List of quantum processors

|PINE System{{Cite web|title=THE SYSTEM IS THE FIRST COMMERCIAL 19-INCH RACK-MOUNTED ROOM-TEMPERATURE QUANTUM COMPUTER|url=https://www.aqt.eu/pine-system-19-rack-mounted-quantum-computer/|access-date=21 Feb 2023|website=AQT}}

| Trapped ion

|

|

| 24{{Cite journal |last1=Pogorelov|first1=I.|last2= Feldker|first2=T.|first3=al.|last3=Et|title=Compact Ion-Trap Quantum Computing Demonstrator|journal=PRX Quantum |date=2021-06-07|volume=2 |issue=2 |page=020343 |doi=10.1103/PRXQuantum.2.020343 |arxiv=2101.11390|bibcode=2021PRXQ....2b0343P |s2cid=231719119 }}

| {{date table sorting|2021-06-07}}

| 128{{Cite web|title=STATE OF QUANTUM COMPUTING IN EUROPE: AQT PUSHING PERFORMANCE WITH A QUANTUM VOLUME OF 128|url=https://www.aqt.eu/aqt-pushing-performance-with-a-quantum-volume-of-128/|access-date=24 Feb 2023|website=AQT|date=8 February 2023 }}

|Phoenix

| Neutral atoms in optical lattices

|

|

| 100{{Cite journal |last1=Barnes|first1=Katrina |last2= Battaglino|first2= Peter|first3=al.|last3=Et|title=Assembly and coherent control of a register of nuclear spin qubits|journal=Nature Communications |year=2022 |volume=13 |issue=1 |page=2779 |doi=10.1038/s41467-022-29977-z |pmid=35589685 |pmc=9120523 |arxiv=2108.04790|bibcode=2022NatCo..13.2779B |s2cid=236965948 }}

| {{date table sorting|2021-08-10}}

|

| {{N/A}}

| Neutral atoms in optical lattices

| 35×35 lattice (with 45 vacancies)

| < 99.5 (2 qubits)Atom Computing Previews an 1180 Qubit Neutral Atom Processor, Quantum Computing Report

| 1180{{Cite web |last=Wilkins |first=Alex |date=October 24, 2023 |title=Record-breaking quantum computer has more than 1000 qubits |url=https://www.newscientist.com/article/2399246-record-breaking-quantum-computer-has-more-than-1000-qubits/ |access-date=2024-01-01 |website=New Scientist |language=en-US}}

| October 2023

|

|Xiaohong{{Cite web |title=China launches 504-qubit quantum chip, open to global users |url=https://www.chinadaily.com.cn/a/202404/26/WS662b15dfa31082fc043c431e.html |website=www.chinadaily.com.cn/}}

|Superconducting

| {{N/A}}

| {{N/A}}

|504

|{{date table sorting|2024}}

|

|

|

|

|

|

| 5

| IBM Q 5 Yorktown

| Superconducting

| bow tie

| 99.545 (average gate)
94.2 (readout)

| 5

|

|

| IBM Q 14 Melbourne

| Superconducting

| {{N/A}}

| 99.735 (average gate)
97.13 (readout)

| 14

|

|

| 16{{cite web |url= https://www-03.ibm.com/press/us/en/pressrelease/52403.wss |archive-url= https://web.archive.org/web/20170522235145/http://www-03.ibm.com/press/us/en/pressrelease/52403.wss |url-status= dead |archive-date= May 22, 2017 |title= IBM Builds Its Most Powerful Universal Quantum Computing Processors |work= IBM |date=2017-05-17 |accessdate= 2017-10-18}}

|

|

| 20{{cite news|title= IBM Announces Advances to IBM Quantum Systems & Ecosystem|url= https://www-03.ibm.com/press/us/en/pressrelease/53374.wss |archive-url= https://web.archive.org/web/20171110173121/http://www-03.ibm.com/press/us/en/pressrelease/53374.wss |url-status= dead |archive-date= November 10, 2017 |accessdate= 10 November 2017|date= 10 November 2017}}

|

| IBM Q 20 Austin

| Superconducting

| 5×4 lattice

| {{N/A}}

| 20

| data-sort-value="2018-07-04" | (Retired: 4 July 2018)

