Market demand continues to grow for high-performance imaging, communications and security systems. Solutions need to contain scalable power-efficient processors with better integrated graphics capabilities than ever before. From imaging to communications to security to raw scalar throughput, the second generation Intel® Core™ processors (formerly codenamed Sandy Bridge) combining with C206, Q67 and QM67 chipsets offer either a simple, power-efficient upgrade or a massive architectural simplification.
Mechatronic system design creation and test development are often at opposite ends of a project's schedule. Benefits accrue in improved system quality and on-time delivery when design and test are pursued concurrently. This paper describes the technologies required to make concurrent design and test possible.
For FPGA developers working on designs for medical devices, one approach to dealing with regulatory uncertainty is to borrow heavily from design assurance processes in other safety-critical industries, such as avionics, where standards are well established. These well-established standards mandate a development flow that is controlled, auditable and perhaps most important, specific to the requirements of hardware engineering. While following such a flow will not guarantee smooth sailing though every regulatory approval process for FPGA devices bound for medical applications, it is consistent with basic regulatory intent - to demonstrate to auditors that complex devices meet their requirements and perform well under all foreseeable conditions.
The highly integrated 2nd generation of Intel® Core™ processors will populate all major standard embedded form factors ranging from smallform- factor to high-performance designs.
IEC 61850 is an Ethernet-based protocol standard used mainly in substations for data communication. Substations use a number of controllers for a variety of purposes, including protection, measurement, detection, alarms, and monitoring.