A Manycore Architecture for Scalability, Programmability, and Compute Density
Dai Cheol Jung
PhD Thesis, University of Washington, 2026
HammerBlade in Silicon: A 12-nm 2048-core RISC-V Manycore SoC with Ruche Networks
Paul Gao*, Dai Cheol Jung*, Scott Davidson*, Daniel Ruelas-Petrisko, Yuan-Mao Chueh, Max Ruttenberg, Kangli Li, Farzam Gilani, Dustin Richmond, Mark Oskin, Michael Bedford Taylor
IEEE Transactions on VLSI Systems (TVLSI), 2026
(* co-first authors)
Evaluating Ruche Networks: Physically Scalable, Cost-Effective, Bandwidth-Flexible NoCs
Dai Cheol Jung and Michael Taylor
International Symposium on Computer Architecture (ISCA), 2025
Scalable, Programmable and Dense: The HammerBlade Open-Source RISC-V Manycore
Dai Cheol Jung, Max Ruttenberg, Paul Gao, Scott Davidson, Daniel Petrisko, Kangli Li, Aditya K Kamath, Lin Cheng, Shaolin Xie, Peitian Pan, Zhongyuan Zhao, Zichao Yue, Bandhav Veluri, Sripathi Muralitharan, Adrian Sampson, Andrew Lumsdaine, Zhiru Zhang, Christopher Batten, Mark Oskin, Dustin Richmond, Michael Bedford Taylor
International Symposium on Computer Architecture (ISCA), 2024
Ruche Networks: Wire-Maximal, No-Fuss NoCs
Dai Cheol Jung, Scott Davidson, Chun Zhao, Dustin Richmond, Michael Bedford Taylor
International Symposium on Networks-on-Chip (NOCS), 2020