|

|

|

|

|IBM Condor{{Cite web |title=IBM's 'Condor' quantum computer has more than 1000 qubits |url=https://www.newscientist.com/article/2405789-ibms-condor-quantum-computer-has-more-than-1000-qubits/ |access-date=2023-12-21 |website=New Scientist |language=en-US}}

|Superconducting

|Honeycomb{{cite journal | arxiv=2410.00916 | last1=AbuGhanem | first1=M. | title=IBM quantum computers: Evolution, performance, and future directions | journal=The Journal of Supercomputing | date=2025 | volume=81 | issue=5 | doi=10.1007/s11227-025-07047-7 }}

| {{N/A}}

|1121

|December 2023

|

|IBM Heron

|Superconducting

| {{N/A}}

| {{N/A}}

|133

|December 2023

|

|IBM Heron R2{{Cite web |title=IBM Quantum delivers on 2022 100x100 performance challenge {{!}} IBM Quantum Computing Blog |url=https://www.ibm.com/quantum/blog/qdc-2024 |access-date=2024-11-25 |website=www.ibm.com |language=en}}

|Superconducting

|Heavy hex

|96.5 (2 qubits)

|156

|November 2024

|

| IBM Armonk{{Cite web|url=https://quantum-computing.ibm.com/|title=IBM Q Experience|website=IBM Q Experience|language=en|access-date=2020-01-04}}

| Superconducting

| Single Qubit

| {{N/A}}

| 1

| {{date table sorting|2019-10-16}}

|

| IBM Ourense

| Superconducting

| T

| {{N/A}}

| 5

| {{date table sorting|2019-07-03}}

| IBM Vigo

| Superconducting

| T

| {{N/A}}

| 5

| {{date table sorting|2019-07-03}}

|

| IBM London

| Superconducting

| T

| {{N/A}}

| 5

| {{date table sorting|2019-09-13}}

|

| IBM Burlington

| Superconducting

| T

| {{N/A}}

| 5

| {{date table sorting|2019-09-13}}

|

| IBM Essex

| Superconducting

| T

| {{N/A}}

| 5

| {{date table sorting|2019-09-13}}

|

| IBM Athens{{Cite web |title=IBM Quantum |url=https://quantum-computing.ibm.com/ |access-date=2023-06-18 |website=IBM Quantum |language=en}}

| Superconducting

|

| {{N/A}}

| 5

|

|32{{Cite web |title=IBM Blog |url=https://admin01.prod.blogs.cis.ibm.net/blog/ |access-date=2023-06-18 |website=IBM Blog |language=en-US}}

| IBM Belem

| Superconducting

| Falcon r4T

| {{N/A}}

| 5

|

|16

| IBM Bogotá

| Superconducting

| Falcon r4L

| {{N/A}}

| 5

|

|32

| IBM Casablanca

| Superconducting

| Falcon r4H

| {{N/A}}

| 7

| data-sort-value="2022-03" | (Retired – March 2022)

|32

| IBM Dublin

| Superconducting

|

| {{N/A}}

| 27

|

|64

| IBM Guadalupe

| Superconducting

| Falcon r4P

| {{N/A}}

| 16

|

|32

| IBM Kolkata

| Superconducting

|

| {{N/A}}

| 27

|

|128

| IBM Lima

| Superconducting

| Falcon r4T

| {{N/A}}

| 5

|

|8

| IBM Manhattan

| Superconducting

|

| {{N/A}}

| 65

|

|32

| IBM Montreal

| Superconducting

| Falcon r4

| {{N/A}}

| 27

|

|128

| IBM Mumbai

| Superconducting

| Falcon r5.1

| {{N/A}}

| 27

|

|128

| IBM Paris

| Superconducting

|

| {{N/A}}

| 27

|

|32

| IBM Quito

| Superconducting

| Falcon r4T

| {{N/A}}

| 5

|

|16

| IBM Rome

| Superconducting

|

| {{N/A}}

| 5

|

|32

| IBM Santiago

| Superconducting

|

| {{N/A}}

| 5

|

|32

| IBM Sydney

| Superconducting

| Falcon r4

| {{N/A}}

| 27

|

|32

| IBM Toronto

| Superconducting

| Falcon r4

| {{N/A}}

| 27

|

|32

|

|

|Tunnel Falls

|Semiconductor spin qubits

|

|

|12{{Cite web|title=Intel's New Chip to Advance Silicon Spin Qubit Research for Quantum Computing|url=https://www.intel.com/content/www/us/en/newsroom/news/quantum-computing-chip-to-advance-research.html|access-date=2023-07-09|website=Intel Newsroom|date=15 June 2023 }}

|{{date table sorting|2023-06-15}}

|

|Harmony

|Trapped ion

|All-to-All

|99.73 (1 qubit)

