Abstract: A rack front-to-rear cable routing system includes a rack chassis having a first rack wall, a second rack wall opposite the first rack wall, a first rack entrance defined between the first and second rack walls, and a second rack entrance defined between the first and second rack walls and opposite the first rack entrance. A computing device housing is defined by the rack chassis. A rack front-to-rear cable routing device is located between the computing device housing and the first rack wall, and defines a protected cable conduit extending between the first and second rack entrances. The protected cable conduit houses a first cable connected to each of a first port on a first computing device in the computing device housing located adjacent the first rack entrance, and a second port on a second computing device in the computing device housing located adjacent the second rack entrance.

Abstract: A rack front-to-rear cable routing system includes a rack that defines a rack entrance and a rack exit, and a plurality of computing device housings between the rack entrance and rack exit. A plurality of computing devices are each positioned in a respective computing device housing. A rack front-to-rear cable routing device is positioned in one of the computing device housings and defines a plurality of protected cable conduits that extend between the rack entrance to the rack exit. A first cable is coupled to each of the plurality of computing devices and extends through a first protected cable conduit.

Abstract: A rack front-to-rear cable routing system includes a rack chassis having a first rack wall, a second rack wall opposite the first rack wall, a first rack entrance defined between the first and second rack walls, and a second rack entrance defined between the first and second rack walls and opposite the first rack entrance. A computing device housing is defined by the rack chassis. A rack front-to-rear cable routing device is located between the computing device housing and the first rack wall, and defines a protected cable conduit extending between the first and second rack entrances. The protected cable conduit houses a first cable connected to each of a first port on a first computing device in the computing device housing located adjacent the first rack entrance, and a second port on a second computing device in the computing device housing located adjacent the second rack entrance.

Abstract: A cable release system includes a handle. An elongated base extends from the handle and includes a length that allows the handle to be held adjacent a cable connector distal end of a cable connector that is connected to a computing device while the elongated base extends adjacent the cable connector and an elongated base distal end of the elongated base is located adjacent a securing latch on the cable connector. An actuating member is located on the elongated base distal end of the elongated base and is configured to actuate the securing latch on the cable connector when the elongated base distal end of the elongated base is located adjacent the securing latch on the cable connector.

Abstract: Systems and methods for establishing a direct communication between modular electronic devices comprise a connector assembly implemented in a first modular device and having a connector that is implemented in a housing. The housing holding the connector may use a spring to mate with a receptacle of a second modular device, e.g., a module in a chassis in a data center, to establish a releasable direct connection without utilizing a backplane.

Abstract: A hybrid management cable includes a cable connector having a first cable sub-connector and a second cable sub-connector, The cable connector connects to a hybrid management switch connector on a hybrid management switch and, in response, engages the first cable sub-connector with a first hybrid management switch sub-connector on the hybrid management switch connector, and engages the second cable sub-connector with a second hybrid management switch sub-connector on the hybrid management switch connector. A cable conduit extends from the cable connector. A first management data transmission medium is connected to the first cable sub-connector, located in the cable conduit, and extends along the length of the cable conduit. A second management data transmission medium is connected to the second cable sub-connector, located in the cable conduit and isolated from the first management data transmission medium, and extends along the length of the cable conduit.

Abstract: Presented herein are embodiments of a power-over-Ethernet (PoE) breakout system that may be used to breakout a PoE port from a PoE information handling system into a number of breakout ports. In one or more embodiments, a PoE breakout system comprises: a PoE port for connecting to a PoE information handling system, such as a PoE switch; a plurality of breakout ports for connecting to powered devices, wherein each breakout port is configured to supply power to a powered device; and a power management module electrically coupled to the PoE port and configured to supply power to each breakout port according to a configuration that sets a power level for that breakout port. In one or more embodiments. the PoE breakout system comprises a data communications module that switches data traffic to a correct PoE breakout port according to its intended powered device.

Abstract: A hybrid management cable includes a cable connector having a first cable sub-connector and a second cable sub-connector, The cable connector connects to a hybrid management switch connector on a hybrid management switch and, in response, engages the first cable sub-connector with a first hybrid management switch sub-connector on the hybrid management switch connector, and engages the second cable sub-connector with a second hybrid management switch sub-connector on the hybrid management switch connector. A cable conduit extends from the cable connector. A first management data transmission medium is connected to the first cable sub-connector, located in the cable conduit, and extends along the length of the cable conduit. A second management data transmission medium is connected to the second cable sub-connector, located in the cable conduit and isolated from the first management data transmission medium, and extends along the length of the cable conduit.

Abstract: A cable release system includes a handle. An elongated base extends from the handle and includes a length that allows the handle to be held adjacent a cable connector distal end of a cable connector that is connected to a computing device while the elongated base extends adjacent the cable connector and an elongated base distal end of the elongated base is located adjacent a securing latch on the cable connector. An actuating member is located on the elongated base distal end of the elongated base and is configured to actuate the securing latch on the cable connector when the elongated base distal end of the elongated base is located adjacent the securing latch on the cable connector.

Abstract: A micro-strand transceiver device heat dissipation system includes a transceiver device chassis, at least one transceiver component located in the transceiver device chassis, and micro-strand heat dissipator elements that are each positioned in the transceiver device chassis in a spaced apart orientation from the others of the micro-strand heat dissipator elements. Each of the micro-strand heat dissipator elements include a first micro-strand heat dissipator element portion that engages the at least one transceiver component, and a second micro-strand heat dissipator element portion that extends from the at least one transceiver component. The first micro-strand heat dissipator element portion on each of the micro-strand heat dissipator elements conducts heat generated by the at least one transceiver component to the second micro-strand heat dissipator element portion on that micro-strand heat dissipator element, which allows that heat to be dissipated.

