622 results about "Controller (computing)" patented technology

In embodiments of the present invention improved capabilities are described for a wireless computing device, comprising an antenna; an analog block for receiving and transmitting an RF signal through the antenna, wherein the energy from the received RF signal provides power to the wireless computing device; and a data processing and controller block for data management, wherein the data processing and controller block comprises: (i) a first program memory adapted to store a first set of instructions comprising a system call adapted to perform at least one function, and (ii) a second program memory adapted to store a second set of instructions comprising an instruction to call the system call, wherein the data processing and controller block is adapted to execute the first set of instructions and the second set of instructions,wherein the antenna, analog block, and data processing and controller block are mounted on a single substrate.

High performance flash memory devices (FMD) are described. According to one exemplary embodiment of the invention, a high performance FMD includes an I / O interface, a FMD controller, and at least one non-volatile memory module along with corresponding at least one channel controller. The I / O interface is configured to connect the high performance FMD to a host computing device The FMD contoller is configured to control data transfer (e.g., data reading, data writing / programming, and data erasing) operations between the host computing device and the non-volatile memory module. The at least one non-volatile memory module, comprising one or more non-volatile memory chips, is configured as a secondary storage for the host computing device. The at least one channel controller is configured to ensure proper and efficient data transfer between a set of data buffers located in the FMD controller and the at least one non-volatile memory module.

In embodiments of the present disclosure improved capabilities are described for delivering a command to a group of computing devices, comprising sending a message from a controller to a first of a plurality of computing devices, wherein the plurality of computing devices are on the same network, and where the message includes a plurality of bit-wise addresses and a command. The message is then broadcast from the first of the plurality of computing devices to the remaining of the plurality of computing devices. The execution of the command amongst the executing each of the plurality of computer devices is made with low time-latency due to the near-simultaneous delivery of the message to the plurality of computing devices.

A method and apparatus for detecting a change in the operational status of a first host computer and automatically configuring a second host computer to provide additional computing resources that replace or complement the first host computer. In one embodiment, a controller is provided that is capable of detecting a malfunction or failure of the first computer and automatically configuring a second host computer to replace the first host computer. In another embodiment, the controller is capable of detecting changes in the performance of the first host computer and automatically configuring a second host computer to provide additional computing resources for the first host computer. In a further embodiment, both of these techniques can be used to support an electronic commerce site and provide the electronic commerce site with failsafe operation and virtually unlimited computational resources.

According to one embodiment, a method comprises scheduling, by a weighted proportional-share scheduler, access of competing flows to a computing service in accordance with respective weights assigned to the competing flows. The method further comprises autonomously determining, by a controller, based at least in part on received performance measurement for the flows, values of the respective weights assigned to the competing flows for achieving respective performance goals desired for the competing flows. When determined by the controller that the values of the respective weights assigned to the competing flows should be changed for achieving the performance goals, the controller communicates the changed values of the respective weights to the weighted proportional-share scheduler.

A modular computer system includes at least two processing functional modules each including a processing unit adapted to process data and adapted to input / output data to other functional modules through at least two ports with each port including a plurality of data lines. At least one routing functional module is adapted to route data and adapted to input / output data to other functional modules through at least two ports with each port including a plurality of data lines. At least one input or output functional module is adapted to input or output data and adapted to input / output data to other functional modules through at least one port including a plurality of data lines. Each processing, routing and input or output functional module includes a local controller adapted to control the local operation of the associated functional module, wherein the local controller is adapted to input and output control information over control lines connected to the respective ports of its functional module. At least one system controller functional module is adapted to communicate with one or more local controllers and provide control at a level above the local controllers. Each of the functional modules adapted to be cabled together with a single cable that includes a plurality of data lines and control lines such that control lines in each module are connected together and data lines in each unit are connected together. Each of the local controllers adapted to detect other local controllers to which it is connected and to thereby collectively determine the overall configuration of a system.

A security monitoring system for a Controller Area Network (CAN) comprises an Electronic Control Unit (ECU) operatively connected to the CAN bus. The ECU is programmed to classify a message read from the CAN bus as either normal or anomalous using an SVM-based classifier with a Radial Basis Function (RBF) kernel. The classifying includes computing a hyperplane curvature parameter γ of the RBF kernel as γ=ƒ(D) where ƒ( ) denotes a function and D denotes CAN bus message density as a function of time. In some such embodiments γ=ƒ(Var(D)) where Var(D) denotes the variance of the CAN bus message density as a function of time. The security monitoring system may be installed in a vehicle (e.g. automobile, truck, watercraft, aircraft) including a vehicle CAN bus, with the ECU operatively connected to the vehicle CAN bus to read messages communicated on the CAN bus. By not relying on any proprietary knowledge of arbitration IDs from manufacturers through their dbc files, this anomaly detector truly functions as a zero knowledge detector.