90.02 (2 qubit)

99.30 ({{abbr|SPAM|state preparation and measurement}})

|11{{Cite web |title=IonQ {{!}} Trapped Ion Quantum Computing |url=https://ionq.com/ |access-date=2023-05-02 |website=IonQ |language=en}}

|{{date table sorting|2022}}

|8

|Aria

|Trapped ion

|All-to-All

|99.97 (1 qubit)

98.33 (2 qubit)

98.94 ({{abbr|SPAM|state preparation and measurement}})

|25

|{{date table sorting|2022}}

|

| Forte

| Trapped ion

| 366x1 chain{{cite arXiv |eprint=2009.11482 |last1=Egan |first1=Laird |last2=Debroy |first2=Dripto M. |last3=Noel |first3=Crystal |last4=Risinger |first4=Andrew |last5=Zhu |first5=Daiwei |last6=Biswas |first6=Debopriyo |last7=Newman |first7=Michael |last8=Li |first8=Muyuan |last9=Brown |first9=Kenneth R. |last10=Cetina |first10=Marko |last11=Monroe |first11=Christopher |title=Fault-Tolerant Operation of a Quantum Error-Correction Code |date=2020 |class=quant-ph }} All-to-All

| 99.98 (1 qubit)
98.5–99.3 (2 qubit) 99.56 (({{abbr|SPAM|state preparation and measurement}})

| 36 (earlier 32)

| {{date table sorting|2022}}

| -

| -

|Maxwell

| Neutral atoms in optical lattices

|

| 99.5 (3-qubit gate), 99.1 (4-qubit gate){{cite journal | arxiv=2112.13025 | doi=10.1088/2058-9565/ac823a | title=High-fidelity multiqubit Rydberg gates via two-photon adiabatic rapid passage | year=2022 | last1=Pelegrí | first1=G. | last2=Daley | first2=A. J. | last3=Pritchard | first3=J. D. | journal=Quantum Science and Technology | volume=7 | issue=4 | page=045020 | bibcode=2022QS&T....7d5020P | s2cid=245502083 }}

| 200{{Cite web|title=MAXWELL: NEUTRAL ATOM QUANTUM PROCESSOR|url=https://www.m2lasers.com/quantum-datasheet.html?file=Maxwell_Explainer.pdf|access-date=12 April 2023|website=M Squared}}

| {{date table sorting|2022-11}}

|

|Lucy{{Cite web|title=Lucy|url=https://oxfordquantumcircuits.com/oqc-on-aws|access-date=20 Feb 2023|website=Oxford Quantum Circuits|date=30 November 2021 }}

| Superconducting

|

|

| 8

| {{date table sorting|2022}}

|

|OQC Toshiko{{Cite web|title=OQC Toshiko|url=https://oqc.tech/tech/toshiko/|access-date=27 Nov 2023|website=Oxford Quantum Circuits|date=24 November 2023 }}

| Superconducting (Coaxmon)

|

|

| 32

| {{date table sorting|2023}}

|

|[https://cloud.quandela.com/ Ascella]

|Photonics

| {{N/A}}

|99.6 (1 qubit)
93.8 (2 qubits)
86.0 (3 qubits)

|6{{Cite arXiv |last1=Pont|first1=M.|last2= Corrielli|first2=G.|last3=Fyrillas|first3=A.|first4=al.|last4=et|title=High-fidelity generation of four-photon GHZ states on-chip|date=2022-11-29|eprint=2211.15626|class=quant-ph}}

