Abstract: A Multi-Chip Module (MCM) includes a substrate and a switch controller on the substrate. An optical module on the substrate includes at least one optical crosspoint switch for selectively routing optical signals received by the optical module out of the MCM without the MCM converting the optical signals into electrical signals for processing data from the optical signals by the switch controller. According to another aspect, at least one memory on the substrate is electrically connected to the switch controller by a parallel bus. In another aspect, the MCM includes a plurality of input optical paths for receiving optical signals from outside the MCM, a plurality of output optical paths for transmitting optical signals from the MCM, and a plurality of optical crosspoint switches each connecting an input optical path to an output optical path to selectively route optical signals.

Abstract: A method and apparatus are provided to receive a voltage at a first value at a voltage reducing adaptor, ascertain a voltage supply requirement for the memory arrangement to obtain and ascertained voltage supply requirement, reduce the voltage from the first value to the ascertained voltage supply requirement within the adaptor and supply the voltage at the ascertained voltage supply requirement to the memory arrangement.

Abstract: A Multi-Chip Module (MCM) includes a substrate and a switch controller on the substrate. An optical module on the substrate includes at least one optical crosspoint switch for selectively routing optical signals received by the optical module out of the MCM without the MCM buffering data from the optical signals or without converting the optical signals into electrical signals for processing data from the optical signals by the switch controller. According to another aspect, at least one memory on the substrate is connected to the switch controller by a parallel bus. In another aspect, the MCM includes a plurality of input optical paths for receiving optical signals from outside the MCM, a plurality of output optical paths for transmitting optical signals from the MCM, and a plurality of optical crosspoint switches each connecting an input optical path to an output optical path to selectively route optical signals.

Abstract: A network attached storage device coupled to a local network and including a network interface configured to receive digital content from a remote content provider outside the local network. The network attached storage device includes storage having a first region accessible by a user of the local network and a secure region. The network attached storage device includes a processor coupled to the storage, the processor configured to control access to the secure region of the storage based on instructions received from a remote content provider.

Abstract: A Multi-Chip Module (MCM) includes a substrate and a switch controller on the substrate. An optical module on the substrate includes at least one optical crosspoint switch for selectively routing optical signals received by the optical module out of the MCM without the MCM buffering data from the optical signals or without converting the optical signals into electrical signals for processing data from the optical signals by the switch controller. According to another aspect, at least one memory on the substrate is connected to the switch controller by a parallel bus. In another aspect, the MCM includes a plurality of input optical paths for receiving optical signals from outside the MCM, a plurality of output optical paths for transmitting optical signals from the MCM, and a plurality of optical crosspoint switches each connecting an input optical path to an output optical path to selectively route optical signals.

Abstract: A network attached storage device coupled to a local network and including a network interface configured to receive digital content from a remote content provider outside the local network. The network attached storage device includes storage having a first region accessible by a user of the local network and a secure region. The network attached storage device includes a processor coupled to the storage, the processor configured to control access to the secure region of the storage based on instructions received from a remote content provider.

Abstract: A server can be used for a cold storage application. The server can include a nest for holding a high density of bare storage drives. The nest can include a plurality of drive cooling channels residing on the underside of the nest. The server can further include rear, front, and side air flow paths for natural convection cooling.

Abstract: Embodiments of network devices for content distribution are described. In some embodiments, an edge network device integrates network coding for content distribution with erasure coding for data storage. Embodiments of methods of integrating network coding and erasure coding are also disclosed. In some embodiments, an edge network device can determine content distribution and storage for content based on one or more penalty functions that assess storage capacity, computational power, user demand, and/or network bandwidth for optimal resource usage. In some embodiments, an edge network device creates fragments of content and transmits a subset of the fragments for early distribution. In response to a user request for the content, the edge network device can transmit the remaining fragments to the user device for the user device to reconstruct the original content.

Abstract: A node includes a switch controller and an optical module configured to receive optical signals from at least one other node in a network. It is determined from an electrical signal for a first optical signal whether to process data from one or more subsequent optical signals or to route the one or more subsequent optical signals out of the of the node without processing data from the one or more subsequent optical signals. According to another aspect, a first optical signal is transmitted from a first node in a data processing system to a second node in the data processing system. Based on evaluation at the second node, it is determined whether to route one or more subsequent optical signals to a third node without processing data from the one or more subsequent optical signals at the second node.

