Background
The evolution of chip technology indeed represents a remarkable trajectory, originating from the advent of computers in the 1940s. The revolutionary concept of integrated circuits, which significantly transformed the field, can be traced back to the genesis of Boolean algebra in 1854. This innovative idea of symbolizing logical operations via binary digits established the cornerstone for contemporary digital circuits. Over subsequent decades, the progression of chip development has burgeoned into an extensive industry and ecosystem. The advancements in semiconductor manufacturing technology have facilitated the production of progressively miniaturized yet more potent chips, with transistor dimensions now quantified in nanometers. This incessant trend towards miniaturization has catalyzed an exponential augmentation in computing power, fostering breakthroughs in diverse domains such as artificial intelligence, mobile technology, and the Internet of Things.
Evaluation Standards
We single out the top Chip achievements with huge impacts and significant boosts for developing Chips and related scenarios and disciplines from the chip design, manufacturing, packaging, and products. Our evaluation criteria are as follows:
- The original or pioneering works in chips.
- The works that play a significant role in promoting the development of chips.
- The works are widely used or cited by industry or academia.
Chip100: Top 100 Chips achievements(1940s-2021)
The data and figure are from the technique report which will be released on 2023 BenchCouncil International Federated Intelligent Computing and Chip Conferences (FICC 2023).
Overview of Top Chips achievements
(Please note that the tree diagram can be zoomed in, zoomed out, and moved. You can click on the circles at the branches to expand or collapse the content of the diagram.)
Top Chips Achievements
When considering the main academic contributors, we only list:
- the first author (including the authors with equal contribution)
- the corresponding author (the last author if there is no corresponding author)
If you have any comments or suggestions about the list, please send an email to benchcouncil.evaluation@gmail.com
Categories | Sub-Categories | Years | Work | Main Contributors | Institution | Country |
---|---|---|---|---|---|---|
Chips Design | System-level Design | 1940s | Von Neumann architecture | John von Neumann | Princeton | USA |
1940s | Harvard architecture | Howard Aiken, G. M. Hopper | Harvard | USA | ||
1949 | Stored-program computers | Maurice Wilkes | Cambridge | UK | ||
1950 | Error Correction Codes | Richard Hamming | Bell Laboratories | USA | ||
1960 | ISA | Frederick Brooks | IBM | USA | ||
1964 | CISC | John Cocke, Gene Amdahl | IBM | USA | ||
1965 | Moore's Law | Gordon Moore | Intel | USA | ||
1965 | Cache Memory | Maurice Wilkes | Cambridge | UK | ||
1966 | SIMD Architecture | Michael J. Flynn | Northwestern University/Argonne National Laboratory | USA | ||
1967 | Amdahl's Law | Gene Amdahl | IBM | USA | ||
1967 | Out-of-Order Execution and Re-order Buffer | Robert Tomasulo | IBM | USA | ||
1970 | The Principle of Locality | Peter J. Denning, Stuart C. Schwartz | Princeton | USA | ||
1974 | Dennard Scaling | Robert H. Dennard | IBM | USA | ||
1978 | X86 | Robert Noyce, Jack Kilby, Andy Grove, Gordon Moore | Intel | USA | ||
1970s | Floating Point Unit | William Kahan | Berkeley | USA | ||
1979 | Virtual address translation | Peter J. Denning, David A. Patterson, John L. Hennessy | Princeton, Berkeley, Stanford | USA | ||
1980 | RISC | David A. Patterson, C. Sequin | Berkeley | USA | ||
1981 | MIPS | John L. Hennessy, N Jouppi, F Baskett, J Gill | Stanford | USA | ||
1980s | Branch predictor | Tse-Yu Yeh , Yale N. Patt | Michigan | USA | ||