Abstract: A rack switch coupling system includes a switch device and a plurality of computing devices that are positioned in a rack in a stacked orientation. Each of the computing devices includes a top surface that corresponds with a first plane associated with that computing device, and a bottom surface that corresponds with a second plane associated with that computing device. A port extender system is positioned in the rack and includes respective first ports cabled to each of the computing devices, with each of the respective first ports located adjacent the computing device to which it is cabled and between the first plane and the second plane associated with that computing device. The port extender device also includes a plurality of second ports that are each located adjacent and cabled to switch device, with each respective first port connected to one of the plurality of second ports.

Abstract: A power/data transmission breakout system includes a power/data transmission breakout device coupled to a powering device and each of a plurality of powered devices. The power/data transmission breakout device receives power and data from the powering device via a first power/data cable that is connected to the power/data transmission breakout device, and identifies a first powered device as a destination for the data. The power/data transmission breakout device then transmits a respective subset of the power that was received from the powering device via each of a plurality of second power/data cables that are each connected to the power/data transmission breakout device and a respective one of the plurality of powered devices, and transmits the data along with the respective subset of the power that was received from the powering device via the second power/data cable that is connected to that first powered device.

Abstract: A power/data transmission extender system includes a power/data transmission extender device that is coupled to a powering device and a powered device. The power/data transmission extender device receives power and data from the powering device via a first power/data cable that is connected to the power/data transmission extender device, and stores at least a portion of the power that was received from the powering device via the first power/data cable in a power storage subsystem that is included in the power/data transmission extender device. The power/data transmission extender device may then transmit the data that was received from the powering device, at least a portion of the power that was received from the powering device, and at least a portion of power that is stored in the power storage subsystem, to the powered device via a second power/data cable that is connected to the power/data transmission extender device.

Abstract: Release mechanisms and methods for engaging and disengaging cables from receptacles comprise an actuator that may be implemented at a receptacle, e.g., at a switch panel that comprises ports designed to engage with a connector. Once a force is exerted on the actuator, it causes one or more prongs to move toward a locking latch of the connector, until the latch is sufficiently depressed such as to unlock the connector and allow the connector to disengage from the receptacle.

Abstract: A rack switch coupling system includes computing devices positioned in a rack in a stacked orientation. A switch system positioned in the rack includes a circuit board with a processing system. Respective first ports are each located on the circuit board, coupled to the processing system via a respective trace on the circuit board, cabled to a respective one of the computing devices, and located adjacent its cabled computing device between a top plane and a bottom plane associated with that computing device. Respective second ports are each located off of the circuit board, coupled to the processing system via a respective trace on the circuit board and a respective cable extending between that trace and that second port, cabled to a respective one of the computing devices, and located adjacent its cabled computing device between a top plane and a bottom plane associated with that computing device.

Abstract: A power/data transmission extender system includes a power/data transmission extender device that is coupled to a powering device and a powered device. The power/data transmission extender device receives power and data from the powering device via a first power/data cable that is connected to the power/data transmission extender device, and stores at least a portion of the power that was received from the powering device via the first power/data cable in a power storage subsystem that is included in the power/data transmission extender device. The power/data transmission extender device may then transmit the data that was received from the powering device, at least a portion of the power that was received from the powering device, and at least a portion of power that is stored in the power storage subsystem, to the powered device via a second power/data cable that is connected to the power/data transmission extender device.

Abstract: A power/data transmission breakout system includes a power/data transmission breakout device coupled to a powering device and each of a plurality of powered devices. The power/data transmission breakout device receives power and data from the powering device via a first power/data cable that is connected to the power/data transmission breakout device, and identifies a first powered device as a destination for the data. The power/data transmission breakout device then transmits a respective subset of the power that was received from the powering device via each of a plurality of second power/data cables that are each connected to the power/data transmission breakout device and a respective one of the plurality of powered devices, and transmits the data along with the respective subset of the power that was received from the powering device via the second power/data cable that is connected to that first powered device.

Abstract: Systems and methods for establishing a direct communication between modular electronic devices comprise a connector assembly implemented in a first modular device and having a connector that is implemented in a housing. The housing holding the connector may use a spring to mate with a receptacle of a second modular device, e.g., a module in a chassis in a data center, to establish a releasable direct connection without utilizing a backplane.

Abstract: Presented herein are embodiments of a power-over-Ethernet (PoE) breakout system that may be used to breakout a PoE port from a PoE information handling system into a number of breakout ports. In one or more embodiments, a PoE breakout system comprises: a PoE port for connecting to a PoE information handling system, such as a PoE switch; a plurality of breakout ports for connecting to powered devices, wherein each breakout port is configured to supply power to a powered device; and a power management module electrically coupled to the PoE port and configured to supply power to each breakout port according to a configuration that sets a power level for that breakout port. In one or more embodiments. the PoE breakout system comprises a data communications module that switches data traffic to a correct PoE breakout port according to its intended powered device.

Abstract: Release mechanisms and methods for engaging and disengaging cables from receptacles comprise an actuator that may be implemented at a receptacle, e.g., at a switch panel that comprises ports designed to engage with a connector. Once a force is exerted on the actuator, it causes one or more prongs to move toward a locking latch of the connector, until the latch is sufficiently depressed such as to unlock the connector and allow the connector to disengage from the receptacle.