全球量子感測器市場（2027-2047 年）

量子感測器利用量子態的脆弱性——例如疊加態、量子糾纏態以及原子、光子和人工缺陷對環境的極高敏感性——來測量物理量，其精度遠超傳統測量儀器。由於量子系統的響應與基本常數而非人工標準相關，這些設備能夠實現本質上精確、無漂移且自我校準的測量。

該領域涵蓋多種不同的技術。量子磁力計（光激發、氮穿孔鑽石、基於超導量子乾涉元件（SQUID））能夠偵測到微弱到足以偵測神經活動或地下基礎設施的磁場。原子鐘提供足夠穩定的時間，足以支援導航、通訊和金融網路。冷原子重力儀和重力梯度儀無需鑽探即可探測地下密度變化。量子陀螺儀和加速計有望實現無漂移慣性導航，即使在衛星訊號受到干擾、欺騙或完全無法接收的情況下也能正常運作。單光子檢測器和量子影像感測器能夠在極低光照環境下進行成像。里德伯格原子接收器能夠從單一孔徑探測寬頻譜範圍內的高頻電磁場，而量子雷達、雷射雷達和量子增強光譜技術則開闢了更多測量方法。

這些技術在商業性的共同點並非物理學，而是它們共用的共同工程挑戰。儘管實驗室層面的靈敏度已基本驗證，但可製造性仍是實用化的一大障礙。關鍵挑戰在於，這些裝置能否實現小型化、整合到晶片上、採用成熟的半導體和光電製程製造，並在非受控環境下運作——無需低溫技術、無需專業操作人員，且價格在應用可接受的範圍內。因此，衡量進展的標準並非新的靈敏度記錄，而是晶圓級氣相蒸氣單元的製造、具有一致缺陷的鑽石基板、光電整合以及可在數天而非數月內完成安裝的封裝系統。

目前，國防和政府機構是推動這項需求的主要力量。在GPS訊號無法覆蓋的環境中，可靠的定位、導航和時間同步，以及能夠抵抗電子戰的射頻感，都被視為重要的戰略能力。其次，在醫療領域，腦磁圖和低場磁振造影使得診斷無需傳統系統所需的高成本和基礎設施。隨著量子感測技術從專用設備發展成為嵌入式元件，其在半導體良率測量、無損檢測以及能源和功率監測等領域的工業應用也正在加速推進。

供應鏈也反映了這種轉變。這包括大學衍生公司和創業投資投資支援的新創企業，它們負責開發感測器本身；也包括提供關鍵雷射器、蒸氣池、鑽石和光子元件的成熟供應商；以及負責整合所有這些組件的大型航太、國防和工業總承包商。

《全球量子感測器市場（2027-2047）》報告對未來20年該產業的發展進行了全面評估。報告闡明了相關技術及其性能對比，清晰闡述了評估依據，並為每種感測器類型分配了技術成熟度等級（TRL），同時模擬了每種感測器克服特定製造挑戰、實現大規模生產的階段。市場預測是基於已完成的感測器設備，並按感測器類型、產量、價格區間、終端用戶行業和應用領域進行分類，最終將各觀點的預測匯總為一個整體的收入池。

本報告檢驗了重塑市場需求的促進因素。具體而言，這些因素包括：政府政策從研發資助轉向採購和領先的市場承諾；當前戰略重點是能夠在GPS不可用或競爭激烈的環境中運行的導航和授時技術；半導體測量、無損檢測和能源最佳化等領域真正工業應用的湧現；以及整個價值鏈所依賴的組件和基礎技術——雷射儀、蒸氣色譜儀、合成光子類、合成光電和電子件。

此外，本報告還對競爭格局進行了詳細分析，介紹了涵蓋整個價值鏈的公司概況，從感測器開發商和組件供應商到系統整合商，以及擁有整合這些設備基礎設施的領先航太、國防和工業公司。報告清晰闡述了調查方法、市場定義和研究範圍，包括納入和排除的項目及其排除原因。