1980s | Advanced RISC Machines | Sophie Wilson, Steve Furber | Cambridge | UK | ||
1984 | FPGA | Ross H. Freeman | XILINX | USA | ||
1980s | Superscalar | William M. Johnson | Stanford | USA | ||
1980s | CC-NUMA | JAMES ARCHIBALD, JEAN-LOUP BAER | University of Washington | USA | ||
1987 | 3C model | Mark Hill | Berkeley | USA | ||
1988 | Gustafson's Law | John Gustafson | Sandia National Laboratory | USA | ||
1990 | A Quantitative Approach | David A. Patterson, John L. Hennessy | Berkeley, Stanford | USA | ||
1990 | Neural Networks Accelerator | Dan Hammerstrom, Ulrich M Ramacher | Adaptive Solutions, Infineon Technologies AG | USA/Germany | ||
1995 | Multi-Core Processors | Anant Agarwal, D. Yeung | MIT | USA | ||
1997 | Single-Chip Multiprocessor | Basem A. Nayfeh, Kunle Olukotun | Stanford | USA | ||
2000s | System-on-Chip | Wayne Wolf | Georgia Institute of Technology | USA | ||
2000 | Power-aware microarchitecture | David Brooks, P.W. Cook | IBM | USA | ||
1990s | Stream Architecture | Ujval J. Kapasi, BrucekKhailany | Stanford | USA | ||
2000s | Network-on-Chip | Luca Benini, Giovanni De Micheli | University of Bologna, Stanford | Italy , USA | ||
2010s | RISC-V | Andrew Waterman, Yunsup Lee, David A. Patterson, Krste Asanović | Berkeley | USA | ||
2014 | Deep Neural Networks Accelerator | Tianshi Chen,Yunji Chen,Olivier Temam | ICT, ICT, HuaWei, Inria | China, China, China, France | ||
2000s | Graphics Processing Unit | Jen-Hsun Huang | NVIDIA | USA | ||
2016 | Tensor Processing Unit | Norman P. Jouppi, Cliff Young, Nishant Patil, David Patterson | USA | |||
Logic Design | 1854 | Boolean algebra | George Boole | UK | ||
1938 | Digital logic Circuits | Claude Shannon | MIT | USA | ||
1970s | VLSI | Carver Mead, Lynn Conway | California Institute of Technology, Michigan | USA | ||
2010s | Chiplet-based design | Lisa Su | AMD | USA | ||
Physical Design | 1990s | Electrostatic Discharge | Michel Mardiguian | University of Paris South | France | |
Verification and Simulation | 1980s | Formal Verification | Edmund Clarke,Allen Emerson, Joseph Sifakis | CMU, UT Austin, Verimag Laboratory | USA, USA, France | |
1986 | EDA | Aart de Geus | synopsys | USA | ||
1980s | Verilog | Phil Moorby | Gateway Design Automation | USA | ||
2010s | Chisel | Jonathan Bachrach, Huy Vo,John Wawrzynek, Krste Asanović | Berkeley | USA | ||
2011 | gem5 | Nathan Binkert, David A. Wood | HP, Wisc | USA | ||
Manufacturing | 1930s | PCB | Paul Eisler | Austria | ||
1947 | Transistor | William B. Shockley, John Bardeen, Walter H. Brattain | Bell Laboratories | USA | ||
1950s | Integrated Circuit | Jack Kilby | Texas Instruments | USA | ||
1955 | Photolithography | Carl Frosch, Lincoln Derick | Bell Laboratories, ASML | USA, Netherland | ||
1967 | CMOS | Frank M. Wanlass, C.T.Sah | Fairchild Semiconductor | USA | ||
1970s | Electron Beam Lithography | A.A. Tseng, K.J. Ma | Arizona State University, IBM | USA | ||
1980s | III-V Compound Semiconductors | R. Dingle, A. C. Gossard, W. Wiegmann | Bell Laboratories | USA | ||
1990s | Copper interconnects | IBM | USA | |||
1990s | Extreme Ultraviolet (EUV) Lithography | Obert Wood | Global Foundries | USA | ||
2000s | FinFET | Hu Chenming | Berkeley | USA | ||
1990s | Optical Proximity Correction | Chris A. Mack | UTAustin | USA | ||
Packaging | 2010s | wafer level packaging | T Braun, M Wöhrmann | The Fraunhofer Institute | Germany | |
2010s | Microelectronics Packaging | Rao R. Tummala, Alan G. Klopfenstein | Georgia Institute of Technology, Rensselaer Polytechnic Institute, AGK Enterprises | USA | ||
2010s | System-on-Package | Rao R. Tummala,Madhavan Swaminathan | Georgia Institute of Technology, The Fraunhofer Institute | USA, Germany | ||
