Abstract: Multiple degenerately-doped silicon layers are implemented within resonant structures to control multiple orders of temperature coefficients of frequency.

Abstract: A moveable micromachined member of a microelectromechanical system (MEMS) device includes an insulating layer disposed between first and second electrically conductive layers. First and second mechanical structures secure the moveable micromachined member to a substrate of the MEMS device and include respective first and second electrical interconnect layers coupled in series, with the first electrically conductive layer of the moveable micromachined member and each other, between first and second electrical terminals to enable conduction of a first joule-heating current from the first electrical terminal to the second electrical terminal through the first electrically conductive layer of the moveable micromachined member.

Abstract: An input/output module (IOM) for use within a network storage system mounted within a rack enclosure. The IOM includes a switching component configured to provide top-of-rack (TOR) switching for data to be routed from input connectors to data storage devices within the rack enclosure. The IOM also includes a protocol interface configured to convert a protocol of the data from an input data protocol (e.g., Ethernet, Fibre Channel or InfiniBand™) to a protocol for use with the storage devices (e.g., nonvolatile memory express (NVMe) and Peripheral Component Interconnect Express (PCIe)). Among other features, the IOM allows switching to be dis-aggregated from a TOR switch and distributed throughout the data network of the rack.

Abstract: An additive manufactured structure and methods for making and using same. The structure includes a plurality of layers stacked in a stacking direction. The structure further includes at least one reinforcement structure affixed to the layers and extending at least partially in the stacking direction. The reinforcement structure can hold the layers together to stiffen and strengthen the structure. Mechanical strength of the structure in the stacking direction can advantageously be improved. Shape and spatial distribution of the reinforcement structure can be customized and adapted to the geometry of the layers to enhance strengthening effect. The reinforcement structure can be tension free or have a compressive stress induced by a preload applied during manufacturing. The compressive stress can be adjusted dynamically via a sensor. The structure and methods provide, among other things, novelty for addressing the inherent weaknesses in parts created by large-scale extrusion deposition processes.

Abstract: One feature pertains to a modular design of a motherboard for a computer system. The mother board is disaggregated into a CPU board and an IO board. The CPU board contains at least one CPU, the associated memory subsystem and the voltage regulator module. The integrated IO ports escape to a high speed connector mating with its counterpart on an IO board which contains all peripheral devices including system logic not part of the CPU. In a multi-socket configuration the CPUs are on the CPU board and the processor interconnects are routed directly in a point to point manner.

Abstract: A network-attached storage device is provided comprising a network card with an embedded operating system that provides autonomous operation of the network card, the network card including a network port to communicate with an external device and a peripheral component interconnect express (PCIe) interface to couple to a first PCIe device in the absence of a system host processor.

Abstract: An additive manufactured structure and methods for making and using same. The structure includes a plurality of layers stacked in a stacking direction. The structure further includes at least one reinforcement structure affixed to the layers and extending at least partially in the stacking direction. The reinforcement structure can hold the layers together to stiffen and strengthen the structure. Mechanical strength of the structure in the stacking direction can advantageously be improved. Shape and spatial distribution of the reinforcement structure can be customized and adapted to the geometry of the layers to enhance strengthening effect. The reinforcement structure can be tension free or have a compressive stress induced by a preload applied during manufacturing. The compressive stress can be adjusted dynamically via a sensor. The structure and methods provide, among other things, a novel means for addressing the inherent weaknesses in parts created by large-scale extrusion deposition processes.

Abstract: An additive manufactured structure and methods for making and using same. The structure includes a plurality of layers stacked in a stacking direction. The structure further includes at least one reinforcement structure affixed to the layers and extending at least partially in the stacking direction. The reinforcement structure can hold the layers together to stiffen and strengthen the structure. Mechanical strength of the structure in the stacking direction can advantageously be improved. Shape and spatial distribution of the reinforcement structure can be customized and adapted to the geometry of the layers to enhance strengthening effect. The reinforcement structure can be tension free or have a compressive stress induced by a preload applied during manufacturing. The compressive stress can be adjusted dynamically via a sensor. The structure and methods provide, among other things, a novel means for addressing the inherent weaknesses in parts created by large-scale extrusion deposition processes.

Abstract: One feature pertains to a scissor-based carrier assembly for a mass storage device used in a storage computer system. The carrier assembly has fixed and moving parts allowing the carrier to change from a retracted state to insert or remove the mass storage device into or from a storage enclosure to an extended state to couple the mass storage device with a connector of the storage computer system.

Abstract: One feature pertains to a scissor-based carrier assembly for a mass storage device used in a storage computer system. The carrier assembly has fixed and moving parts allowing the carrier to change from a retracted state to insert or remove the mass storage device into or from a storage enclosure to an extended state to couple the mass storage device with a connector of the storage computer system.

Abstract: An additive manufactured structure and methods for making and using same. The structure includes a plurality of layers stacked in a stacking direction. The structure further includes at least one reinforcement structure affixed to the layers and extending at least partially in the stacking direction. The reinforcement structure can hold the layers together to stiffen and strengthen the structure. Mechanical strength of the structure in the stacking direction can advantageously be improved. Shape and spatial distribution of the reinforcement structure can be customized and adapted to the geometry of the layers to enhance strengthening effect. The reinforcement structure can be tension free or have a compressive stress induced by a preload applied during manufacturing. The compressive stress can be adjusted dynamically via a sensor. The structure and methods provide, among other things, a novel means for addressing the inherent weaknesses in parts created by large-scale extrusion deposition processes.

