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Technology hub: Topological qubits

Qubits that would store information in non-local states of exotic quasiparticles, such as Majorana zero modes, designed to be protected from local noise.

Pillar
Quantum computing and simulation
Related codes
Axis in the faceted taxonomy
Physical platform: Topological qubits (draft — to be completed by the responsible team)
Validation
Proposed — not yet validated by an expert
Sources of the definition
2 sources

18 confirmed items. Including suggestions by rules or AI, not yet reviewed: 20. Suggestions are counted, not listed.

At a glance

Key items: EU and national projects

  1. Towards hole spin qubits and Majorana fermions in Germanium FWF Research Radar; approved FWF funding EUR 1,200,000
  2. TOBITS: Non-Abelian anyons for topological qubits ANR (France); ANR aid allocated EUR 403,878.96
  3. Spin qubit as a quantum sensor of Majorana zero modes NWOpen API (Netherlands); NWO award amount EUR 250,000

Key items: Organisations and companies

  1. University of Hamburg Organisation

The technology atlas and the full lists follow; every section is listed under “Sections of this hub page”.

Topological qubits is a technology family of Quantum computing and simulation, highlighted with its area and its parts tree subsystems; every node opens its page. Open the full taxonomy map

Overview

The technology atlas of Topological qubits: its value chain, the documented actors by role, facilities, funding, patents and publications, standards and policy measures on one page, each from a source the portal already publishes. Each section says whether these sources document the technology, show an evidence gap or hold nothing about it.

The atlas at a glance: state and number of records per section
SectionState in these sourcesRecords
Value chainNo evidence found in these sources0
Actors by roleDocumented in these sources1
Facilities and accessNo evidence found in these sources0
FundingDocumented in these sources4
Patents and publicationsDocumented in these sources1
StandardsDocumented in these sources13
Policy measuresDocumented in these sources5
Evidence gapsNo evidence found in these sources0
  • Documented in these sources: at least one record of these sources is about this technology.
  • Evidence gap in these sources: the parts tree names a stage, but no documented European actor is linked to it here. Evidence gap in these sources, not a finding of dependency.
  • No evidence found in these sources: No evidence found in these sources. It means only that these sources hold nothing on it.

Public layer: structure and documented actors only. Actor roles come from typed, dated relationships and are never inferred from shared projects or patents. Supplier assessments of the restricted dependency map are not shown on this public page. No technology readiness level is given.

External context: EPO Observatory: quantum technologies · EPO Deep Tech Finder

Value chain

The stages of this technology in the parts tree, a reference structure from review articles and EU law, with the European companies whose own product page names a product line for the stage or a part under it (the curated supplier directory).

No evidence found in these sources. The parts tree has no platform or part for this technology.

Actors by role

Organisations with a documented relationship to this technology: a product line on the company’s own product page, the host or programme the infrastructure catalogue names for a facility, or the operator of an access route. Each row names its source and the date it was read. Roles are never inferred from taking part in the same project or patent.

Roles and their documented actors
RoleActorsStateWhere
Manufacturer or supplier of a part0No evidence found in these sources0 organisations in the table below.
Host, operator or access provider0No evidence found in these sources0 organisations in the table below.
Funder or programme0No evidence found in these sources0 organisations in the table below.
Researcher or developer1Documented in these sourcesOrganisations confirmed under this technology by the classification; listed in “Organisations and companies” below. Participants in EU-funded projects are counted per pillar in technology intelligence.
User0No evidence found in these sourcesThese sources record no user of this technology.

No evidence found in these sources. No product line, facility host, programme or access route is recorded for this technology.

Organisations and companies

1 confirmed item.

  1. University of Hamburg Organisation

Companies of Topological qubits in the investor screener

Facilities and access

Facilities of this technology in the infrastructure catalogue, the furthest milestone the deployment tracker evidences for each, and the current access routes that open them.

No evidence found in these sources. The infrastructure catalogue lists no facility for this technology.

Funding

Upcoming work-programme topics in this technology (the EU programme pipeline) and the funding instruments whose stated quantum relevance names it. The awards of its EU-funded projects and the announced funding rounds follow below.

Upcoming topics in the programme pipeline

No evidence found in these sources. No upcoming topic of the pipeline (read 2026-11-01) names this technology.