1990s | Vacuum Packaging | Intel, IBM | USA | |||
2010s | Chiplet Packaging | IBM | USA | |||
2020s | Embedded Die Packaging | Intel | USA | |||
Product | 1940s | ENIAC | University of Pennsylvania | USA | ||
1949 | EDSAC | Cambridge | UK | |||
1960s | IBM 360 | IBM | USA | |||
1971 | Intel 4004 | Intel | USA | |||
1978 | Intel 8086 | Motolona | USA | |||
1980s | Motorola 68000 | Intel | USA | |||
1980s | Intel 80386 | Intel | USA | |||
1993 | Intel Pentium | Intel | USA | |||
1999 | NVIDIA GeForce | Nvidia | USA | |||
2001 | IBM POWER4 | IBM | USA | |||
2003 | AMD Opteron | AMD | USA | |||
2006 | Intel Core 2 Duo | Intel | USA | |||
2007 | ARM Cortex-A9 | ARM | UK | |||
2009 | AMD Radeon HD 5870 | AMD | USA | |||
2010 | ARM Cortex-A15 | ARM | UK | |||
2012 | ARM Cortex-A53 | ARM | UK | |||
2016 | Google Tensor Processing Unit | USA | ||||
2017 | Intel Core i9 | Intel | USA | |||
2020 | NVIDIA A100 | Nvidia | USA | |||
2021 | Apple M1 Pro | Apple | USA | |||
2021 | AMD EPYC | AMD | USA | |||
2021 | Intel Alder Lake | Intel | USA |
Top Chips Contributors
Ranking | Contributor | Grade | Institution | Country |
---|---|---|---|---|
1 | Maurice Wilkes | 2 | University of Cambridge | UK |
2 | David A. Patterson | 1.83 | UC Berkeley | USA |
3 | Gene Amdahl | 1.5 | IBM | USA |
4 | Gordon Moore | 1.33 | Intel | USA |
5 | John L. Hennessy | 1.08 | Stanford University | USA |
6 | Aart de Geus | 1 | Synopsys | USA |
6 | Chris A. Mack | 1 | UT-Austin | USA |
6 | Claude Shannon | 1 | MIT | USA |
6 | Frederick Brooks | 1 | IBM | USA |
6 | George Boole | 1 | - | UK |
6 | Hu Chenming | 1 | UC Berkeley | USA |
6 | Jack Kilby | 1 | Texas Instruments | USA |
6 | Jen-Hsun Huang | 1 | NVIDIA | USA |
6 | John Gustafson | 1 | Sandia National Laboratories | USA |
6 | John von Neumann | 1 | Princeton University | USA |
6 | Lisa Su | 1 | AMD | USA |
6 | Mark Hill | 1 | UC Berkeley | USA |
6 | Michael J. Flynn | 1 | Northwestern University | USA |
6 | Michel Mardiguian | 1 | University of Southern Paris | France |
6 | Obert Wood | 1 | Global Foundries | USA |
6 | Paul Eisler | 1 | - | Austria |
6 | Phil Moorby | 1 | Gateway Design Automation | USA |
6 | Rao R. Tummala | 1 | Georgia Institute of Technology | USA |
6 | Richard Hamming | 1 | Bell Labs | USA |
6 | Robert H. Dennard | 1 | IBM | USA |
6 | Robert Tomasulo | 1 | IBM | USA |
6 | Ross H. Freeman | 1 | Xilinx | USA |
6 | Wayne Wolf | 1 | Georgia Institute of Technology | USA |
6 | William Kahan | 1 | UC Berkeley | USA |
6 | William M. Johnson | 1 | Stanford University | USA |
7 | Peter J. Denning | 0.83 | Princeton University | USA |
8 | A.A. Tseng | 0.5 | Arizona State University | USA |
8 | Alan G. Klopfenstein | 0.5 | AGK Enterprises | USA |
8 | Anant Agarwal | 0.5 | MIT | USA |
8 | Andrew Waterman | 0.5 | UC Berkeley | USA |
8 | Basem A. Nayfeh | 0.5 | Stanford University | USA |
8 | BrucekKhailany | 0.5 | Stanford University | USA |
8 | C. Sequin | 0.5 | UC Berkeley | USA |
8 | C.T.Sah | 0.5 | Fairchild Semiconductor | USA |
8 | Carl Frosch | 0.5 | Bell Labs | USA |
8 | Carver Mead | 0.5 | California Institute of Technology | USA |
8 | D. Yeung | 0.5 | MIT | USA |
8 | Dan Hammerstrom | 0.5 | Adaptive Solutions | USA |
8 | David A. Wood | 0.5 | University of Wisconsin System | USA |
8 | David Brooks | 0.5 | IBM | USA |
8 | Frank M. Wanlass | 0.5 | Fairchild Semiconductor | USA |
8 | G. M. Hopper | 0.5 | Harvard University | USA |
8 | Giovanni De Micheli | 0.5 | Stanford University | USA |
8 | Howard Aiken | 0.5 | Harvard University | USA |
8 | James Archibald | 0.5 | University of Washington | USA |
8 | Jean-Loup Baer | 0.5 | University of Washington | USA |
8 | John Cocke | 0.5 | IBM | USA |
8 | K.J. Ma | 0.5 | IBM | USA |
8 | Krste Asanović | 0.5 | UC Berkeley | USA |