|{{date table sorting|2022}}{{cite news |title=La puissance d'un ordinateur quantique testée en ligne (The power of a quantum computer tested online) |newspaper=Le Monde.fr |date=22 November 2022 |url=https://www.lemonde.fr/sciences/article/2022/11/22/la-puissance-d-un-ordinateur-quantique-testee-en-ligne_6151063_1650684.html |publisher=Le Monde}}

|

|Spin-2

|Semiconductor spin qubits

|

|99 (average gate)
85 (readout){{Cite web|title=Spin-2|url=https://www.quantum-inspire.com/backends/spin-2/|access-date=5 May 2021|website=Quantum Inspire}}

|2

|{{date table sorting|2020}}

|

| -

|Semiconductor spin qubits

|

|

|6{{Cite web|title=Six-qubit silicon quantum processor sets a record|url=https://physicsworld.com/a/six-qubit-silicon-quantum-processor-sets-a-record/|access-date=2023-07-09|website=PhysicsWorld|date=19 October 2022 }}

|{{date table sorting|2022-09}}

|

|Starmon-5

|Superconducting

|X configuration

|97 (readout){{Cite web|title=Starmon-5|url=https://www.quantum-inspire.com/backends/starmon-5|access-date=4 May 2021|website=Quantum Inspire}}

|5

|{{date table sorting|2020}}

|

|H2{{Cite web |title=Quantinuum H2 Product Data Sheet |url=https://assets.website-files.com/62b9d45fb3f64842a96c9686/6459acc9b999bb7fb526c4bf_Quantinuum%20H2%20Product%20Data%20Sheet.pdf}}

|Trapped ion

|Racetrack, All-to-All

|99.997 (1 qubit)
99.87 (2 qubit)

|56{{Cite web |title=Quantinuum's H-Series hits 56 physical qubits that are all-to-all connected, and departs the era of classical simulation |url=https://www.quantinuum.com/news/quantinuums-h-series-hits-56-physical-qubits-that-are-all-to-all-connected-and-departs-the-era-of-classical-simulation |access-date=2024-06-06 |website=www.quantinuum.com |language=en}} (earlier 32)

|{{date table sorting|2023-05-09}}

|8,388,608{{Cite web |title=Quantinuum Dominates the Quantum Landscape: New World-Record in Quantum Volume |url=https://www.quantinuum.com/blog/quantum-volume-milestone |access-date=2025-05-23 |website=www.quantinuum.com |language=en}}

|H1-1{{Cite web | title=Quantinuum System Model H1 Product Data Sheet |url=https://assets.website-files.com/62b9d45fb3f64842a96c9686/648c742dd3e744dfeeb7cd06_Quantinuum%20H1%20Product%20Data%20Sheet%20v5.4%2015Jun23.pdf|access-date=8 Jul 2023|website=Quantinuum}}

| Trapped ion

| 15×15 (Circuit Size)

| 99.996 (1 qubit)
99.914 (2 qubit)

| 20

| {{date table sorting|2022}}

| 1,048,576{{Cite web |title=Quantinuum extends its significant lead in quantum computing, achieving historic milestones for hardware fidelity and Quantum Volume |url=https://www.quantinuum.com/news/quantinuum-extends-its-significant-lead-in-quantum-computing-achieving-historic-milestones-for-hardware-fidelity-and-quantum-volume |access-date=2024-04-17 |website=www.quantinuum.com |language=en}}

|H1-2

| Trapped ion

| All-to-All

| 99.996 (1 qubit)
99.7 (2 qubit)

| 12

| {{date table sorting|2022}}

| 4096{{Cite web|title=Quantinuum Announces Quantum Volume 4096 Achievement|url=https://www.quantinuum.com/news/quantum-volume-reaches-5-digits-for-the-first-time-5-perspectives-on-what-it-means-for-quantum-computing|access-date=24 Feb 2023|website=Quantinuum}}

|Soprano{{Cite web|title=Soprano specs|url=https://www.quantware.eu/product/soprano|access-date=1 Feb 2023|website=Quantware}}

| Superconducting

|

| 99.9 (single-qubit gates)

| 5

| {{date table sorting|2021-07}}

|

|Contralto{{Cite web|title=Contralto specs|url=https://www.quantware.eu/product/contralto|access-date=21 Feb 2023|website=Quantware}}

| Superconducting

|

| 99.9 (single-qubit gates)

| 25

| {{date table sorting|2022-03-07}}{{Cite web|title=QUANTWARE RELEASES 25-QUBIT CONTRALTO QPU|url=https://www.quantware.eu/press/quantware-releases-25-qubit-contralto-qpu|access-date=21 Feb 2023|website=Quantware}}

|

|Tenor{{Cite web|title=Tenor specs|url=https://www.quantware.eu/product/tenor|access-date=26 Feb 2023|website=Quantware}}

| Superconducting

|

|

| 64

| {{date table sorting|2023-02-23}}

|

| Agave

| Superconducting

| {{N/A}}

| 96 (Single-qubit gates)

