Author of the publication

A 1.3-Mbit Annealing System Composed of Fully-Synchronized 9-board x 9-chip x 16-kbit Annealing Processor Chips for Large-Scale Combinatorial Optimization Problems.

, , , , and . A-SSCC, page 1-3. IEEE, (2021)

Please choose a person to relate this publication to

To differ between persons with the same name, the academic degree and the title of an important publication will be displayed. You can also use the button next to the name to display some publications already assigned to the person.

 

Other publications of authors with the same name

65nm Low-Power High-Density SRAM Operable at 1.0V under 3σ Systematic Variation Using Separate Vth Monitoring and Body Bias for NMOS and PMOS., , , and . ISSCC, page 384-385. IEEE, (2008)Efficient Ising Model Mapping to Solving Slot Placement Problem., , , , , , , and . ICCE, page 1-6. IEEE, (2019)Low-voltage limitations of deep-sub-100-nm CMOS LSIs: view of memory designers., , and . ACM Great Lakes Symposium on VLSI, page 529-533. ACM, (2007)Technology/circuits joint evening panel discussion semiconductor industry in 2020: Evolution or revolution?, , , , , , , , , and 3 other author(s). VLSIC, page 22-. IEEE, (2015)Graph Minors from Simulated Annealing for Annealing Machines with Sparse Connectivity., , , , , , , , , and . TPNC, volume 11324 of Lecture Notes in Computer Science, page 111-123. Springer, (2018)A 40-nm low-power SRAM with multi-stage replica-bitline technique for reducing timing variation., , , , , and . CICC, page 701-704. IEEE, (2009)Implementation and Evaluation of FPGA-based Annealing Processor for Ising Model by use of Resource Sharing., , , and . Int. J. Netw. Comput., 7 (2): 154-172 (2017)Operating-margin-improved SRAM with column-at-a-time body-bias control technique., and . ESSCIRC, page 396-399. IEEE, (2007)A 1.3-Mbit Annealing System Composed of Fully-Synchronized 9-board x 9-chip x 16-kbit Annealing Processor Chips for Large-Scale Combinatorial Optimization Problems., , , , and . A-SSCC, page 1-3. IEEE, (2021)A Detailed Vth-Variation Analysis for Sub-100-nm Embedded SRAM Design., and . SoCC, page 315-318. IEEE, (2006)