FPGA-based Rapid Prototyping of High-Performance SoC Architectures
Abstract
The paper discusses a method for rapidly developing prototype designs of high-performance System-on-Chip (SoC) architectures utilizing FPGA technologies. A modular hardware/software co-design methodology is proposed in conjunction with reconfigurable logic targeted at accelerating complex SoC verification and development cycles will provide improved performance, decreased area, and reduced power consumption through the use of parameterizable silicon intellectual property (IP), customizable interconnect fabrics, and heterogeneous accelerating devices for iterative exploration of performance, area, and power trade-offs. The methodology integrates a streamlined development toolchain that automates synthesis, place and route, and HIL (Hardware-In-the-Loop) testing on state-of-the-art FPGA-based prototype develops early functional verification and performance profiling capabilities. Prototype builds demonstrate significant reduction in overall development time while achieving required throughput and energy efficiency. The methodology also enables design reusability, scalability, and rapid iteration making it universally applicable to both academic and industrial environments for next-generation prototype solutions. Additional case studies illustrate the effectiveness of the proposed method.