Abstract: A chip includes a merger cell including a first p-type length of diffusion (LOD) region extending in a first direction, a first n-well underneath the first p-type LOD region, a first supply rail configured to receive a first supply voltage, and a first n-tap coupling the first n-well to the first supply rail. The merger cell also includes a second p-type length of diffusion (LOD) region extending in the first direction, a second n-well underneath the second p-type LOD region, a second supply rail configured to receive a second supply voltage different from the first supply voltage, and a second n-tap coupling the second n-well to the second supply rail.

Abstract: An approach is described for a method, system, and product for deferred merge based method for graph based analysis to reduce pessimism. According to some embodiments, the approach includes receiving design data, static and/or statistical timing analysis data, identifying cells and interconnects for performing graph based worst case timing analysis where merger of signals is deferred based on one or more conditions to reduce pessimism, and generating results thereof. Other additional objects, features, and advantages of the invention are described in the detailed description, figures, and claims.

Abstract: A method is provided to produce training data set for training an inference engine to predict events in a data center comprising: producing probe vectors corresponding to components of a data center, each probe vector including a sequence of data elements, one of the probe vectors indicating an event at a component and at a time of the event; and producing at a master device a set of training snapshots, wherein each training snapshot includes a subsequence of data elements that corresponds to a time increment that matches or that occurred not later than the indicated time of occurrence of the event.

Abstract: A method is provided to produce training data set for training an inference engine to predict events in a data center comprising: producing probe vectors corresponding to components of a data center, each probe vector including a sequence of data elements, one of the probe vectors indicating an event at a component and at a time of the event; and producing at a master device a set of training snapshots, wherein each training snapshot includes a subsequence of data elements that corresponds to a time increment that matches or that occurred not later than the indicated time of occurrence of the event.

Abstract: A method is provided for use with a packet routing network in which one or more endpoints includes Flash storage; multiple endpoints are configured to impart services to packets; a distributed routing structure is provided that includes routing structure portions that are associated with endpoints and that indicate next hop destination endpoint addresses that collectively define multiple sequences of endpoints that each includes one or more endpoints configured to impart a service and an endpoint that includes Flash storage; packets received from an external network are propagated through defined sequences of endpoints; services are imparted to a received packet by endpoints that receive it in the course of its propagation.

Abstract: A system is provided that includes a packet routing network that includes routing circuitry to route packets between endpoints coupled to the network; one or more endpoints include a Flash storage circuit; a distributed routing structure defines multiple routes, each route including a different sequence of endpoints, including a Flash storage circuit endpoint; the distributed endpoint routing structure includes routing structure portions that are distributed among endpoints; the endpoints provide services to packets transmitted over routes defined by the distributed routing structure.

Abstract: A system is provided comprising: a packet routing network; Flash storage circuitry; a management processor coupled as an endpoint to the network; an input/output (I/O) circuit coupled as an endpoint to the network; a packet processing circuit coupled as an endpoint to the network; a cache storage circuit coupled to send and received packets to and from the packet processing circuit; and a RAID management circuit coupled as an endpoint to the network and configured to send and receive packets to and from the Flash storage circuitry; wherein the management processor is configured to determine routing of packets among the I/O circuit, packet processing circuit and RAID management circuit; and wherein the packet processing circuit is configured to control cache read requests, cache write requests and cache data eviction.

Abstract: A system can comprise an I/O circuitry, a processor, reconfigurable circuitry, an array of flash storage devices, and a serial interconnect network that is coupled to transfer data between the I/O circuitry, the processor, the reconfigurable circuitry and the flash storage devices. The processor can be configured to designate an interconnect address space for use in communication over the interconnect network among the I/O circuitry, the processor, the reconfigurable circuitry and the flash storage devices. The reconfigurable circuitry can be configured to translate data addresses during transfers of data between the I/O circuitry and the array of flash storage devices. A method to access an array of flash storage devices that are coupled to I/O circuitry over a serial interconnect network can comprise using reconfigurable circuitry to capture data during transfers of data over the serial interconnect network.

Abstract: A system comprises a first cache controller and at least a second cache controller. The first cache controller and the second cache controller each include a cache memory interface, an inter-cache controller communication link configured for bidirectional communication with the other cache controller, a first peripheral interface, a second peripheral interface, and logic circuitry. The first peripheral interface communicates with a first host device and the second peripheral interface communicates with a second host device. The first host device and the second host device are each connected to the first and second cache controllers by the first and second peripheral interfaces. The logic circuitry loads a cache command from a cache command memory of the first host device, loads a cache command from a cache command memory of the second cache controller, and performs the cache commands.

Abstract: A system is provided comprising: a packet routing network; Flash storage circuitry; a management processor coupled as an endpoint to the network; an input/output (I/O) circuit coupled as an endpoint to the network; a packet processing circuit coupled as an endpoint to the network; and a RAID management circuit coupled as an endpoint to the network and configured to send and receive packets to and from the Flash storage circuitry; wherein the management processor is configured to determine routing of packets among the I/O circuit, packet processing circuit and RAID management circuit.

