Abstract: An information handling system is provided. The information handling system includes systems and methods for expanding the port count in a single Fiber Channel domain by adding modular Fiber Channel switches. Such a system includes a system enclosure that contains a plurality of Fiber Channel modules configured to send and receive Fiber Channel packets, the Fiber Channel modules providing a plurality of Fiber Channel ports and a switch processor coupled to the plurality of Fiber Channel ports and to a plurality of Ethernet ports. The switch processor is configured to apply a stacking header to Fiber Channel packets for transmission from one of the plurality of Ethernet ports over a stacking link to another switch processor in another system enclosure.

Abstract: An information handling system is provided. The information handling system includes at least one network switch that includes at least one processing unit, a memory coupled to the at least one processing unit, the memory storing at least one image including instructions controlling functions of the at least network switch, and a baseband management controller coupled to the memory and the at least one processing unit, the baseband management controller receiving and storing at least one upgraded image for writing to the memory to replace the at least one image. The baseband management controller receives the at least one upgraded image from a remote terminal, powers off the at least one processing unit, and writes the at least one upgraded image to the memory while the at least one processing unit is powered off.

Abstract: An electrical equipment chassis includes a frame open to a first side and an opposite second side and a power board located near a mid-plane of the chassis coupling power supply modules to first networking modules and a second networking module. A first region open to the first side can receive first power supply modules. A second region open to the first side is adjacent to the first region and can receive the first networking modules and the second networking module oriented with a first orientation. A third region open to the second side can receive fan trays with fans and third networking modules. The third networking modules are oriented orthogonal to the first orientation. The power board at least partially separates the first and third regions and only partially separates the second and third regions. The chassis permits air flow from the first side to the second side.

Abstract: An information handling system is provided. The information handling system includes systems and methods for expanding the port count in a single Fibre Channel domain by adding modular Fibre Channel switches. Such a system includes a system enclosure that contains a plurality of Fibre Channel modules configured to send and receive Fibre Channel packets, the Fibre Channel modules providing a plurality of Fibre Channel ports and a switch processor coupled to the plurality of Fibre Channel ports and to a plurality of Ethernet ports. The switch processor is configured to apply a stacking header to Fibre Channel packets for transmission from one of the plurality of Ethernet ports over a stacking link to another switch processor in another system enclosure.

Abstract: A data switching system is disclosed that allows for switching of packets through a plurality of top of rack switches utilizing a logical switching fabric that includes a local TOR switching fabric on a TOR switch and a Core switching fabric on a Core switch. A method of processing packets according to some embodiment can include receiving a packet from a source port into a top of rack switch, the source port being one of a plurality of ports on the top of rack switch, processing a packet header of the packet to determine a destination port; and switching the packet through a logical switching fabric that includes a local switch fabric on the top of rack switch and a Core switching fabric on a Core switch.

Abstract: An information handling system is provided. The information handling system includes systems and methods for expanding the port count in a single Fiber Channel domain by adding modular Fiber Channel switches. Such a system includes a system enclosure that contains a plurality of Fiber Channel modules configured to send and receive Fiber Channel packets, the Fiber Channel modules providing a plurality of Fiber Channel ports and a switch processor coupled to the plurality of Fiber Channel ports and to a plurality of Ethernet ports. The switch processor is configured to apply a stacking header to Fiber Channel packets for transmission from one of the plurality of Ethernet ports over a stacking link to another switch processor in another system enclosure.

Abstract: An information handling system is provided. The information handling system includes at least one network switch. The at least one network switch includes a network access port receiving network packets including management information at least one processing unit, the at least one processing unit transmitting and receiving serial information. The at least one network switch also includes a baseband management controller coupled between the network access port and the at least one processing unit, the baseband management controller converting the serial information into network information and converting the network packets into serial information and a remote management terminal coupled to the at least one network switch, the remote management terminal transmitting the network packets including management information to the network switch for remotely managing the network switch.

Abstract: An electrical equipment chassis includes a frame open to a first side and an opposite second side and a power board located near a mid-plane of the chassis coupling power supply modules to first networking modules and a second networking module. A first region open to the first side can receive first power supply modules. A second region open to the first side is adjacent to the first region and can receive the first networking modules and the second networking module oriented with a first orientation. A third region open to the second side can receive fan trays with fans and third networking modules. The third networking modules are oriented orthogonal to the first orientation. The power board at least partially separates the first and third regions and only partially separates the second and third regions. The chassis permits air flow from the first side to the second side.