Abstract: One feature pertains to a modular design of a motherboard for a computer system. The mother board is disaggregated into a CPU board and an IO board. The CPU board contains at least one CPU, the associated memory subsystem and the voltage regulator module. The integrated IO ports escape to a high speed connector mating with its counterpart on an IO board which contains all peripheral devices including system logic not part of the CPU. In a multi-socket configuration the CPUs are on the CPU board and the processor interconnects are routed directly in a point to point manner.

Abstract: Fluid movers produce at least predominantly laminar flow internally in an axial or a radial direction in a rotor. A fluid mover rotor comprises a matrix of passages of appropriate size to produce at least predominantly laminar flow spaced circumferentially around the rotor. The passages may provide axial, radial or mixed flow. “Appropriate” dimensions may be selected for a specified volume flow rate. In a radial embodiment, a matrix of radially extending passages could comprise walls having an axial height projecting from an annular disk. The passages may be offset with respect to the radial direction to provide an angle of attack that minimizes incidence losses. The matrix structure allows the use of thin-walled passages to minimize blockage of entering air.

Abstract: Fluid movers produce at least predominantly laminar flow internally in an axial or a radial direction in a rotor. A fluid mover rotor comprises a matrix of passages of appropriate size to produce at least predominantly laminar flow spaced circumferentially around the rotor. The passages may provide axial, radial or mixed flow. “Appropriate” dimensions may be selected for a specified volume flow rate. In a radial embodiment, a matrix of radially extending passages could comprise walls having an axial height projecting from an annular disk. The passages may be offset with respect to the radial direction to provide an angle of attack that minimizes incidence losses. The matrix structure allows the use of thin-walled passages to minimize blockage of entering air.

Abstract: In a distributed switch fabric network (300) having a first node (302) having a first node transceiver port (305) and a second node (304) having a second node transceiver port (340), link level flow control (370) operating between the first node transceiver port and the second node transceiver port to in response to a congestion condition (321) in the second node transceiver port, wherein the link level flow control suspends transmission of one of a plurality of priority levels of packets (312) on a channel from the first node transceiver port to the second node transceiver port. The one of the plurality of priority levels of packets accumulates in one of a plurality of a transmit buffers (362) of the first transceiver port, where the one of the plurality of transmit buffers corresponds to the one of the plurality of priority levels of packets.

Abstract: An integrated power supply air inlet unit (124) coupled to slidably insert into a first interspace region (120) of an embedded computer chassis (100), where the first interspace region is defined by a module portion (102), a rear surface (110) and a first side surface (112), includes a power supply (128) coupled to supply power to the embedded computer chassis, and a front surface (130) that is substantially perpendicular to the first side surface. A cooling air mass (140) is drawn into the embedded computer chassis through the front surface in a direction substantially perpendicular (150) to the front surface, where upon entering the integrated power supply air inlet unit the cooling air mass is turned substantially ninety degrees to flow over the module portion in a direction substantially parallel the front surface, and where the integrated power supply air inlet unit is hot-swappable in the embedded computer chassis.

Abstract: A method of directly transferring data across a CompactPCI™ backplane (170) via a fully meshed orthogonal network (370). The CompactPCI backplane (170) incorporates a different type connector at its P4 location, in conjunction with a standard family of IEC 61074 connectors at its P1, P2, P3, and P5 locations, to provide high speed data transfer with additional shielding and noise control.

Abstract: A multi-service platform system (100) includes a rear transition module (102) coupled to receive a DSX signal (105) and a payload node (104) coupled to the rear transition module via a backplane (110), where the payload node is coupled to process the DSX signal. A secondary payload node (114) is coupled to secondary rear transition module (112) via the backplane. A protection bus (150) couples the rear transition module to the secondary rear transition module outside the backplane, where failure of the payload node operates to shunt the DSX signal through the rear transition module to the secondary rear transition module. Failure of the payload node operates to switch processing of the DSX signal from the payload node to the secondary payload node, and the secondary rear transition module independently controls shunting of the DSX signal through the rear transition module to the secondary rear transition module.

Abstract: In a distributed switch fabric network (300) having a first node (302) having a first node transceiver port (305) and a second node (304) having a second node transceiver port (340), link level flow control (370) operating between the first node transceiver port and the second node transceiver port to in response to a congestion condition (321) in the second node transceiver port, wherein the link level flow control suspends transmission of one of a plurality of priority levels of packets (312) on a channel from the first node transceiver port to the second node transceiver port. The one of the plurality of priority levels of packets accumulates in one of a plurality of a transmit buffers (362) of the first transceiver port, where the one of the plurality of transmit buffers corresponds to the one of the plurality of priority levels of packets.

Abstract: The present invention is directed to a much safer and less expensive way of providing portable oxygen from a gas concentrator for patients who do not want to be tied to a stationary machine or restricted by present oxygen technology. The present invention involves a home liquid oxygen ambulatory system for supplying a portable supply of oxygen, where a portion of the gaseous oxygen output obtained from an oxygen concentrator is condensed into liquid oxygen. The system includes an oxygen concentrator which separates oxygen gas from the ambient air, a condenser in communication with the oxygen concentrator for receiving and liquefying the oxygen gas flow, a cryocooler associated with the condenser, and a first storage dewar in fluid communication with the condenser and adapted to store the oxygen liquefied by the condenser, the first storage dewar including means for transferring liquid oxygen from the first dewar to a second dewar for storing a quantity of oxygen suitable for moveable oxygen treatment.