No. |
First |
Last |
Affiliation |
Country / |
Topic |
1 | Yasuhiko | Arakawa | University of Tokyo | Japan |
Progress in silicon photonics integrating quantum dot lasers |
2 | Asen | Asenov | University of Glasgow | UK | NESS, the first open source TCAD tool |
3 | Francis | Balestra |
Grenoble INP-Minatec / Sinano Institute |
France |
Challenges and possible solutions for high performance sustainable Nanoelectronics |
4 | Yimao | Cai | Peking University | China | |
5 | Yu(Kevin) | Cao |
Arizona State University |
USA |
Robust In-Memory Computing for Deep Learning Algorithms |
6 | Mansun | Chan |
Hong Kong University of Science & Technology |
Hong Kong |
3D Airgap Technology for CMOS Interconnect Capacitance Reduction |
7 |
Meng-Fan | Chang |
National Tsing Hua University |
Taiwan |
Modeling and Design Methods of SRAM-based Computation-in-Memory Circuits |
8 | Jingsheng | Chen |
National University of Singapore |
Singapore | |
9 | Kuan-Neng | Chen | NCTU | Taiwan |
Low Temperature Bonding Technology Development for 3D and Heterogeneous Integration |
10 | Jiezhi | Chen | Shandong University | China |
Extending Flash from Memory to Storage and the Applications for In-memory Computing (IMC) |
11 | Y.T. | Cheng | NCTU | Taiwan | |
12 | Yuhua | Cheng | Peking University | China | |
13 | Chao-Hsin | Chien |
National Chiao Tung University |
Taiwan | |
14 | Steve | Chung |
National Chiao Tung University |
Taiwan |
One-Time-Programming Memory in the Era of High-k Metal-gate CMOS Generations |
15 | Chunqing | Deng | Alibaba Group | China |
Toward fault-tolerant superconducting quantum computing systems |
16 | Dan | Fleetwood | Vanderbilty University | USA |
|
17
|
Ding |
Gong |
Cogenda Inc. |
China |
|
18 | Yufeng | Guo |
Nanjing University of Posts and Telecommunications |
China |
AI-based Design Technology of Semiconductor Power Devices |
19 | Ming | He | Peking University | China |
Multifunctional Sensors Capable of In-Sensor Data Processing |
20 | Yuhui | He |
Huazhong University of Science and Technology |
China |
Memristive Neural Network for Reinforcement Learning |
21 | Minghui | Hong |
National University of Singapore |
Singapore | |
22 |
Minghwei |
Hong |
National Taiwan University |
Taiwan |
Perfecting high-k/III-V and /Ge interfaces in realizing high-performance MOSFETs for ultimate CMOS and emerging cryogenic electronic devices |
23 | Weida | Hu |
Shanghai Institute of Science and Technology |
China | |
24 | Mengyuan | Hua | UST | HK |
Recent Progress in GaON for Performance Enhancement of GaN-based Devices |
25 | Qianqian | Huang | Peking University | China |
Hafnia-based ferroelectric devices and applications |
26 |
Qinan | Huang | Southeast University | China |
Parity-Time Symmetric MEMS |
27 | Hiroshi | Iwai |
Tokyo Institute of Technology |
Japan | |
28 |
Subramanian S. |
Iyer | UCLA | USA |
Heterogeneous integration for Flexible Hybrid Electronics |
29 | Anquan | Jiang | Fudan University | China |
Multi-level storage of ferroelectric domain wall memory |
30 | Gerhard | Klimeck | Purdue University | USA | |
31 | Haruo | Kobayashi | Gunma University | Japan |
Challenge and Issue of Waveform Sampling Method |
32 | Mario | Lanza | KAUST |
Saudi Arabia |
|
33 | Tai-Cheng | Lee | NTU | Taiwan | |
34 | Steven P | Levitan | Univ. of Pittsburgh | USA | |
35 | Meng | Li | USA | ||
36 | Ming | Li | Peking University | China |
ESD Robustness of Silicon Nanowire Transistor Combined with Thermal Analysis and Optimization |
37 |
Yanli |
Li |
Fudan University |
China |
A MEOL and BEOL logic layout optimization recommendation under 3 nm CFET architecture and beyond |
38 | Lei | Liao | Wuhan University | China | |
39 | Yibo | Lin | Peking University | China |
Intelligent and Interactive Analog Layout Design Automation |
40 |
Hongxia |
Liu |
Xidian University
|
China |
|
41 | Weiqiang | Liu |
Nanjing University of Aeronautics and Astronautics |
China |
Energy Efficient Approximate Computing Circuits and Systems |
42 | Xianhe |
Liu |
Fudan University | China |
A BEOL layout optimization method for advanced logic standard library cells |
43 |
Souvik | Mahapatra | IIT Bombay | India | |
44 | Feng | Miao | Nanjing University | China | |
45 |
Giovanni De | Micheli | EPFL | Swiss |
Design automation for superconducting circuits |
46 | Kyeong-Sik | Min | Kookmin Univ. | Korea | Memory circuits |
47 | Hiroshi. | Mizuta | Univ.of Southampton | UK | |
48 | Vojin G | Oklobdzija |
New Mexico State University |
USA | |
49 | Tianling | Ren | Tsinghua University | China | |
50 | John | Robertson | Cambridge | UK |
Low contact resistances and Reduced Fermi level pinning to 2D semiconductors using physisorptive Moire Interfaces |
51 |
Tzu-Hsien | Sang | NCTU | Taiwan |
