☏ +1 650 501 5505 ✉ [email protected]

DI-IT-10702 Edition 1 Updated 196 pages, PDF and Excel

Quantum Computing Market

Quantum computing revenue reaches USD 1.38 billion in 2025 and USD 12.8 billion by 2035 as government, chemistry and finance buyers move from pilots to contracts.

By the . Next review Apr 2027. Editorial standards

Market size, 2025
$1.38B
Forecast, 2035
$12.8B
Revenue CAGR, 2026-2035
25.01%
Cloud access share
38.6%

By offering

Cloud access and quantum computing as a service, On-premises quantum systems, Software and algorithms, Consulting and integration services

By technology

Superconducting, Trapped ion, Quantum annealing, Neutral atom, Photonic

By application

Optimisation, Chemistry and materials simulation, Quantum machine learning, Cryptography research

By end user

Pharmaceuticals and chemicals, Banking and financial services, Telecom, Universities and agencies

By region

North America, Europe, Asia Pacific, Latin America, Middle East and Africa

See what you are buying

Get the free sample

21 chapters 48 tables 10 figures 6 company profiles 196 pages

  1. Executive summaryThe market in one view
  2. Scope and definitionsWhat the Quantum Computing market includes
  3. Research methodologyBottom-up: paying accounts × value per unit
  4. Offering segmentsCloud, systems, software, services
  5. Qubit technologySuperconducting to photonic
  6. Growth driversFour drivers of account growth
  7. HeadwindsError rates, losses, skills
  8. PricingSystem and access prices

See all chapters and sections (13 more chapters)

Key findings

  • The quantum computing market is USD 1.38 billion in 2025 and reaches USD 12.8 billion by 2035 on a 25.01% revenue CAGR.
  • IonQ leads with a 9.4% share on USD 130.0 million of 2025 revenue; the top three hold 29.6%.
  • Cloud access and quantum computing as a service holds 38.6% and grows fastest at 26.9% a year.
  • North America holds 47.3% of 2025 revenue; Asia Pacific grows fastest at 26.4% a year.
  • Five of 11 dated vendor milestones fall due in 2026, and IonQ plus Quantinuum guide to USD 308 million to USD 322 million.
MeasureValueHow it is built
Market size, 2025 $1.38B 1,960 paying accounts x USD 702,400 average annual spend = $1.38B
Forecast, 2035 $12.8B Base case: 17.6% account growth and 6.3% price growth
Revenue CAGR, 2026-2035 25.01%17.6% volume + 6.3% price Accounts times spend per account
Volume, 2035 9,916 accounts 1,960 accounts compounding at 17.6% a year
Leading segment Cloud access, 38.6% Cloud access and quantum computing as a service, $531.4M in 2025
Fastest segment Cloud access, 26.9% Oracle and HPE tie-ups pull quantum time into existing compute contracts
Fastest region Asia Pacific, 26.4% C-DAC order and Japanese corporate buyers
Market leader IonQ, 9.4% $130.0M of disclosed 2025 revenue against $1.38B
Event 31 Jul 2026 IonQ closed its acquisition of SkyWater Technology

Every figure passes the desk's release checks before publication: segments add to the total, growth rates match their start and end values, and each cited source says what the report attributes to it. How the research is done

Market data

Request a free sample

A sample built around your question: the scope, structure and method of the report, with every table and chart layout from the report and Excel model. The Research Desk reviews it and emails it to you, usually within one business day.

IonQ closed its purchase of SkyWater Technology on 31 July 2026, a move its second-quarter 2026 results filing calls the first vertically integrated, full-stack quantum platform, and it marks the year a qubit maker bought its own foundry. The quantum computing market covers paid access to quantum processors, whether as on-premises systems, cloud time, software or integration work, sold to labs, governments and companies. Douglas Insights sizes it at USD 1.38 billion in 2025, built as 1,960 paying accounts at an average annual spend of USD 702,400, and expects USD 12.8 billion by 2035 at a revenue CAGR of 25.01% for 2026 to 2035. The study belongs to our Information Technology and Semiconductors coverage, and every step of the build follows our research methodology.

Which companies win quantum computing contracts, and what is each position built on?

IonQ is the revenue leader among disclosed quantum computing vendors, with USD 130.0 million of 2025 revenue, a 9.4% share of the USD 1.38 billion market on Douglas Insights arithmetic. IBM, Quantinuum, Google Quantum AI, D-Wave and Rigetti follow, each built on a different qubit platform and sales route.