Abstract: An electrical equipment chassis includes a frame open to a first side and an opposite second side and a power board located near a mid-plane of the chassis coupling power supply modules to first networking modules and a second networking module. A first region open to the first side can receive first power supply modules. A second region open to the first side is adjacent to the first region and can receive the first networking modules and the second networking module oriented with a first orientation. A third region open to the second side can receive fan trays with fans and third networking modules. The third networking modules are oriented orthogonal to the first orientation. The power board at least partially separates the first and third regions and only partially separates the second and third regions. The chassis permits air flow from the first side to the second side.

Abstract: An electrical equipment chassis includes a frame open to a first side and an opposite second side and a power board located near a mid-plane of the chassis coupling power supply modules to first networking modules and a second networking module. A first region open to the first side can receive first power supply modules. A second region open to the first side is adjacent to the first region and can receive the first networking modules and the second networking module oriented with a first orientation. A third region open to the second side can receive fan trays with fans and third networking modules. The third networking modules are oriented orthogonal to the first orientation. The power board at least partially separates the first and third regions and only partially separates the second and third regions. The chassis permits air flow from the first side to the second side.

Abstract: An information handling system is provided. The information handling system includes systems and methods for expanding the port count in a single Fibre Channel domain by adding modular Fibre Channel switches. Such a system includes a system enclosure that contains a plurality of Fibre Channel modules configured to send and receive Fibre Channel packets, the Fibre Channel modules providing a plurality of Fibre Channel ports and a switch processor coupled to the plurality of Fibre Channel ports and to a plurality of Ethernet ports. The switch processor is configured to apply a stacking header to Fibre Channel packets for transmission from one of the plurality of Ethernet ports over a stacking link to another switch processor in another system enclosure.

Abstract: An information handling system is provided. The information handling system includes at least one network switch. The at least one network switch includes a network access port receiving network packets including management information at least one processing unit, the at least one processing unit transmitting and receiving serial information. The at least one network switch also includes a baseband management controller coupled between the network access port and the at least one processing unit, the baseband management controller converting the serial information into network information and converting the network packets into serial information and a remote management terminal coupled to the at least one network switch, the remote management terminal transmitting the network packets including management information to the network switch for remotely managing the network switch.

Abstract: An information handling system is provided. The information handling system includes at least one network switch that includes at least one processing unit, a memory coupled to the at least one processing unit, the memory storing at least one image including instructions controlling functions of the at least network switch, and a baseband management controller coupled to the memory and the at least one processing unit, the baseband management controller receiving and storing at least one upgraded image for writing to the memory to replace the at least one image. The baseband management controller receives the at least one upgraded image from a remote terminal, powers off the at least one processing unit, and writes the at least one upgraded image to the memory while the at least one processing unit is powered off.

Abstract: A data switching system is disclosed that allows for switching of packets through a plurality of top of rack switches utilizing a logical switching fabric that includes a local TOR switching fabric on a TOR switch and a Core switching fabric on a Core switch. A method of processing packets according to some embodiment can include receiving a packet from a source port into a top of rack switch, the source port being one of a plurality of ports on the top of rack switch, processing a packet header of the packet to determine a destination port; and switching the packet through a logical switching fabric that includes a local switch fabric on the top of rack switch and a Core switching fabric on a Core switch.

Abstract: The nodes of a repeater interface controller which repeats data packets received from one segment of a local area network onto the remaining segments of the local area network include loopback circuitry that allow the data packets received from the one segment to be repeated back onto the one segment in addition to the remaining segments of the local area network, thereby allowing the integrity of the one segment to be verified.

Abstract: A repeater interface controller receives a data packet at one of a plurality of port nodes from an associated segment of a local area network. At least one port node is configurable as either an attachment unit interface or a twisted pair interface. The port nodes determine a priority port node, of more than one port node receives a data packet at substantially the same time, and transmit the data packet from the priority port node to a central node. The central node receives the data packet from the priority node, repeats the data packet, and transmits the repeated data packet to the non-priority port nodes. Each non-priority port node receives the repeated data packet and transmits the repeated data onto its associated segment.

Abstract: A repeater interface controller receives a data packet at one of a plurality of port nodes from an associated segment of a local area network. The port nodes determine a priority port node, if more than one port node receives a data packet at substantially the same time, and transmit the data packet from the priority port node to a central node. The central node receives the data packet, repeats the data packet from the priority node, and transmits the repeated data packet to the non-priority port nodes. Each non-priority port node receives the repeated data packet and transmits the repeated data onto its associated segment. Each port node further includes a partitioning port state machine which monitors its associated segment and partitions the segment from the repeater interface controller when the partitioning port state machine detects a collision in a predetermined number of consecutive data packets.