87 (Two-qubit gates)

| 8

| {{date table sorting|2018-06-04}}{{Cite web |url= https://rigetti.com/qpu |title= QPU |website= Rigetti Computing |access-date= 2019-03-24 |archive-date= 2019-05-16 |archive-url= https://web.archive.org/web/20190516231438/https://www.rigetti.com/qpu |url-status= dead }}

|

87.5 (Two-qubit gates)

| 19{{cite web |url= https://medium.com/rigetti/unsupervised-machine-learning-on-rigetti-19q-with-forest-1-2-39021339699 |title=Unsupervised Machine Learning on Rigetti 19Q with Forest 1.2 |date=2017-12-18 |accessdate=2018-03-21}}

|

| Aspen-1

| Superconducting

| {{N/A}}

| 93.23 (Single-qubit gates)

90.84 (Two-qubit gates)

| 16

| {{date table sorting|2018-11-30}}

|

|Aspen-4

| Superconducting

|

|99.88 (Single-qubit gates)

94.42 (Two-qubit gates)

|13

|{{date table sorting|2019-03-10}}

|

|Aspen-7

| Superconducting

|

|99.23 (Single-qubit gates)

95.2 (Two-qubit gates)

|28

|{{date table sorting|2019-11-15}}

|

|Aspen-8

| Superconducting

|

|99.22 (Single-qubit gates)

94.34 (Two-qubit gates)

|31

|{{date table sorting|2020-05-05}}

|

|Aspen-9

| Superconducting

|

|99.39 (Single-qubit gates)

94.28 (Two-qubit gates)

|32

|{{date table sorting|2021-02-06}}

|

|Aspen-10

| Superconducting

|

|99.37 (Single-qubit gates)

94.66 (Two-qubit gates)

|32

|{{date table sorting|2021-11-04}}

|

|Aspen-11

| Superconducting

|Octagonal{{Cite journal |last1=Pelofske |first1=Elijah |last2=Bärtschi |first2=Andreas |last3=Eidenbenz |first3=Stephan |date=2022 |title=Quantum Volume in Practice: What Users Can Expect from NISQ Devices |journal=IEEE Transactions on Quantum Engineering |volume=3 |pages=1–19 |doi=10.1109/TQE.2022.3184764 |arxiv=2203.03816 |s2cid=247315182 |issn=2689-1808}}

|99.8 (Single-qubit gates) 92.7 (Two-qubit gates CZ) 91.0 (Two-qubit gates XY)

|40

|{{date table sorting|2021-12-15}}

|Aspen-M-1

|Superconducting transmon

|Octagonal

|99.8 (Single-qubit gates) 93.7 (Two-qubit gates CZ) 94.6 (Two-qubit gates XY)

|80

|{{date table sorting|2022-02-15}}

|8

|Aspen-M-2

|Superconducting transmon

|

|99.8 (Single-qubit gates) 91.3 (Two-qubit gates CZ) 90.0 (Two-qubit gates XY)

|80

|{{date table sorting|2022-08-01}}

|

|

|

| RIKEN{{Cite web |title=Japan's first homemade quantum computer goes online |url=https://www.riken.jp/en/news_pubs/news/2023/20230921_3/index.html |access-date=2024-01-25 |website=www.riken.jp |language=en}}

| {{date table sorting|2023-03-27}}

| Princess

| Nitrogen-vacancy center

|

|

| 4{{Cite web|title=All tests passed: DLR QCI accepts 4-qubit demonstrator SQ-RT with Princess QPU from SaxonQ|url=https://qci.dlr.de/en/all-tests-passed-dlr-qci-accepts-4-qubit-demonstrator-sq-rt-with-princess-qpu-from-saxonq/|access-date=16 Jul 2024}}

