The recent advances of computer science and technology have increasingly brought innovations in the high performance and efficiency of computing systems. Emerging portable multimedia applications demand more and more tremendous computational throughput with limited energy consumption. Currently, medical imaging applications which are requiring high-efficient and high-throughput embedded processing are becoming an important challenge in computer architecture.
The goal of this project is to propose massively parallel approach and simulation for medical image processing in which new parallel methods are approached to medical imaging analysis using a massively parallel processor array capable of delivering required performance more efficiency. The project proposes parallel approaches for medical image registration, segmentation, and compression using a representative data parallel architecture to accelerate such algorithms. The research contributes a rigorous evaluation of system performance and energy efficiency for the massively parallel processor array against a large set of these medical imaging applications.
Analysis results show that for these algorithms in 130 nm VLSI (SIMD130), a massively parallel processor array can provide 1000x greater computational capabilities and 100x higher energy efficiency than commercial processors including TI DSP C6416 and ARM families (ARM7 and ARM9 series).
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