IonQ reported Q2 2026 revenue of USD 80.1 million, up 287% on the year, and raised its 2026 guidance to USD 280 million to USD 290 million, according to its August 2026 filing. That guidance excludes SkyWater. IonQ sells trapped ion systems, cloud time and networking, and it also bought Nexus Photonics for integrated photonics. Quantinuum, the other trapped ion supplier, reported Q2 2026 revenue of USD 8.0 million, up 279%, guided 2026 to USD 28 million to USD 32 million and raised USD 1.7 billion of gross proceeds in its initial public offering (IPO), according to its Q2 2026 earnings release. Its Nexus software platform now counts 180 organisations, and Oracle will offer its Helios machine as an Oracle Cloud Infrastructure service.

IBM builds superconducting processors and sells them through its cloud and on-premises deals. Its 120-qubit Nighthawk chip carries 218 tunable couplers, and IBM targets the first large-scale, fault-tolerant quantum computer by 2029, according to its 12 November 2025 announcement. Google Quantum AI holds a technical rather than a commercial position: its 105-qubit Willow chip finished a random circuit sampling benchmark in under five minutes, but Google books no separate quantum revenue. Science, not sales.

D-Wave sells quantum annealing systems and cloud time. Its 2025 revenue was USD 24.6 million, and first-half 2026 bookings reached USD 35.5 million, including a USD 20 million system sale, per its Q2 2026 results. Rigetti, a superconducting rival, booked USD 5.1 million of Q2 2026 revenue and signed a letter of intent with the U.S. Department of Commerce for up to USD 100 million over three years, per its Q2 2026 release.

Company Qubit technology Disclosed figure Position built on
IonQ Trapped ion USD 130.0 million 2025 revenue Systems, cloud time, networking, SkyWater foundry
IBM Superconducting Not disclosed Nighthawk, 300mm fab in Albany, 2029 fault-tolerance target
Quantinuum Trapped ion USD 28 to 32 million 2026 guidance Helios, Nexus software, USD 1.7 billion IPO
D-Wave Quantum annealing USD 24.6 million 2025 revenue On-premises annealers, enterprise optimisation
Rigetti Superconducting USD 7.1 million 2025 revenue Novera systems, 108-qubit C-DAC program
Google Quantum AI Superconducting No separate revenue Willow error-correction research

Douglas Insights estimates the top-three concentration at 29.6% of 2025 quantum computing revenue: IonQ on its disclosed USD 130.0 million, IBM and Quantinuum on our modelled figures, since IBM does not report quantum revenue. The rest splits across dozens of national and start-up suppliers.

Which offering makes the money in quantum computing: cloud time, on-premises systems or software?

Cloud access and quantum computing as a service makes the most money, with 38.6% of 2025 revenue, or USD 531.4 million. Most buyers still test algorithms before they commit to a machine, so metered time on shared quantum processors outsells hardware across the USD 1.38 billion total.

Quantum computing offering Share 2025 Value 2025 CAGR 2026-2035 Value 2035
Cloud access and quantum computing as a service 38.6% USD 531.4 million 26.9% USD 5.75 billion
On-premises quantum systems 33.2% USD 457.1 million 22.7% USD 3.54 billion
Software and algorithms 15.7% USD 216.1 million 26.6% USD 2.29 billion
Consulting and integration services 12.5% USD 172.1 million 22.1% USD 1.27 billion

Cloud access and quantum computing as a service holds 38.6% because a pilot costs a fraction of a machine and the leading processors sit behind vendor and hyperscale clouds; it grows fastest at 26.9% a year, reaching USD 5.75 billion by 2035, as the Oracle and HPE tie-ups pull quantum time into existing compute contracts. On-premises quantum systems take 33.2%, or USD 457.1 million, because national labs and supercomputing centres want sovereign machines; they grow 22.7% a year to USD 3.54 billion, slower because each deal is lumpy. Software and algorithms hold 15.7%, or USD 216.1 million, and grow 26.6% as error suppression and workflow tools are licensed per seat. Consulting and integration services take 12.5%, or USD 172.1 million, the slowest leg at 22.1%, since buyers move work in-house once teams are trained.

Which qubit technology holds the largest quantum computing revenue pool in 2025?

Superconducting machines hold an estimated 41.3% of 2025 quantum computing revenue, ahead of trapped ion at 29.7%. IBM, Google and Rigetti anchor the superconducting pool, while IonQ and Quantinuum carry trapped ion, on Douglas Insights splits of the USD 1.38 billion total.