Abstract: A Data Storage Device (DSD) enclosure includes a chassis and at least one backplane mounted in the chassis. According to one aspect, each backplane includes a row of DSD slots and a switch slot located in a middle portion of the row of DSD slots. A plurality of signal traces connect the DSD slots to the switch slot.

Abstract: A server can be used for a cold storage application. The server can include a nest for holding a high density of bare storage drives. The nest can include a plurality of drive cooling channels residing on the underside of the nest. The server can further include rear, front, and side air flow paths for natural convection cooling.

Abstract: A server chassis includes a plurality of microservers with each microserver including a Micro Baseboard Management Controller (?BMC) and at least one processor for controlling operation of the microserver. A BMC communication manager of the server chassis directly communicates with each ?BMC of the plurality of micro-servers. A Chassis BMC (CBMC) connects to the BMC communication manager and communicates with the BMC communication manager via a plurality of communication protocols. The BMC communication manager translates at least one of the plurality of protocols to a different protocol for direct communication with each ?BMC. According to one aspect, a ?BMC is connected to an out-of-band port of a microserver for communicating with at least one processor of the microserver. According to another aspect, the BMC communication manager includes at least one CBMC connector for communicating with the CBMC, and a plurality of ?BMC ports for communicating directly with a respective ?BMC.

Abstract: A Chassis Baseboard Management Controller (CBMC) includes at least one memory for storing data related to a plurality of microservers in a server chassis. A request is received from a remote device for microserver hostnames to build a locality map for a storage or processing pool in a distributed storage or processing network. A device slot number corresponding to a physical location of the microserver in the server chassis is determined for each microserver. The determined device slot number is appended to a chassis hostname to create respective microserver hostnames. According to one aspect, a microserver hostname is received from a CBMC and stored in a memory of a ?BMC of a microserver. The microserver hostname is retrieved from the memory by a processor of the microserver during a boot sequence. The retrieved microserver hostname is set as a hostname for communicating via at least one network interface.

Abstract: An extruder for a three-dimensional additive printer can be used to receive and dispense material. The extruder can include a number of different components including a nozzle with an adjustable opening configured to discharge material. The nozzle can be configured to be moved and rotated so as to align the adjustable opening with a plurality of paths along which the material is configured to be deposited for generating a three-dimensional object. The adjustable opening can comprise a first orifice and an obstruction member configured to move with respect to the first orifice. The position of the obstruction member can adjust the size of the opening area of the adjustable opening.

Abstract: A dual head extruder for a three-dimensional additive printer can be used to receive and dispense material. The extruder can include a number of different components including two nozzles, at least one having an adjustable opening configured to discharge material. The adjustable opening can be configured to be moved and rotated so as to align the adjustable opening with a plurality of paths along which the material is configured to be deposited for generating a three-dimensional object. The adjustable opening can comprise a first orifice and an obstruction member configured to move with respect to the first orifice. The position of the obstruction member can adjust the size of the opening area of the adjustable opening.

Abstract: A network attached storage device coupled to a local network and including a network interface configured to receive digital content from a remote content provider outside the local network. The network attached storage device includes storage having a first region accessible by a user of the local network and a secure region. The network attached storage device includes a processor coupled to the storage, the processor configured to control access to the secure region of the storage based on instructions received from a remote content provider.

Abstract: A network attached storage device coupled to a local network and including a network interface configured to receive digital content from a remote content provider outside the local network. The network attached storage device includes storage having a first region accessible by a user of the local network and a secure region. The network attached storage device includes a processor coupled to the storage, the processor configured to control access to the secure region of the storage based on instructions received from a remote content provider.

Abstract: A Data Storage Device (DSD) enclosure includes a chassis and at least one backplane mounted in the chassis. According to one aspect, each backplane includes a row of DSD slots and a switch slot located in a middle portion of the row of DSD slots. A plurality of signal traces connect the DSD slots to the switch slot.

Abstract: A server can be used for a cold storage application. The server can include a nest for holding a high density of bare storage drives. The nest can include a plurality of drive cooling channels residing on the underside of the nest. The server can further include rear, front, and side air flow paths for natural convection cooling.

Abstract: A server can be used for a cold storage application. The server can comprise a nest for holding a high density of bare storage drives, wherein the nest comprises a plurality of drive cooling channels residing on the underside of the nest. The server can further comprise rear, front, and side air flow paths for natural convection cooling.