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GCRI · 量子技術

量子人材

Quantum technology needs people who combine physics with engineering, software, cryogenics, photonics and business skills. Demand is growing faster than training programmes, and talent concentrates in a few countries and firms. This page sets out how the quantum workforce is formed, where gaps lie, how skills are measured, and what evidence serves universities, employers and governments building it.

02質問

Quantum workforce: how the risk develops.

Research capacity and scarce skills. The dossier below sets out how the risk develops, what is measured, where the data come from, how it is modelled and who decides.

メカニズム

Training is concentrated

Most quantum specialists train in a few research universities. Countries without such programmes rely on recruiting from abroad.

メカニズム

Roles go beyond physics

Building quantum システム needs engineers, technicians, software developers and product staff, not only physicists, and these roles are often overlooked.

メカニズム

Talent is mobile and contested

Researchers move between countries and between academia and industry, and immigration and security rules affect where they can work.

メカニズム

Diversity is limited

The field draws from disciplines with low representation of women and some groups, which narrows the talent pool.

03監視

耐量子計算機暗号への移行トラッカー。

このテーマを追跡するためにチームが使う画面:その指標、状態、決定。名前は例であり、値はイメージです。

ポスト量子移行追跡ツール

Quantum workforce · Crypto inventory · Wave 2

リスクにさらされた長期保存データGCRI・量子技術

移住

  1. 目録暗号すべて
  2. 優先順位をつけるデータの寿命
  3. 選択する標準アルゴリズム
  4. ハイブリッド展開従来型と PQC
  5. 試験相互運用性
  6. 切り替え退役

優先度別のシステム

アーカイブの署名RSA-204829ML-DSA ハイブリッド試験運用
VPN ゲートウェイECDH8ML-KEM ハイブリッド計画中
決済 HSMRSA-30727ベンダーのロードマップ阻害中
Web TLSECDHE3ハイブリッド鍵交換完了

進捗

棚卸し済み、%92 of 100 requiredハイブリッド導入済み、%14 of 50 required退役、%10 of 25 required
Post-quantum migration tracker: the screen’s structure, terms and states for Quantum workforce.例示の名称と説明用の値です。設計であり、記録でも稼働中のシステムでもありません。
04分野を横断して

Quantum skills are scarce and unevenly spread.

05手法とエビデンス

How quantum workforce is modelled, measured and tested.

モデル、その仮定、データ、不確実性を、科学者やエンジニアが確認する形で示します。構造は公表された手法に従っています。描かれた値は例示であり、知見ではありません。

システム・モデル

The couplings between the systems in quantum workforce: signs of influence, a reinforcing and a balancing loop, and cross-links where stress jumps.

++−+量子サイバーコミュニティ経済R 自己強化B バランス
Causal loop diagram from the page’s systems; signs show the direction of influence. Illustrative structure for a system dynamics or network model, not estimated couplings.
FAIR 原則・GO FAIR と FORCE11W3C PROV・World Wide Web Consortium不確実性の一貫した扱いに関するガイダンス・IPCCCEOS 解析即応データ・地球観測衛星委員会
06指標

何を、どの程度うまく測定しているか。

各指標には、その単位、更新頻度、背後にある出典の種類、値が持つことになるエビデンスのラベルが付いています。値は表示しません:プログラムが自らの権限のもとで値を提供します。

指標単位周期出典の種類ラベル
Quantum-related degree programmes件数年次University programme surveys報告値
Quantum job postingscount by role type四半期ごとJob posting data観測
Graduates in quantum-relevant fields件数年次教育 statistics公表統計
Women in quantum researchpercent of researchersper surveyWorkforce surveys報告値
Vacancies reported hard to fillpercent of vacanciesper surveyEmployer surveys報告値
Short courses and reskilling places件数年次Training provider records報告値
07出典