Pipeline topics of Topological qubits

Funding instruments

Funding instruments that name Topological qubits
InstrumentProgrammeStated quantum relevanceWhy it is shown
EIC AcceleratorHorizon Europe: European Innovation CouncilThe EIC Work Programme 2026 states that the Accelerator Open call remains available to start-ups and SMEs, including for quantum technologies, with specific safeguards on investments in quantum.Names its pillar, Quantum computing and simulation
EIC STEP Scale UpHorizon Europe: European Innovation Council, Strategic Technologies for Europe Platform (STEP)Quantum technologies are among the digital and deep-tech priority areas, and the EIC Work Programme 2026 says support for quantum start-ups will be pursued in particular through this call.Names its pillar, Quantum computing and simulation
EuroHPC JU quantum technology calls (Quantum Flagship)Horizon Europe: Quantum Flagship, implemented by the EuroHPC JUSince Council Regulation (EU) 2026/150 entered into force on 20 January 2026, the JU implements the Union's quantum technology agenda, including the Quantum Flagship funded through Horizon Europe, and its 2026 calls cover quantum computing platforms, QKD, testing infrastructure, pilot lines, sensing, machine learning and standards.Names its pillar, Quantum computing and simulation
QuantERA joint transnational callsQuantERA: network of national research funders with European Commission co-fundingQuantERA is a network of research funders for quantum technologies, and Call 2025 covered quantum phenomena and resources and applied quantum science across communication, computing, simulation, sensing and metrology.Names its pillar, Quantum computing and simulation

6 more instruments are open to any field of research and are not listed here.

Funding instruments registry

EU and national projects

17 confirmed items. Including suggestions by rules or AI, not yet reviewed and not listed here: 18.

Awards of the confirmed projects: National programmes, one line per measure and currency
MeasureTotalProjects with an amountProjects without one
funded amountSEK 4,386,54020
ANR aid allocatedEUR 403,878.9610
NWO award amountEUR 250,00010
approved FWF fundingEUR 1,200,00010
award value (Gateway to Research)GBP 803,40410
award value (Gateway to Research)002
current total commitment003
funded amount006

Each project counts once. A total adds the amount each source states for its projects within one measure and one currency only: EU contributions, national awards and other measures are never added together. Total cost includes the award and is shown separately. A country filter keeps whole projects with a participant in the country, so its total is not the country's share. Programme envelopes, partner shares, co-funding and payments are separate layers and are never added to awards; payments are not published by the sources used. Outputs are linked only through an explicit project or grant identifier or reviewed documentary evidence, never by name alone; only a reviewed document can show a demonstrated contribution. CORDIS and Funding & Tenders amounts are one measure, the EU contribution (maximum grant agreed in the grant agreement, not payments). Country codes EL and UK are read as GR (Greece) and GB (United Kingdom). National and regional rows whose title names no quantum technology are left out unless asked for. EU and national totals are shown apart and never added.

Includes projects from the ANR open data: ANR, data.gouv.fr, ODbL 1.0; those rows are shared alike under the Open Database Licence.

  1. Towards hole spin qubits and Majorana fermions in Germanium FWF Research Radar; approved FWF funding EUR 1,200,000
  2. TOBITS: Non-Abelian anyons for topological qubits ANR (France); ANR aid allocated EUR 403,878.96
  3. Spin qubit as a quantum sensor of Majorana zero modes NWOpen API (Netherlands); NWO award amount EUR 250,000
  4. 2D hybrid materials as a platform for topological quantum computing OpenAIRE Graph (national funders); funded amount SEK 2,445,320
  5. 2D hybrid materials as a platform for topological quantum computing OpenAIRE Graph (national funders); funded amount SEK 1,941,220

See all 17: EU and national projects

Patents and publications

Patent counts come from EPO Open Patent Services in technology intelligence, by CPC group, and per EPO quantum concept in the technology intelligence reports; publications by OpenAlex topic. The patent series of this node and its documents follow below.

Documented in these sources: 1 indicator page of this technology.

Patent landscape of Quantum computing and simulation in technology intelligence · All technology intelligence reports

Patents

No patent series for this node. Its CPC groups (G06N 10/40) are counted in the series of Quantum computing and simulation, together with other families.