8 | Kunle Olukotun | 0.5 | Stanford University | USA |
8 | Lincoln Derick | 0.5 | Bell Labs | USA |
8 | Luca Benini | 0.5 | University of Bologna | Italy |
8 | Lynn Conway | 0.5 | University of Michigan | USA |
8 | MWöhrmann | 0.5 | Fraunhofer IKTS | Germany |
8 | Madhavan Swaminathan | 0.5 | Fraunhofer IKTS | Germany |
8 | Nathan Binkert | 0.5 | HP | USA |
8 | Norman P. Jouppi | 0.5 | USA | |
8 | P.W. Cook | 0.5 | IBM | USA |
8 | Sophie Wilson | 0.5 | University of Cambridge | UK |
8 | Steve Furber | 0.5 | University of Cambridge | UK |
8 | Stuart C. Schwartz | 0.5 | Princeton University | USA |
8 | T Braun | 0.5 | Fraunhofer IKTS | Germany |
8 | Tse-Yu Yeh | 0.5 | University of Michigan | USA |
8 | Ujval J. Kapasi | 0.5 | Stanford University | USA |
8 | Ulrich M Ramacher | 0.5 | Infineon Technologies AG | Germany |
8 | Yale N. Patt | 0.5 | University of Michigan | USA |
9 | A. C. Gossard | 0.33 | Bell Labs | USA |
9 | Allen Emerson | 0.33 | UT-Austin | USA |
9 | Edmund Clarke | 0.33 | CMU | USA |
9 | John Bardeen | 0.33 | Bell Labs | USA |
9 | Joseph Sifakis | 0.33 | Verimag Laboratory | France |
9 | R. Dingle | 0.33 | Bell Labs | USA |
9 | W. Wiegmann | 0.33 | Bell Labs | USA |
9 | Walter H. Brattain | 0.33 | Bell Labs | USA |
9 | William B. Shockley | 0.33 | Bell Labs | USA |
10 | Andy Grove | 0.25 | Intel | USA |
10 | Cliff Young | 0.25 | USA | |
10 | F Baskett | 0.25 | Stanford University | USA |
10 | Huy Vo | 0.25 | UC Berkeley | USA |
10 | J Gill | 0.25 | Stanford University | USA |
10 | John Wawrzynek | 0.25 | UC Berkeley | USA |
10 | Jonathan Bachrach | 0.25 | UC Berkeley | USA |
10 | Nishant Patil | 0.25 | USA | |
10 | Olivier Temam | 0.25 | INRIA | France |
10 | Robert Noyce | 0.25 | Intel | USA |
10 | Tianshi Chen | 0.25 | ICT, CAS | China |
10 | Yunji Chen | 0.25 | ICT, CAS | China |
10 | Yunsup Lee | 0.25 | UC Berkeley | USA |
Top Chips Institutions
Ranking | Institution | Grade | Country |
---|---|---|---|
1 | IBM | 11 | USA |
2 | Intel | 10.5 | USA |
3 | UC Berkeley | 6.83 | USA |
4 | Stanford University | 5.33 | USA |
5 | AMD | 4 | USA |
5 | University of Cambridge | 4 | UK |
6 | Bell Labs | 3.5 | USA |
7 | ARM | 3 | UK |
7 | NVIDIA | 3 | USA |
8 | Princeton University | 2.33 | USA |
9 | 2 | USA | |
9 | MIT | 2 | USA |
10 | Georgia Institute of Technology | 1.83 | USA |
11 | Fraunhofer IKTS | 1.5 | Germany |
11 | University of Michigan | 1.5 | USA |
12 | UT-Austin | 1.33 | USA |
13 | Apple | 1 | USA |
13 | Fairchild Semiconductor | 1 | USA |
13 | Gateway Design Automation | 1 | USA |
13 | University of Pennsylvania | 1 | USA |
13 | Texas Instruments | 1 | USA |
13 | Global Foundries | 1 | USA |
13 | Harvard University | 1 | USA |
13 | University of Washington | 1 | USA |
13 | Motorola | 1 | USA |
13 | University of Southern Paris | 1 | France |
13 | Xilinx | 1 | USA |
13 | Sandia National Laboratories | 1 | USA |
13 | Synopsys | 1 | USA |
14 | Adaptive Solutions | 0.5 | USA |
14 | ASML | 0.5 | Netherlands |
14 | Infineon Technologies AG | 0.5 | Germany |
14 | Argonne National Laboratory | 0.5 | USA |
14 | University of Bologna | 0.5 | Italy |
14 | HP | 0.5 | USA |
14 | California Institute of Technology | 0.5 | USA |
14 | University of Wisconsin System | 0.5 | USA |
14 | Northwestern University | 0.5 | USA |
14 | Arizona State University | 0.5 | USA |
14 | ICT, CAS | 0.5 | China |
15 | AGK Enterprises | 0.33 | USA |
15 | Verimag Laboratory | 0.33 | France |
15 | CMU | 0.33 | USA |
15 | Rensselaer Polytechnic Institute | 0.33 | USA |
16 | INRIA | 0.25 | France |
16 | Huawei | 0.25 | China |
Top Chips Countries
Ranking | Country | Grade |
---|---|---|
1 | USA | 80.67 |
2 | UK | 8 |
3 | Germany | 2 |
4 | France | 1.58 |
5 | Austria | 1 |
6 | China | 0.75 |
7 | Netherlands | 0.5 |
7 | Italy | 0.5 |