Neutral atom systems take 12.9%, photonic machines 9.3% and quantum annealing 6.8% of the quantum computing total. Superconducting chips lead because they ride standard lithography; IBM moved wafer fabrication to a 300mm line in Albany. Trapped ion gains because its qubits show high fidelity, and the trapped ion vendors grew revenue by 287% and 279% in Q2 2026, per the IonQ filing and the Quantinuum release. Quantum annealing stays small but sells whole machines, as the USD 20 million D-Wave order shows. Photonic and neutral atom suppliers sell mostly research access today, which is why their combined 22.2% outruns their installed base.

Why are governments and drug makers signing larger quantum computing contracts?

Government procurement, chemistry research and finance pilots lift paying quantum computing accounts by 17.6% a year, the volume leg of the 25.01% revenue CAGR. Douglas Insights splits that leg across four drivers, with state buyers the largest at 6.8 points.

Public money and sovereign machines

National programmes add 6.8 points to quantum computing account growth. Rigetti signed a letter of intent for up to USD 100 million of CHIPS research funding over three years and is delivering a 108-qubit system to India’s C-DAC, per its Q2 2026 release. Quantinuum signed its own Department of Commerce letter of intent. Each sovereign machine pulls in universities and agencies as paying users around it. A 9-qubit Novera system bound for the Pittsburgh Supercomputing Center TangleLab, funded by a National Science Foundation grant, shows how one public award seeds a cluster of research accounts.

Chemistry and pharmaceutical simulation

Drug and materials research adds 4.9 points. Quantinuum, NVIDIA and a Fortune 100 drug maker showed AI-driven quantum simulation for molecular property work, and D-Wave signed or renewed work with Shionogi. Pharmaceuticals and chemicals buyers pay for repeat runs, not one-off demonstrations, so each new account carries an above-average spend of roughly USD 0.9 million a year in our model.

Finance and telecom optimisation

Banking and financial services and telecom add 3.4 points. D-Wave lists AT&T, Nasdaq Verafin and Unisys among new or renewing customers in its Q2 2026 results, and its first-half 2026 bookings rose 1,120% to USD 35.5 million. Optimisation problems such as fraud screening and network routing map well to annealers and hybrid solvers, so these quantum computing accounts convert from pilot to contract faster than chemistry users. D-Wave also names one of the world’s largest gambling and entertainment companies among its new clients, a sign that optimisation demand now reaches beyond banks.

Hybrid quantum and supercomputer stacks

Integration with classical high-performance computing adds the last 2.5 points. HPE works with Rigetti and the Pittsburgh Supercomputing Center on a hybrid quantum-classical supercomputer, and with Quantinuum on combining quantum, HPC and AI. Buyers already running GPU clusters for the Artificial Intelligence Applications Market add quantum time to the same job queue. Oracle will host Quantinuum Helios inside its cloud, and 180 organisations already use Quantinuum Nexus to submit jobs. So 6.8 plus 4.9 plus 3.4 plus 2.5 points gives the 17.6% volume leg.

What slows quantum computing adoption while logical qubits stay scarce?

Three headwinds remove 4.2 points a year from quantum computing account growth that would otherwise run near 21.8%. Error rates take the most, 2.1 points, because few production workloads beat classical computers before fault-tolerant machines arrive around 2029. Supplier losses, skills and export friction take the rest.

Error correction is the first brake. Timing matters most. IBM itself expects the first verified quantum advantage cases only by the end of 2026 and fault tolerance by 2029, so many quantum computing pilots stop at proof of concept. Douglas Insights removes 2.1 points of account growth for this delay. Revenue is also lumpy: D-Wave’s first-half 2026 revenue fell 67% to USD 5.9 million because the year-earlier half held a USD 13.7 million system sale, per its filing.

Skills and losses take the other 2.1 points. Buyers notice. Vendors spend far ahead of sales: D-Wave lost USD 48.0 million in Q2 2026 on USD 3.1 million of revenue, per its results, so buyers worry about supplier survival and sign short quantum computing contracts. We take 1.3 points for scarce in-house quantum talent and 0.8 points for export licensing friction on cross-border system sales.

Where do quantum computing buyers sit, and which region grows fastest?

North America leads quantum computing with USD 651.2 million, or 47.3% of 2025 revenue, because IonQ, IBM, Google and Rigetti sell first to U.S. agencies and banks. Asia Pacific grows fastest at 26.4% a year to 2035, as India and Japan fund sovereign and corporate machines.