| {{date table sorting|2024-06-26}}

|

|Triangulum

| Nuclear magnetic resonance

|

|

| 3{{Cite web|title=Triangulum3 qubits desktop NMR quantum computer|url=https://www.spinquanta.com/products-solutions/Triangulum|access-date=24 Feb 2023|website=AQT}}

| {{date table sorting|2021-09}}

|

|

| Zuchongzhi

| {{date table sorting|2020}}

|

|Zuchongzhi 2.1

|Superconducting

|lattice{{cite journal | arxiv=2109.03494 | last1=Zhu | first1=Qingling | last2=Cao | first2=Sirui | last3=Chen | first3=Fusheng | last4=Chen | first4=Ming-Cheng | last5=Chen | first5=Xiawei | last6=Chung | first6=Tung-Hsun | last7=Deng | first7=Hui | last8=Du | first8=Yajie | last9=Fan | first9=Daojin | last10=Gong | first10=Ming | last11=Guo | first11=Cheng | last12=Guo | first12=Chu | last13=Guo | first13=Shaojun | last14=Han | first14=Lianchen | last15=Hong | first15=Linyin | last16=Huang | first16=He-Liang | last17=Huo | first17=Yong-Heng | last18=Li | first18=Liping | last19=Li | first19=Na | last20=Li | first20=Shaowei | last21=Li | first21=Yuan | last22=Liang | first22=Futian | last23=Lin | first23=Chun | last24=Lin | first24=Jin | last25=Qian | first25=Haoran | last26=Qiao | first26=Dan | last27=Rong | first27=Hao | last28=Su | first28=Hong | last29=Sun | first29=Lihua | last30=Wang | first30=Liangyuan | title=Quantum Computational Advantage via 60-Qubit 24-Cycle Random Circuit Sampling | journal=Science Bulletin | year=2021 | volume=67 | issue=3 | pages=240–245 | doi=10.1016/j.scib.2021.10.017 | pmid=36546072 | s2cid=237442167 | display-authors=1 }}

|99.86 (Single-qubit gates) 99.41 (Two-qubit gates) 95.48 (Readout)

|66{{Cite journal |last1=Wu |first1=Yulin |last2=Bao |first2=Wan-Su |last3=Cao |first3=Sirui |last4=Chen |first4=Fusheng |last5=Chen |first5=Ming-Cheng |last6=Chen |first6=Xiawei |last7=Chung |first7=Tung-Hsun |last8=Deng |first8=Hui |last9=Du |first9=Yajie |last10=Fan |first10=Daojin |last11=Gong |first11=Ming |last12=Guo |first12=Cheng |last13=Guo |first13=Chu |last14=Guo |first14=Shaojun |last15=Han |first15=Lianchen |date=2021-10-25 |title=Strong Quantum Computational Advantage Using a Superconducting Quantum Processor |url=https://link.aps.org/doi/10.1103/PhysRevLett.127.180501 |journal=Physical Review Letters |language=en |volume=127 |issue=18 |page=180501 |doi=10.1103/PhysRevLett.127.180501 |pmid=34767433 |arxiv=2106.14734 |bibcode=2021PhRvL.127r0501W |s2cid=235658633 |issn=0031-9007}}

|{{date table sorting|2021}}

|

|Zuchongzhi 3.0{{Cite journal |last1=Gao |first1=Dongxin |last2=Fan |first2=Daojin |last3=Zha |first3=Chen |last4=Bei |first4=Jiahao |last5=Cai |first5=Guoqing |last6=Cai |first6=Jianbing |last7=Cao |first7=Sirui |last8=Zeng |first8=Xiangdong |last9=Chen |first9=Fusheng |last10=Chen |first10=Jiang |last11=Chen |first11=Kefu |last12=Chen |first12=Xiawei |last13=Chen |first13=Xiqing |last14=Chen |first14=Zhe |last15=Chen |first15=Zhiyuan |date=2025 |title=Establishing a New Benchmark in Quantum Computational Advantage with 105-qubit Zuchongzhi 3.0 Processor |journal=Quantum Physics |volume=134 |issue=9 |page=090601 |doi=10.1103/PhysRevLett.134.090601 |pmid=40131086 |arxiv=2412.11924 |bibcode=2025PhRvL.134i0601G }}

