a bridge adapter and connection having a second fiber pitch to the bridge adapter. The method further including directing an optical signal through the first optical cable, the bridge adapter, and the second optical cable, wherein the directing includes sending the optical signal through an optical wave bridge in the bridge adapter and having the first fiber pitch on a first end and the second fiber pitch on the second end.

Abstract: An example device in accordance with an aspect of the present disclosure includes a first shield to provide thermal isolation between a first component and a heatsink of a second component, and to provide a cooling channel that is thermally isolated from the heatsink to receive an airflow for the first component. A second shield is to provide thermal isolation between the first shield and the heatsink, and to provide a thermal barrier region between the first shield and the second shield.

Abstract: A system is provided for computer networking. The system includes a first frame installed in a rack. The first frame includes a first frame shuffle that interconnects resource modules within the first frame and a first rocker-arm plenum that interconnects resource modules of the first frame with resource modules of other frames of the rack through a high-bandwidth fabric. The system also includes a second frame installed in the rack. The second frame includes a second frame shuffle that interconnects resource modules within the second frame and a second rocker-arm plenum communicatively coupled to the first rocker-arm plenum, wherein the second rocker-arm plenum interconnects resource modules of the second frame with resource modules of other frames of the rack through the high-bandwidth fabric. The system further includes a frame bridge. The frame bridge includes a first bracket slidably connected to a second bracket.

Abstract: A system is provided for computer networking. The system includes a first frame installed in a rack. The first frame includes a first frame shuffle that interconnects resource modules within the first frame and a first rocker-arm plenum that interconnects resource modules of the first frame with resource modules of other frames of the rack through a high-bandwidth fabric. The system also includes a second frame installed in the rack. The second frame includes a second frame shuffle that interconnects resource modules within the second frame and a second rocker-arm plenum communicatively coupled to the first rocker-arm plenum, wherein the second rocker-arm plenum interconnects resource modules of the second frame with resource modules of other frames of the rack through the high-bandwidth fabric. The system further includes a frame bridge. The frame bridge includes a first bracket slidably connected to a second bracket.

Abstract: In one example, a system for a press-fit pin converter includes a first housing coupled to a second housing to enclose a portion of a press-fit contact pin between the first housing and the second housing, where a side of the first housing provides a ball grid array (BGA) connection and a side of the second housing provides a press-fit pin connection.

Abstract: A system is provided for computer networking. The system includes a first frame installed in a rack. The first frame includes a first frame shuffle that interconnects resource modules within the first frame and a first rocker-arm plenum that interconnects resource modules of the first frame with resource modules of other frames of the rack through a high-bandwidth fabric. The system also includes a second frame installed in the rack. The second frame includes a second frame shuffle that interconnects resource modules within the second frame and a second rocker-arm plenum communicatively coupled to the first rocker-arm plenum, wherein the second rocker-arm plenum interconnects resource modules of the second frame with resource modules of other frames of the rack through the high-bandwidth fabric. The system further includes a frame bridge. The frame bridge includes a first bracket slidably connected to a second bracket.