Histogram-based Defogging Techniques for LiDARs |
52 | Frank | Schwierz |
Technische Universitaet Ilmenau |
Germany |
Microwave Transistors – The backbone of 5G and Beyond Communication Systems |
53 | Siegfried | Selberherr |
Technical University Vienna |
Austria |
Design Analysis of Ultra-Scaled MRAM Cells |
54 | Bo | Shen | Peking University | China | |
55 | Atsushi | Shirane |
Tokyo Institute of Technology |
Japan |
Ka-band Phased-Array Transceiver for Satellite Communication (tentative) |
56 | Eddy | Simoen | IMEC | Belgium |
FinFETs: Is there an impact on the LF nosie? |
57 | Adam W. | Skorek | University of Quebec | Canada |
Quantum Computing for Devices Electro-Thermal Modeling and Simulations |
58 |
Thomas | Skotnicki |
Warsaw University of Technology |
Poland | |
59 | Haiding | Sun | USTC | China |
Wide bandgap semiconductor ultraviolet light emitting devices and detectors |
60 | Teruo | Suzuki | Socionext Inc. | USA | Back-End of Line Reliability & ESD |
61 | Cher Ming | Tan | CGU | Taiwan | |
62 | Sheldon | Tan |
University of California, Riverside |
USA |
Artificial Intelligence (Process & Device)/ Process Simulation & Modeling |
63 | Zhichao | Tan | Zhejiang University | China |
A review on direct digital conversion for biomedical signal acquisition Ics |
64 | He | Tang | UESTC | USA |
High-Speed High Resolution Pipelined ADC Design |
65 | Changjin | Wan | Nanjing University | China |
Metal-oxide based Device for Neuromorphic Perception Applications |
66 |
Kaiyou | Wang |
Institute of Semiconductors, CAS |
China | |
67 |
Luda |
Wang |
Peking University |
China |
Graphene based nanofluidics for molecular transportation |
68 |
Runsheng | Wang | Peking University | China |
Design-for-Reliability (DFR) Challenges for Advanced CMOS Technology: Transistor Degradation, Circuit Aging and EDA Tools |
69 | Zhihua | Wang | Tsinghua University | China |
A signal processor and circuits for hearing aiding |
70 |
Xiaoqing | Wen |
Kyushu Institute of Technology |
Japan | Power-Aware Testing in the Era of IoT |
71 | Man | Wong |
Hong Kong University of Science and Technology |
Hong Kong |
Parallel Dual-Gate Thin-Film Transistor Technology for the Implementation of Neuromorphic Circuits |
72 | Ngai | Wong | University of HK | Hong Kong |
A Multi-Objective Loss Function Design for RRAM-based Neural Architecture Search |
73 | Huaqiang | Wu | Tsinghua Universit | China | Progress of Computing in Memristor |
74 | Nanjian | Wu |
Institute of Semiconductors, Chinese Academy of Sciences |
China |
Edge Computing CMOS Vision Chip with Sensing, Memory and Processing Capabilit |
75 | Qiang | Wu | Fudan University | China |
A CDU budget and process window study with EUV lithography for 3 nm CFET logic processes and an outlook for future generations |
76 | Wu |
East China Normal University |
China |
In Situ Reliability Study for the sub-5nm Devices |
|
77 | Cary Y. | Yang | Santa Clara University | USA | WSe2 photodetector |
78 | J.Joshua | Yang |
University of Massachusetts, Amherst |
USA | |
79 | Yuchao | Yang | Peking University | China |
Memristor Chips and Systems for Energy-Efficient Learning |
80 | Jiandong | Ye | Nanjing University | China |
Ga2O3 based bipolar power devices through p-n heterojunction implementation |
81 | Kiat Seng | Yeo |
Singapore University of Technology And Design |
Singapore |
An ultra-low power 2.4 GHz receiver design techniques for IoT applications |
82 | You | Yin | Gunma University | Japan | Phase change memory |
83 | Tomoyuki | Yokota | University of Tokyo | Japan |
Ultra-flexible organic photonic system for detecting the bio signals. |
84 | Hong-Yu | Yu |
Nanyang Technological University |
Singapore | CMOS compatible p-GaN HEMT Devices |
85 |
Zhiping | Yu | Tsinghua University | China |
Chiplet Design Tool Development for Wafer-Scale Integration Aimed at Brain-Inspired System |
86 | Bo | Zhang |
Univ. of Electronic Science and Technology of China |
China | |
87 | J.F. | Zhang |
Liverpool John Moores University |
UK |
Criteria for selecting statistical distribution of Random Telegraph Noise |
88 | Weidong | Zhang |
Liverpool John Moores University |
UK |
Relaxation in GeSe Ovonic Threshold Switching Device |
89 | Qiang | Zhao |
Nanjing University of Posts and Telecommunications |
China |
Organic and Flexible Devices based on Metal-Containing Organic Semiconductors |
90 | Paul | Zhou | Analog Devices | USA |
SPICE Latch-up model valid for both transient and static latch-up testing |
91 | Peng | Zhou | Fudan University | China |
The Road of 2D Semiconductors in Silicon Age |
92 | Zhou |
Nanyang Technological University |
Singapore |
Future III-V/CMOS Co-Integrated Technology and Hybrid Circuit Design |
More to come, stay tuned!