North America reaches USD 5.87 billion by 2035 at 24.6% a year. Europe holds USD 341.4 million, or 24.8%, and rises at 24.3% to USD 3.01 billion, helped by sovereign machines such as the Advantage2 capacity a buyer in Lombardy, Italy, took for EUR 10 million. Asia Pacific starts at USD 311.1 million, or 22.6%, and climbs to USD 3.24 billion: India’s C-DAC order and Japanese research buyers such as Shionogi and Oki show state and corporate money arriving together. Latin America is small at USD 28.9 million and grows 25.1% to USD 271.3 million. The Middle East and Africa is the wildcard at USD 44.1 million, rising 25.9% to USD 441.1 million, because Gulf sovereign funds buy whole machines when they buy at all.

How much does a quantum computer or a year of quantum computing access cost?

Whole quantum computing systems sell for about USD 2.9 million to USD 20 million in disclosed deals, while the average paying account spends USD 702,400 a year in 2025. Price per account rises 6.3% a year as buyers move from pilots to production contracts.

At the low end, Rigetti’s two Novera on-premises systems carried about USD 5.7 million of purchase orders together, near USD 2.9 million each, and its 108-qubit C-DAC system about USD 8.4 million. At the top, D-Wave reported a USD 20 million system sale in its first-half 2026 bookings, and a European client paid EUR 10 million for half the capacity of one annealer. Cloud quantum computing is billed by time or by shot; Douglas Insights puts the 2026 average at USD 746,651 per account, rising to about USD 1.29 million by 2035.

Which use cases turn quantum computing pilots into repeat contracts?

Optimisation carries an estimated 36.4% of 2025 quantum computing use-case revenue, ahead of chemistry and materials simulation at 31.8%. Both have customers who renew; quantum machine learning and cryptography research remain mostly funded exploration, paid from research budgets rather than operating lines.

Quantum machine learning takes 19.6% and cryptography research 12.2% of the quantum computing use-case pool on our split. Optimisation renews. It wins because a hybrid solver returns a usable schedule today. Chemistry and materials simulation renews because drug makers repeat runs across molecule libraries. Cryptography research stays a niche of buyers testing the threat to public-key systems, a topic covered in the Cybersecurity Mesh Market.

How did the SkyWater and Quantum Circuits deals reshape quantum computing supply?

Two 2026 acquisitions moved quantum computing toward vertical integration: IonQ bought foundry SkyWater, and D-Wave bought Quantum Circuits, spending USD 252.8 million of net cash on acquisitions in the first half. Owned fabs and gate-model teams now sit inside the two largest listed suppliers.

D-Wave completed the Quantum Circuits purchase in January 2026, adding gate-model superconducting work to its annealers, per its Q2 2026 filing, and booked USD 9.3 million of one-off deal costs. IonQ’s SkyWater deal gives a quantum computing vendor its own wafer fab, much as IBM moved to the Albany 300mm line. Margins come first. Douglas Insights expects owned fabrication to lift supplier gross margin before it lifts price, which is why our price leg stays at 6.3%. Readers tracking brain-inspired chips will find a parallel in the Neuromorphic Chip Market.

What if fault-tolerant quantum computing arrives on schedule in 2029, or slips?

The base case puts quantum computing at USD 12.8 billion in 2035, with 17.6% account growth and 6.3% price growth. A slower path ends near USD 7.81 billion, and a faster one near USD 19.2 billion, depending mainly on when error-corrected machines reach paying buyers.

The slower case assumes fault tolerance slips past 2032: accounts grow 13.4% and price 4.9%, for 18.96% a year. The faster case assumes IBM hits its 2029 target and verified advantage lands by the end of 2026: accounts grow 21.2% and price 7.4%, for 30.17% a year. Adding one point to account growth adds about USD 1.13 billion to the 2035 quantum computing value. Rival published forecasts run between 22.3% and 41.8% a year; our 25.01% sits in the lower half because we count paid access only, not national research budgets. IonQ’s closing of SkyWater on 31 July 2026 is one marker for the faster case, as its filing sets out a full-stack model.

Quantum computing scenario Account growth Price growth Revenue CAGR 2035 value
Slower 13.4% 4.9% 18.96% USD 7.81 billion
Base case 17.6% 6.3% 25.01% USD 12.8 billion
Faster 21.2% 7.4% 30.17% USD 19.2 billion

Which export rules and post-quantum cryptography standards shape quantum computing sales?

Two rule sets shape quantum computing sales: U.S. export controls on quantum items from September 2024, and three NIST post-quantum encryption standards. We remove 0.8 points of account growth for the licensing friction, while the encryption standards add research demand from banks and agencies.

The Bureau of Industry and Security published an interim final rule on 5 September 2024 that controls quantum computers and related equipment, components, materials, software and technology, with a License Exception Implemented Export Controls (IEC) for countries running equivalent controls, according to the BIS announcement. NIST released FIPS 203, FIPS 204 and FIPS 205 in August 2024, which pushes banks to fund cryptography research on quantum computing time. Public funding also carries rules: Rigetti’s CHIPS letter of intent contemplates a federal equity stake in line with the up to USD 100 million award.

