摘要:
The claimed subject matter provides a system and/or a method that facilitates integrating two or more applications for secure sharing of data. A line of business (LOB) system can include a portion of metadata associated with a business application. An adapter can employ a dynamic service contract to the LOB system, wherein the service contract is a fluid contract constructed in real time from a portion of metadata selected within the LOB system. Moreover, the adapter can enable a client to access the portion of metadata selected via the service contract.
摘要:
The claimed subject matter provides a system and/or a method that facilitates integrating two or more applications for secure sharing of data. A line of business (LOB) system can include a portion of metadata associated with a business application. An adapter can employ a dynamic service contract to the LOB system, wherein the service contract is a fluid contract constructed in real time from a portion of metadata selected within the LOB system. Moreover, the adapter can enable a client to access the portion of metadata selected via the service contract.
摘要:
Various on-die-precision-resistor arrays, and methods of making and calibrating the same are disclosed. In one aspect, an apparatus is provided that includes a semiconductor chip and a precision resistor array on the semiconductor chip. A replica precision resistor array is on the semiconductor chip. The replica precision resistor array is configured to mimic the resistance behavior of the precision resistor array and has a characteristic resistance that is a function of temperature. The semiconductor chip is configured to calibrate the precision resistor array using the characterized resistance as a function of temperature, a resistance offset of the precision resistor array relative to the characterized resistance as a function of temperature, and a temperature of the precision resistor array.
摘要:
Boot configuration information is stored to a volatile memory of a processing system during a low-power state. When resuming from the low-power state, a processor device accesses configuration information for a memory controller from a non-volatile memory and restores the memory controller using the configuration information so as to permit access to the volatile memory. The processor device then configures the initial contexts one or more processor cores using the core state information maintained by the volatile memory during the low-power state and accessed via the configured memory controller, and the one or more processor cores completes the boot process by executing resume boot code maintained by the volatile memory during the low-power state and accessed via the configured memory controller, rather than accessing boot code from a non-volatile memory.
摘要:
Systems and methods for discrete power control of components within a computer system are described herein. Some illustrative embodiments include a system that includes a subsystem with a plurality of components (configurable to operate at one or more power levels), a control register (coupled to the plurality of components) including a plurality of bits (each uniquely associated with a one of the plurality of components), and a power controller coupled to, and configurable to cause, the plurality of components to operate at the one or more power levels. The power controller asserts a signal transmitted to the subsystem, commanding the subsystem to transition to a first power level. A first of the plurality of components, associated with an asserted bit of the control register, operates at a second power level corresponding to a level of power consumption different from that of the first power level indicated by the power controller.
摘要:
Boot configuration information is stored to a volatile memory of a processing system during a low-power state. When resuming from the low-power state, a processor device accesses configuration information for a memory controller from a non-volatile memory and restores the memory controller using the configuration information so as to permit access to the volatile memory. The processor device then configures the initial contexts one or more processor cores using the core state information maintained by the volatile memory during the low-power state and accessed via the configured memory controller, and the one or more processor cores completes the boot process by executing resume boot code maintained by the volatile memory during the low-power state and accessed via the configured memory controller, rather than accessing boot code from a non-volatile memory.