Patent landscape of the pillar Quantum computing and simulation in technology intelligence

Standards

Standards, specifications, committees and roadmaps of the standards tracker in the scope of this technology, each with its body and status.

Documented in these sources: 13 tracked items.

Standards tracker items in the scope of Topological qubits
IdentifierTitleKindStatus
CEN/CLC/TR 18202:2025Layer model of Quantum ComputingTechnical reportPublished
EAS 18433:2026Quantum Computing - High-Level Programming LanguageSpecificationPublished
EAS 18434:2026Quantum Computing - Roadmap for Post-Processing Software in SpaceSpecificationPublished
EAS 18435-1:2026Quantum Computing - Hardware Abstraction Layer - Part 1: Descriptions and functional requirementsSpecificationPublished
prEN 18470 (WI JT022006)Quantum technologies - quantum computing - Hybridization of High-Performance Computing and Quantum ComputingWork item or projectIn development
prCEN/CLC/TR 18437 (WI JT022005)Performance benchmarks of quantum computing applicationsWork item or projectIn development
prCEN/CLC/TS 18438-1 (WI JT022007)Quantum Technologies - Quantum Computing - Cryogenic Solid State Gate-Based Quantum Computing - Part 1: Functional RequirementsWork item or projectIn development
ISO/IEC 4879:2024Information technology — Quantum computing — VocabularyStandardPublished
IEEE P7131Standard for Quantum Computing Performance Metrics & Performance BenchmarkingWork item or projectWithdrawn
IEEE P3155Standard for Programmable Quantum SimulatorWork item or projectWithdrawn
IEEE P3120Standard for Quantum Computing ArchitectureWork item or projectWithdrawn
IEEE P3185Standard for Hybrid Quantum-Classical ComputingWork item or projectWithdrawn
IEEE P3329Standard for Quantum Computing Energy EfficiencyWork item or projectIn development

9 tracked items are about quantum technologies in general.

Standards tracker, filtered to this scope

Policy measures

Actions of the Quantum Europe Strategy (COM(2025) 363) that name this technology or its pillar, or that link one of its facilities, with their status in the strategy tracker.

Documented in these sources: 5 actions.

Strategy actions about Topological qubits
ActionStatusTargetWhy it is shownWhere in the strategy
Publish an EU Quantum Computing and Simulation RoadmapAnnounced2026Names its pillar, Quantum computing and simulationSection 2.2.1, text and action list (p. 7); Appendix, Area 2 (p. 23)
Expand the EuroHPC quantum computersIn progress (evidence)2026 onwardsNames its pillar, Quantum computing and simulationSection 2.2.1, action list (p. 7); Appendix, Area 2 (p. 23)
Set up a monitoring framework for quantum computingAnnounced2026Names its pillar, Quantum computing and simulationSection 2.2.1, action list (p. 7); Appendix, Area 2 (p. 23)
About 100 error-corrected qubits per systemAnnouncedBy 2030Names its pillar, Quantum computing and simulationSection 2.2.1, text after Table 1 (p. 6)
Thousands of error-corrected qubits per platformAnnouncedBy 2035Names its pillar, Quantum computing and simulationSection 2.2.1, text after Table 1 (p. 6)

Strategy implementation tracker

Evidence gaps

Stages of the value chain for which these sources link no documented European actor. Evidence gap in these sources, not a finding of dependency. A company may well supply the stage without a product page the directory has read; a missing record is never proof of a strategic dependency.

No evidence found in these sources. No value chain is recorded for this technology, so no gap can be named.

JRC and EU analysis

Reports and pages of the European Commission’s Joint Research Centre (JRC). Identifiers are those of the JRC Publications Repository; the portal does not reproduce their data.

Further reading

  • Understanding Quantum Technologies 2025 (Olivier Ezratty, 8th edition, version 8.1 of 30 October 2025, arXiv:2111.15352 (v6), doi:10.48550/arXiv.2111.15352, CC BY-NC-ND 4.0)See Part 2: Computing hardware; Part 3: Computing software
  • Understanding Quantum Technologies 2026 (Olivier Ezratty, 9th edition, version 9.0 of 17 October 2026 (latest edition))See Part 2: Computing hardware; Part 3: Computing software

Olivier Ezratty, Understanding Quantum Technologies (CC BY-NC-ND 4.0). Links only; no text of the book is reproduced on this portal.