This thesis explores the intersection of real-time systems (RTSs) and FPGA-SoCs, tackling challenges in their interfacing, monitoring and optimization. Moving towards safety and security, predictability, and energy efficiency, we firstly present a novel technique for data acquisition in networked heterogeneous RTSs. Secondly, we propose independent measurement techniques for end-to-end latencies and energy consumption that, thirdly, are extended and fused into a unified tracing methodology for RTS function, timing, and energy. Using a latency-neutral approach, the hardware lastly is optimized for power and energy, respectively.
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This thesis explores the intersection of real-time systems (RTSs) and FPGA-SoCs, tackling challenges in their interfacing, monitoring and optimization. Moving towards safety and security, predictability, and energy efficiency, we firstly present a novel technique for data acquisition in networked heterogeneous RTSs. Secondly, we propose independent measurement techniques for end-to-end latencies and energy consumption that, thirdly, are extended and fused into a unified tracing methodology for R...
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