Douglas Exclusive: the quantum computing milestone calendar

The quantum computing milestone calendar is a Douglas Insights model built from 11 sourced inputs taken from five primary releases by IBM, IonQ, Quantinuum, D-Wave and Rigetti. It is our own compilation, not an official register, and it dates each promised milestone that would move revenue.

Due Quantum computing milestone Company
2026 Revenue of USD 280 to 290 million, excluding SkyWater IonQ
2026 Revenue of USD 28 to 32 million Quantinuum
End 2026 First verified quantum advantage cases IBM
End 2026 Nighthawk circuits of 7,500 gates IBM
End 2026 USD 20 million system deployed D-Wave
2026 to 2029 Up to USD 100 million CHIPS funding over three years Rigetti
2027 Sol system launch Quantinuum
2027 Circuits of 10,000 gates IBM
2028 15,000 gates on 1,000-plus qubits IBM
2029 Apollo system Quantinuum
2029 First large-scale fault-tolerant machine IBM

The finding: five of the 11 quantum computing milestones fall due in 2026, and the two revenue guides alone add up to USD 308 million to USD 322 million. Against our 2026 estimate of USD 1.72 billion, that is 17.9% to 18.7% of the market from two suppliers. If both guides land, our base case holds; a miss by IonQ alone would pull the 2026 figure toward the slower path.

What methodology turns 1,960 paying quantum computing accounts into USD 1.38 billion?

How this report is built

  • Every figure carries a confidence grade in the fact sheet above, and the working model ships with every licence.
  • Five regional models sum to the global figure, with country tables in the Excel model.
  • The next scheduled review of this study is April 2027.
  • Licence holders receive it as a maintained tab in the Excel model.

The quantum computing model multiplies 1,960 paying accounts by an average annual spend of USD 702,400 to reach USD 1.38 billion in 2025. It draws on 46 data points across 21 countries and checks the result against disclosed vendor revenue and published estimates.

Accounts grow 17.6% a year to about 9,916 in 2035, and spend per account grows 6.3%, which compounds to 25.01% revenue growth and USD 12.8 billion. The three listed pure plays with full-year 2025 revenue, IonQ at USD 130.0 million, D-Wave at USD 24.6 million and Rigetti at USD 7.1 million, total USD 161.7 million, or 11.7% of our figure. Our 2025 base sits 1.0% below the lowest published base-year estimate we read. Regions sum to the global figure in 2025 and 2035, and offering segments reconcile within 1%. Douglas Insights analysts drafted this study with AI assistance and checked every sourced figure against the linked primary pages.

Sources

  1. IonQ (SEC Form 8-K) IonQ Q2 2026 results (2026)
  2. Quantinuum (SEC Form 8-K) Quantinuum Q2 2026 results (2026)
  3. D-Wave (SEC Form 8-K) D-Wave Q2 2026 results (2026)
  4. Rigetti (SEC Form 8-K) Rigetti Q2 2026 results (2026)
  5. IBM IBM Nighthawk and Loon announcement (2025)
  6. U.S. Bureau of Industry and Security Quantum export controls (2024)
  7. NIST Post-quantum encryption standards (2024)

Inside the 196-page report

21 chapters 181 sections 48 tables, 10 figures 6 company profiles 196 pages Every table ships in the Excel model
01Executive summary12 sections

The market in one view

  1. 1.1Market snapshot, 2025 and 2035
    1. 1.1.1Market size, 2025
    2. 1.1.2Forecast, 2035
    3. 1.1.3Growth rate, 2026–2035
  2. 1.2Growth decomposition
    1. 1.2.1Volume growth (paying accounts)
    2. 1.2.2Value per unit growth
  3. 1.3Key findings
  4. 1.4Segment highlights
  5. 1.5Regional highlights
  6. 1.6Competitive highlights
  7. 1.7Douglas Insights verdict
02Scope and definitions15 sections

What the Quantum Computing market includes

  1. 2.1Market definition
  2. 2.2Inclusions and exclusions
  3. 2.3Segmentation
    1. 2.3.1By offering
    2. 2.3.2By technology
    3. 2.3.3By application
    4. 2.3.4By end user
    5. 2.3.5By region
  4. 2.4Years considered
    1. 2.4.1Base year 2025
    2. 2.4.2Forecast 2026–2035
  5. 2.5Currency and units
    1. 2.5.1Value in USD million
    2. 2.5.2Volume in paying accounts
  6. 2.6Who this report is for
03Research methodology16 sections

