Shady Agwa

Research Fellow


Curriculum vitae


[email protected]


+44 (0) 7950676030


School of Engineering

The University of Edinburgh

1.24D Murchison House, King's Buildings Campus, Edinburgh, EH9 3BF, UK



CIFER: A 12nm, 16mm2, 22-Core SoC with a 1541 LUT6/mm2 1.92 MOPS/LUT, Fully Synthesizable, CacheCoherent, Embedded FPGA


Journal article


Ting-Jung Chang, Ang Li, Fei Gao, T. Ta, Georgios Tziantzioulis, Yanghui Ou, Moyang Wang, Jinzheng Tu, Kaifeng Xu, Paul J. Jackson, August Ning, Grigory Chirkov, Marcelo Orenes-Vera, Shady Agwa, Xiaoyu Yan, Eric Tang, Jonathan Balkind, C. Batten, D. Wentzlaff
IEEE Custom Integrated Circuits Conference, 2023

Semantic Scholar DBLP DOI
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APA   Click to copy
Chang, T.-J., Li, A., Gao, F., Ta, T., Tziantzioulis, G., Ou, Y., … Wentzlaff, D. (2023). CIFER: A 12nm, 16mm2, 22-Core SoC with a 1541 LUT6/mm2 1.92 MOPS/LUT, Fully Synthesizable, CacheCoherent, Embedded FPGA. IEEE Custom Integrated Circuits Conference.


Chicago/Turabian   Click to copy
Chang, Ting-Jung, Ang Li, Fei Gao, T. Ta, Georgios Tziantzioulis, Yanghui Ou, Moyang Wang, et al. “CIFER: A 12nm, 16mm2, 22-Core SoC with a 1541 LUT6/mm2 1.92 MOPS/LUT, Fully Synthesizable, CacheCoherent, Embedded FPGA.” IEEE Custom Integrated Circuits Conference (2023).


MLA   Click to copy
Chang, Ting-Jung, et al. “CIFER: A 12nm, 16mm2, 22-Core SoC with a 1541 LUT6/mm2 1.92 MOPS/LUT, Fully Synthesizable, CacheCoherent, Embedded FPGA.” IEEE Custom Integrated Circuits Conference, 2023.


BibTeX   Click to copy

@article{ting-jung2023a,
  title = {CIFER: A 12nm, 16mm2, 22-Core SoC with a 1541 LUT6/mm2 1.92 MOPS/LUT, Fully Synthesizable, CacheCoherent, Embedded FPGA},
  year = {2023},
  journal = {IEEE Custom Integrated Circuits Conference},
  author = {Chang, Ting-Jung and Li, Ang and Gao, Fei and Ta, T. and Tziantzioulis, Georgios and Ou, Yanghui and Wang, Moyang and Tu, Jinzheng and Xu, Kaifeng and Jackson, Paul J. and Ning, August and Chirkov, Grigory and Orenes-Vera, Marcelo and Agwa, Shady and Yan, Xiaoyu and Tang, Eric and Balkind, Jonathan and Batten, C. and Wentzlaff, D.}
}

Abstract

Embedded FPGAs (eFPGA) are increasingly being used in SoCs, enabling post-silicon hardware specialization. Existing CPU-eFPGA SoCs have three deficiencies. First, their low core count hinders efficient execution of thread-level-parallel workloads. Second, noncoherent or partially coherent CPU-eFPGA integration inhibits dynamic, random memory sharing. Third, the use of full-custom circuits makes proprietary eFPGAs technology-dependent, inflexible in physical layout, and lacking architectural customizability.


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