|Superconducting transmon

|15 x 7

|99.90 (Single-qubit gates) 99.62 (Two-qubit gates) 99.18 (Readout)

|105

|December 16, 2024

|

|Borealis{{Cite journal |last1=Madsen |first1=Lars S. |last2=Laudenbach |first2=Fabian |last3=Askarani |first3=Mohsen Falamarzi |last4=Rortais |first4=Fabien |last5=Vincent |first5=Trevor |last6=Bulmer |first6=Jacob F. F. |last7=Miatto |first7=Filippo M. |last8=Neuhaus |first8=Leonhard |last9=Helt |first9=Lukas G. |last10=Collins |first10=Matthew J. |last11=Lita |first11=Adriana E. |date=June 2022 |title=Quantum computational advantage with a programmable photonic processor |journal=Nature |language=en |volume=606 |issue=7912 |pages=75–81 |doi=10.1038/s41586-022-04725-x |pmid=35650354 |pmc=9159949 |bibcode=2022Natur.606...75M |s2cid=249276257 |issn=1476-4687}}

|Photonics (Continuous-variable)

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|216

|{{date table sorting|2022}}

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|X8 {{Cite web|title=A new kind of quantum|url=https://spie.org/news/photonics-focus/novdec-2020/a-new-kind-of-quantum|access-date=2021-01-09|website=spie.org}}

|Photonics (Continuous-variable)

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| {{N/A}}

|8

| {{date table sorting|2020}}

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|X12

|Photonics (Continuous-variable)

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|12

| {{date table sorting|2020}}

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|X24

|Photonics (Continuous-variable)

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|24

| {{date table sorting|2020}}

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|D-Wave Advantage 2{{cite web | url=https://www.dwavesys.com/company/newsroom/press-release/d-wave-announces-1-200-qubit-advantage2-prototype-in-new-lower-noise-fabrication-stack-demonstrating-20x-faster-time-to-solution-on-important-class-of-hard-optimization-problems/ | title=D-Wave Announces 1,200+ Qubit Advantage2™ Prototype in New, Lower-Noise Fabrication Stack, Demonstrating 20x Faster Time-to-Solution on Important Class of Hard Optimization Problems }}{{cite web | url=https://www.dwavesys.com/company/newsroom/press-release/d-wave-announces-availability-of-1-200-qubit-advantage2-prototype/ | title=D-Wave Announces Availability of 1,200+ Qubit Advantage2™ Prototype in the Leap™ Quantum Cloud Service, Making its Most Performant System Available to Customers Today }}{{Cite web |date=November 18, 2024 |title=D-Wave Clarity Roadmap : 2023-2024 |url=https://www.dwavesys.com/media/xvjpraig/clarity-roadmap_digital_v2.pdf |access-date=November 18, 2024 |website=dwavesys.com |quote=Advantage 2™ quantum system will incorporate a new qubit design that enables 20-way connectivity in a new topology. The Advantage 2 QPU will contain 7000+ qubits and make use of the latest improvements in quantum coherence in a multi-layer fabrication stack, further harnessing the quantum mechanical power of the system for finding better solutions, faster.}}{{Cite web |last1=McGeoch |first1=Catherine |last2=Farre |first2=Pau |last3=Boothby |first3=Kelly |date=June 9, 2022 |title=The D-wave Advantage2 Prototype : Technical Report |url=https://www.dwavesys.com/media/eixhdtpa/14-1063a-a_the_d-wave_advantage2_prototype-4.pdf |access-date=November 11, 2024 |website=Dwavesys.com}}

|Superconducting

|Zephyr Z₁₅{{cite web | url=https://www.dwavesys.com/company/newsroom/press-release/ahead-of-the-game-d-wave-delivers-prototype-of-next-generation-advantage2-annealing-quantum-computer/ | title=Ahead of the Game: D-Wave Delivers Prototype of Next-Generation Advantage2 Annealing Quantum Computer }}

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|7440https://www.dwavesys.com/media/2uznec4s/14-1056a-a_zephyr_topology_of_d-wave_quantum_processors.pdf

|2024