Bottom-up: paying accounts × value per unit

  1. 3.1Bottom-up market model
    1. 3.1.1Volume base, 2025 (paying accounts)
    2. 3.1.2Value per unit
    3. 3.1.3Forecast legs to 2035
  2. 3.2Top-down cross-checks
  3. 3.3Data triangulation
  4. 3.4Sources
    1. 3.4.1Regulators and statistics offices
    2. 3.4.2Company filings and results
    3. 3.4.3Trade and industry bodies
    4. 3.4.47 primary sources cited
  5. 3.5Confidence grading
  6. 3.6Assumptions and limitations
    1. 3.6.1Receipt
    2. 3.6.2Cross-checks
    3. 3.6.3AI disclosure
04Offering segments3 sections

Cloud, systems, software, services

  1. 4.1Share table
  2. 4.2Fastest segment
  3. 4.3Reasons for share
05Qubit technology3 sections

Superconducting to photonic

  1. 5.1Superconducting
  2. 5.2Trapped ion
  3. 5.3Annealing and neutral atom
06Growth drivers3 sections

Four drivers of account growth

  1. 6.1Public money
  2. 6.2Chemistry
  3. 6.3Finance and telecom
07Headwinds3 sections

Error rates, losses, skills

  1. 7.1Fault-tolerance delay
  2. 7.2Supplier losses
  3. 7.3Export friction
08Pricing3 sections

System and access prices

  1. 8.1System deals
  2. 8.2Account spend
  3. 8.3Price leg
09Use cases3 sections

Optimisation to cryptography

  1. 9.1Optimisation
  2. 9.2Chemistry
  3. 9.3Machine learning
10Consolidation3 sections

SkyWater and Quantum Circuits

  1. 10.1Vertical integration
  2. 10.2Deal costs
  3. 10.3Margins
11Regulation3 sections

Export controls and NIST standards

  1. 11.1BIS rule
  2. 11.2FIPS 203 to 205
  3. 11.3CHIPS terms
12Market size and forecast, 2025–20355 sections

Global value, volume and value per unit

  1. 12.1Market value, 2025–2035
  2. 12.2Volume (paying accounts), 2025–2035
  3. 12.3Value per unit, 2025–2035
  4. 12.4Year-on-year growth
  5. 12.5Growth decomposition
13Quantum Computing market, by offering13 sections

4 segments, value 2025–2035

  1. 13.1Overview and share, 2025 and 2035
  2. 13.2Cloud access and quantum computing as a service
    1. 13.2.1Market size and forecast, 2025–2035
    2. 13.2.2Growth outlook
  3. 13.3On-premises quantum systems
    1. 13.3.1Market size and forecast, 2025–2035
    2. 13.3.2Growth outlook
  4. 13.4Software and algorithms
    1. 13.4.1Market size and forecast, 2025–2035
    2. 13.4.2Growth outlook
  5. 13.5Consulting and integration services
    1. 13.5.1Market size and forecast, 2025–2035
    2. 13.5.2Growth outlook
14Quantum Computing market, by technology16 sections

5 segments, value 2025–2035

  1. 14.1Overview and share, 2025 and 2035
  2. 14.2Superconducting
    1. 14.2.1Market size and forecast, 2025–2035
    2. 14.2.2Growth outlook
  3. 14.3Trapped ion
    1. 14.3.1Market size and forecast, 2025–2035
    2. 14.3.2Growth outlook
  4. 14.4Quantum annealing
    1. 14.4.1Market size and forecast, 2025–2035
    2. 14.4.2Growth outlook
  5. 14.5Neutral atom
    1. 14.5.1Market size and forecast, 2025–2035
    2. 14.5.2Growth outlook
  6. 14.6Photonic
    1. 14.6.1Market size and forecast, 2025–2035
    2. 14.6.2Growth outlook
15Quantum Computing market, by application13 sections

4 segments, value 2025–2035

  1. 15.1Overview and share, 2025 and 2035
  2. 15.2Optimisation
    1. 15.2.1Market size and forecast, 2025–2035
    2. 15.2.2Growth outlook
  3. 15.3Chemistry and materials simulation
    1. 15.3.1Market size and forecast, 2025–2035
    2. 15.3.2Growth outlook
  4. 15.4Quantum machine learning
    1. 15.4.1Market size and forecast, 2025–2035
    2. 15.4.2Growth outlook
  5. 15.5Cryptography research
    1. 15.5.1Market size and forecast, 2025–2035
    2. 15.5.2Growth outlook
16Quantum Computing market, by end user13 sections

