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Run-time reconfigurable (RTR) FPGAs combine the flexibility of software with the high efficiency of hardware. Still, their potential cannot be fully exploited due to increased complexity of the design process. Consequently, to enable an efficient design flow, we devise a set of prerequisites to increase the flexibility and reusability of current FPGA-based(More)
Adoption of reconfigurable computing is limited in part by the lack of simplified, economic, and reusable solutions. The significant speedup and energy saving can increase performance but also design complexity; in particular for heterogeneous SoCs blending several CPUs, GPUs, and FPGA-Accelerator Cores. On the other hand, implementing complex algorithms in(More)
The dependability of heterogeneous many-core FPGA based systems are threatened by higher failure rates caused by disruptive scales of integration, increased design complexity, and radiation sensitivity. Triple-modular redundancy (TMR) and run-time reconfiguration (RTR) are traditional fault-tolerant (FT) techniques used to increase dependability. However,(More)
In contrast to classical Field-Programmable Gate Arrays (FPGAs), partial and run-time reconfigurable (RTR) FPGAs can selectively reconfigure partitions of its hardware almost immediately while it is still powered and operative. In this way, RTR FPGAs combine the flexibility of software with the high eciency of hardware. However, their potential cannot be(More)
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