Abstract: A method is provided to configure endpoints of a packet routing network, in which one or more endpoints includes Flash storage; multiple endpoints are provided that are configured to impart services to packets; a plurality of information structure portions are provided that associate flow identifiers with next hop destination endpoint addresses to define a plurality of flow identifier-next hop destination endpoint addresses pairs (pairs); different pairs are stored within non-transitory storage devices at different endpoints so that relationships among the next hop destination endpoint addresses of the pairs stored at different endpoints define multiple respective sequences of endpoints that each includes one or more endpoints configured to impart a service and an endpoint that includes Flash storage.

Abstract: A system can comprise an I/O circuitry, a processor, reconfigurable circuitry, an array of flash storage devices, and a serial interconnect network that is coupled to transfer data between the I/O circuitry, the processor, the reconfigurable circuitry and the flash storage devices. The processor can be configured to designate an interconnect address space for use in communication over the interconnect network among the I/O circuitry, the processor, the reconfigurable circuitry and the flash storage devices. The reconfigurable circuitry can be configured to translate data addresses during transfers of data between the I/O circuitry and the array of flash storage devices. A method to access an array of flash storage devices that are coupled to I/O circuitry over a serial interconnect network can comprise using reconfigurable circuitry to capture data during transfers of data over the serial interconnect network.

Abstract: A system can comprise an I/O circuitry, a processor, reconfigurable circuitry, an array of flash storage devices, and a serial interconnect network that is coupled to transfer data between the I/O circuitry, the processor, the reconfigurable circuitry and the flash storage devices. The processor can be configured to designate an interconnect address space for use in communication over the interconnect network among the I/O circuitry, the processor, the reconfigurable circuitry and the flash storage devices. The reconfigurable circuitry can be configured to translate data addresses during transfers of data between the I/O circuitry and the array of flash storage devices. A method to access an array of flash storage devices that are coupled to I/O circuitry over a serial interconnect network can comprise using reconfigurable circuitry to capture data during transfers of data over the serial interconnect network.

Abstract: Apparatus and method for accelerating processing operations of flash based storage systems are disclosed herein. In some embodiments, an IC component disposed between I/O circuitry and flash storage devices is configured to optimize fulfillment of data read and write requests originating from a network or device external to the flash based storage system using cache memory before involving the flash storage devices.

Abstract: A network device routes data packets by storing the packets in a switching memory as a function of a destination address of the packet. The switching memory comprises switching memory queues that are mapped to ports of the device. A header of a received packet is examined to determine the network destination address to which it is to be routed, and a destination queue is assigned to the packet based on the destination address. Thereafter, the packet is divided into cells, and the cells are written to contiguous locations in the destination queue.

Abstract: A hybrid server and multi-layer switch system architecture, referred to hereinafter as the Enterprise Fabric (EF) architecture, forms the basis for a number of Enterprise Server (ES) chassis embodiments. Each ES embodiment generally includes one or more Processor Memory Modules (PMMs, each generally having one or more symmetric multiprocessor complexes), one or more Network Modules, and a System Control Module (SCM). The SCM includes a cellified switching-fabric core (SF) and a System Intelligence Module (SIM). Each PMM has one or more resident Virtual IO Controller (VIOC) adapters. Each VIOC is a specialized I/O controller that includes embedded layer-2 forwarding and filtering functions and tightly couples the PMM to the SF. Thus the layer-2 switch functionality within the ES chassis is distributed over all of the SCM, NM, and PMM modules.

Abstract: Apparatus and method for accelerating processing operations of flash based storage systems are disclosed herein. In some embodiments, an IC component disposed between I/O circuitry and flash storage devices is configured to optimize fulfillment of data read and write requests originating from a network or device external to the flash based storage system using cache memory before involving the flash storage devices.

Abstract: Apparatus and method for accelerating processing operations of flash based storage systems are disclosed herein. In some embodiments, an IC component disposed between I/O circuitry and flash storage devices is configured to optimize fulfillment of data read and write requests originating from a network or device external to the flash based storage system using cache memory before involving the flash storage devices.

Abstract: A system can comprise an I/O circuitry, a processor, reconfigurable circuitry, an array of flash storage devices, and a serial interconnect network that is coupled to transfer data between the I/O circuitry, the processor, the reconfigurable circuitry and the flash storage devices. The processor can be configured to designate an interconnect address space for use in communication over the interconnect network among the I/O circuitry, the processor, the reconfigurable circuitry and the flash storage devices. The reconfigurable circuitry can be configured to translate data addresses during transfers of data between the I/O circuitry and the array of flash storage devices. A method to access an array of flash storage devices that are coupled to I/O circuitry over a serial interconnect network can comprise using reconfigurable circuitry to capture data during transfers of data over the serial interconnect network.

Abstract: A Cost-Reduced Enterprise Server (CRES) system includes a flexible resource-efficient server having a plurality of Processor Memory Boards (PMBs) coupled to an Input/Output Module (IOM). The IOM provides all networking and storage interfaces for the server. The IOM is implemented as a field-replaceable pluggable module, and thus all Input/Output (I/O) capabilities or resources of a CRES system may be upgraded via replacement of the IOM. Each PMB is dividable into a pair of Symmetric MultiProcessor (SMP) complexes, and each complex is coupled to a respective portion of the I/O resources provided by the IOM. Each portion of the IOM provides a pair of I/O daughter-module connectors compatible with standard I/O interfaces, such as Peripheral Component Interconnect (PCI)-X and PCI-Express. One or more CRES systems may be coupled to one or more Enterprise Server (ES) systems to form a multi-chassis server managed collectively as one or more provisioned servers.