4 segments, value 2025–2035

  1. 16.1Overview and share, 2025 and 2035
  2. 16.2Pharmaceuticals and chemicals
    1. 16.2.1Market size and forecast, 2025–2035
    2. 16.2.2Growth outlook
  3. 16.3Banking and financial services
    1. 16.3.1Market size and forecast, 2025–2035
    2. 16.3.2Growth outlook
  4. 16.4Telecom
    1. 16.4.1Market size and forecast, 2025–2035
    2. 16.4.2Growth outlook
  5. 16.5Universities and agencies
    1. 16.5.1Market size and forecast, 2025–2035
    2. 16.5.2Growth outlook
17Regional analysis31 sections

5 regions

  1. 17.1Regional overview and share, 2025 and 2035
  2. 17.2North America
    1. 17.2.1Market size and forecast, 2025–2035
    2. 17.2.2By offering
    3. 17.2.3By technology
    4. 17.2.4By application
    5. 17.2.5By end user
  3. 17.3Europe
    1. 17.3.1Market size and forecast, 2025–2035
    2. 17.3.2By offering
    3. 17.3.3By technology
    4. 17.3.4By application
    5. 17.3.5By end user
  4. 17.4Asia Pacific
    1. 17.4.1Market size and forecast, 2025–2035
    2. 17.4.2By offering
    3. 17.4.3By technology
    4. 17.4.4By application
    5. 17.4.5By end user
  5. 17.5Latin America
    1. 17.5.1Market size and forecast, 2025–2035
    2. 17.5.2By offering
    3. 17.5.3By technology
    4. 17.5.4By application
    5. 17.5.5By end user
  6. 17.6Middle East and Africa
    1. 17.6.1Market size and forecast, 2025–2035
    2. 17.6.2By offering
    3. 17.6.3By technology
    4. 17.6.4By application
    5. 17.6.5By end user
18Competitive landscape10 sections

6 companies profiled

  1. 18.1Market concentration
  2. 18.2Market share analysis, 2025
  3. 18.3Strategic moves: acquisitions, launches, contracts
  4. 18.4Company profilesEach profile: overview, products, financials where reported, position in this market, recent developments
    1. 18.4.1IonQ
    2. 18.4.2IBM
    3. 18.4.3Quantinuum
    4. 18.4.4D-Wave
    5. 18.4.5Rigetti
    6. 18.4.6Google Quantum AI
19Scenarios to 20355 sections

Base, slower, faster

  1. 19.1Slower case
  2. 19.2Base case case
  3. 19.3Faster case
  4. 19.4Sensitivity of the 2035 value
  5. 19.5Published forecasts compared
20Douglas Exclusive: the quantum computing milestone calendar3 sections

11 dated milestones

  1. 20.12026 milestones
  2. 20.22027 to 2029
  3. 20.3Finding
21Appendix5 sections