エビデンスの出所。

名前の明示された公開データセットと機関の記録。それぞれにライセンス区分があります。合意に基づく出典は、その条件のもとでのみ使用し、再公開することはありません。

出典提供するものライセンス区分
QED-C and industry workforce surveysEmployer needs and hiring difficultiesPublic reports, terms to check
European Quantum Flagship education and training workCompetence framework and training programmesPublic, EU terms
UNESCO Institute for Statistics and national education statisticsGraduates in science and engineeringOpen, terms per source
Job posting data summariesDemand for quantum skillsCommercial; public summaries (to check)
OECD science and innovation indicatorsResearch personnel and mobilityPublic, OECD terms
08決定

誰が決め、エビデンスが何に役立つか。

Quantum Technologies prepares evidence. The decisions below are taken by the authorities named, under their own rules, and never by the platform.

誰が決定するか質問このページが提供するエビデンス
大学Which programmes and courses to createCompetence maps; demand analyses
EmployersHow to train and recruit for quantum rolesHiring difficulty evidence
政府How to fund training and manage talent mobilitySupply, demand and mobility evidence

このトピックが生み出す成果物

  • Competence maps of roles beyond physics
  • Workforce supply and demand analyses
  • Training programme reviews
  • Evidence notes on mobility and diversity
09中核となる問い

専門家が問うこと。

Workforce questions ask who can build, test and govern the technology.

  • Which skills are scarcest: quantum physics, hardware engineering, control electronics, software, cryptography or policy?
  • Where is research capacity concentrated, and who lacks access?
  • How do education pathways, including vocational and technician routes, feed the field?
  • How do mobility, visas and research security rules shape the talent pool?
  • Is there enough cryptographic expertise to carry out the post-quantum migration across all sectors?
10メカニズム

メカニズムと要因。

Quantum technology requires depth in several disciplines at once, and its growth has outpaced the rate at which universities produce specialists. Demand comes from academia, industry and government simultaneously, so salaries and opportunities concentrate talent in a few places. The field also depends on technicians and engineers whose skills, such as vacuum, laser and cryogenic work, are often overlooked.

The post-quantum migration creates a separate and broader skills need: many organisations need people who understand where cryptography sits in their システム and how to change it, without needing to understand quantum physics.

11手法とデータ

どのように研究され、手法がどこで止まるか。

手法またはデータ表示内容限界
Labour market and job posting analysisDemand by skill and locationPostings are an imperfect proxy for need
教育 and graduate dataSupply of trained peopleProgramme labels vary and miss interdisciplinary routes
Bibliometrics and patent analysisWhere research capacity sitsMeasure outputs, not capacity or quality directly
Surveys of employers and researchersPerceived gaps and barriersResponse bias and small samples
12手法

どのように研究され、手法が言えないことは何か。

13Where this page’s references

Where this page’s references lead.

このページの読解の基準となる機関と文書。状態と版は変わります。各リンクは発行機関へ移動します。

14質問

質問と回答。

What skills does quantum technology need?
Physics and quantum information science, but also electronics, cryogenics, photonics, software engineering, manufacturing and business skills.
Is there a quantum skills shortage?
Employer surveys report difficulty filling roles, especially for experienced engineers and scientists, but the size of the gap is hard to measure.
What is a competence framework?
A structured description of the knowledge and skills needed for roles in a field, used to design training and recruitment, such as the European Competence Framework for Quantum Technologies.
Do you need a physics doctorate to work in quantum technology?
No. The field also needs engineers, technicians, software developers, cryptographers, project managers and policy specialists.
Why does the cryptographic migration need its own workforce?
Because almost every organisation must inventory and replace vulnerable cryptography, which requires security and systems expertise rather than quantum physics.
Does the platform offer training or credentials?
Not at this service level. Learning resources appear on the learning page as they are published. GCRI does not certify individuals.
報告書貢献する

このページからエビデンスを提供する。

報告書 is the Consortium’s quarterly publication. What you know about this subject can become evidence, a case or a correction in the next edition, credited to you and published under CC BY 4.0 where it is your own work.

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量子技術

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