Data, sources and licence

  1. 21.1Data tables (Excel model)
  2. 21.2Sources (7)
  3. 21.3Abbreviations
  4. 21.4Change log and next review
  5. 21.5Licence and how to cite
TList of tables48
  1. Table 1Market value, 2025–2035 (USD million)
  2. Table 2Volume, 2025–2035 (paying accounts)
  3. Table 3Value per unit, 2025–2035
  4. Table 4Quantum Computing market by offering, 2025–2035 (USD million)
  5. Table 5Cloud access and quantum computing as a service: market size, 2025–2035 (USD million)
  6. Table 6On-premises quantum systems: market size, 2025–2035 (USD million)
  7. Table 7Software and algorithms: market size, 2025–2035 (USD million)
  8. Table 8Consulting and integration services: market size, 2025–2035 (USD million)
  9. Table 9Quantum Computing market by technology, 2025–2035 (USD million)
  10. Table 10Superconducting: market size, 2025–2035 (USD million)
  11. Table 11Trapped ion: market size, 2025–2035 (USD million)
  12. Table 12Quantum annealing: market size, 2025–2035 (USD million)
  13. Table 13Neutral atom: market size, 2025–2035 (USD million)
  14. Table 14Photonic: market size, 2025–2035 (USD million)
  15. Table 15Quantum Computing market by application, 2025–2035 (USD million)
  16. Table 16Optimisation: market size, 2025–2035 (USD million)
  17. Table 17Chemistry and materials simulation: market size, 2025–2035 (USD million)
  18. Table 18Quantum machine learning: market size, 2025–2035 (USD million)
  19. Table 19Cryptography research: market size, 2025–2035 (USD million)
  20. Table 20Quantum Computing market by end user, 2025–2035 (USD million)
  21. Table 21Pharmaceuticals and chemicals: market size, 2025–2035 (USD million)
  22. Table 22Banking and financial services: market size, 2025–2035 (USD million)
  23. Table 23Telecom: market size, 2025–2035 (USD million)
  24. Table 24Universities and agencies: market size, 2025–2035 (USD million)
  25. Table 25Quantum Computing market by region, 2025–2035 (USD million)
  26. Table 26North America: market by offering, 2025–2035 (USD million)
  27. Table 27North America: market by technology, 2025–2035 (USD million)
  28. Table 28North America: market by application, 2025–2035 (USD million)
  29. Table 29North America: market by end user, 2025–2035 (USD million)
  30. Table 30Europe: market by offering, 2025–2035 (USD million)
  31. Table 31Europe: market by technology, 2025–2035 (USD million)
  32. Table 32Europe: market by application, 2025–2035 (USD million)
  33. Table 33Europe: market by end user, 2025–2035 (USD million)
  34. Table 34Asia Pacific: market by offering, 2025–2035 (USD million)
  35. Table 35Asia Pacific: market by technology, 2025–2035 (USD million)
  36. Table 36Asia Pacific: market by application, 2025–2035 (USD million)
  37. Table 37Asia Pacific: market by end user, 2025–2035 (USD million)
  38. Table 38Latin America: market by offering, 2025–2035 (USD million)
  39. Table 39Latin America: market by technology, 2025–2035 (USD million)
  40. Table 40Latin America: market by application, 2025–2035 (USD million)
  41. Table 41Latin America: market by end user, 2025–2035 (USD million)
  42. Table 42Middle East and Africa: market by offering, 2025–2035 (USD million)
  43. Table 43Middle East and Africa: market by technology, 2025–2035 (USD million)
  44. Table 44Middle East and Africa: market by application, 2025–2035 (USD million)
  45. Table 45Middle East and Africa: market by end user, 2025–2035 (USD million)
  46. Table 46Company market shares, 2025
  47. Table 47Scenario values, 2035
  48. Table 48Sources and confidence grades by figure
FList of figures10
  1. Figure 1Market value, 2025–2035
  2. Figure 2Growth decomposition, 2026–2035
  3. Figure 3Share by offering, 2025 and 2035
  4. Figure 4Share by technology, 2025 and 2035
  5. Figure 5Share by application, 2025 and 2035
  6. Figure 6Share by end user, 2025 and 2035
  7. Figure 7Share by region, 2025 and 2035
  8. Figure 8Growth by region, 2026–2035
  9. Figure 9Market concentration, 2025
  10. Figure 10Scenario paths to 2035

Email me the sample and full contents Buy the report

Questions buyers ask

What is the quantum computing market worth in 2025 and 2035?

USD 1.38 billion in 2025, rising to USD 12.8 billion by 2035 at 25.01% a year, built as 1,960 paying accounts at USD 702,400 average annual spend.

Which quantum computing vendor earns the most revenue?

9.4% of 2025 revenue goes to IonQ, on its disclosed USD 130.0 million. Douglas Insights puts the top three, IonQ, IBM and Quantinuum, at 29.6%.

Do most quantum computing buyers own a machine or rent time?

38.6% of 2025 revenue comes from cloud access and quantum computing as a service, against 33.2% from on-premises quantum systems.

What does a whole quantum computer sell for?

USD 2.9 million to USD 20 million in disclosed deals, from Rigetti Novera systems to a D-Wave system sale.

Which qubit technology earns the most quantum computing revenue?

41.3% of 2025 revenue goes to superconducting machines from IBM, Google and Rigetti, ahead of trapped ion at 29.7%.

How concentrated is quantum computing demand by geography?

47.3% of 2025 revenue sits in North America, worth USD 651.2 million; Asia Pacific grows fastest at 26.4% a year.

What happens if fault tolerance slips past 2032?

USD 7.81 billion by 2035 in the slower case, with 13.4% account growth and 4.9% price growth, against USD 12.8 billion in the base case.

Why did IonQ buy SkyWater Technology?

31 July 2026 is when IonQ closed the deal, giving it its own foundry for a vertically integrated, full-stack quantum platform.

Research & citation

This report was researched, written and reviewed by the Douglas Insights Research Desk under the Douglas Insights editorial standards. Material errors are logged in the corrections log. No section is sponsored.

Cite this report Douglas Insights Inc (2026). Quantum Computing Market. Report DI-IT-10702, October 2026. https://www.douglasinsights.com/quantum-computing-market/