目錄包括以下內容：

• 執行摘要- 主要發現、技術成熟度概述和主要結論
• 量子感測導論－量子態、疊加態和量子糾纏；量子感測器為何優於傳統測量儀器；基本常數和自校準
• 量子感測器技術－原子鐘；光激發磁力計、NV色心鑽石磁力計和超導量子乾涉元件（SQUID）磁力計；重力計和重力梯度計；量子陀螺儀和加速計；單光子和量子影像感測器；量子雷達和雷射雷達；里德伯格/射頻（PAR）感測器；量子增強光譜學
• 基準測試和效能－靈敏度、穩定性、尺寸、重量和功耗的比較；按應用領域分類的效能指標
• 技術成熟度和商業化－按感測器類型分類的TRL（試驗等級）、評估標準、上市時間和量產時程、製造障礙以及價格範圍閾值
• 量子感測組件及相關技術－雷射與垂直腔面發射雷射（VCSEL）、蒸氣池、合成鑽石、整合光電、低溫技術、控制電子設備和韌體；供應鏈挑戰
• 市場定義、範圍和調查方法－涵蓋和排除的價值鏈階段；一級和二級研究；訪談計畫；基準年估算。
• 市場分析與預測（2027-2047）－依感測器類型、出貨量、感測器價格範圍、最終用戶產業和應用領域分類
• 細分市場預測－針對每種感測器技術的詳細預測（包括按子細分市場分類的預測）
• 應用領域－導航與定位、導航與授時；醫學影像；國防與安全；科學研究與測量；資源探勘與環境監控；工業製程控制與無損檢測；授時、同步與通訊
• 市場促進因素、挑戰與採用障礙
• 政策、政府計畫和採購——國家量子戰略、國防計畫和領先的市場承諾。
• 投資趨勢－資金籌措活動、公共和私人財政（與市場收益分開報告）
• 藍圖- 技術發展、價格範圍變化和商業化隨時間推移的里程碑。
• 公司簡介 - 涵蓋整個價值鏈的 89 家公司。包括 Aegiq、Airbus、Aquark Technologies、Artilux、Atomionics、Beyond Blood Diagnostics、Bosch Quantum Sensing、BT、Cerca Magnetics、Chipiron、Chiral Nano AG、Covesion、Delta g、DeteQt、Diatope GmbH、Diffraqtion、Digistain、Delta g、DeteQt、Diatope GmbH、Diffraqtion、Digistain Sperm、Etail Quantum Technology、ID Quantique、Infleqtion、Ligentec、Mag4Health、Menlo Systems GmbH、Mesa Quantum、Miraex、Munich Quantum Instruments GmbH、NeoCrystech、Neuranics、NIQS Technology Ltd、Nomad Atomics、Nu Quantum、NVision. Technologies、PsiQuantum、Q.ANT、Qaisec、Q-CTRL、清源天智恆感測技術有限公司等。

目錄

第1章執行摘要

第2章：引言

• 什麼是量子感測？
• 量子感測器的類型
• 量子感測原理
• 量子現象
• 技術平台
• 量子感測技術及其應用
• 量子感測器的價值提案
• SWOT分析

第3章：量子感測元件

• 概述
• 特殊部件
• 蒸氣電池
• VCSEL
• 量子感測器的控制電子設備
• 整合光電和半導體技術
• 任務
• 藍圖

第4章：原子鐘

• 技術概述
• 市場
• 藍圖
• 高頻振盪器
• 新型原子鐘技術
• 光原子鐘
• 原子鐘小型化面臨的挑戰
• 公司
• SWOT分析
• 市場預測

第5章：量子磁場感測器

• 技術概述
• 市場機遇
• 表現
• 超導性量子乾涉裝置（SQUID）
• 光泵浦磁力計（OPM）
• 隧道磁阻感知器（TMR）
• 氮損耗中心（NV中心）
• 市場預測

第6章 量子重力計

• 技術概述
• 運行原理
• 目的
• 藍圖
• 公司
• 市場預測
• SWOT分析

第7章：量子陀螺儀

• 技術說明
• 目的
• 藍圖
• 公司
• 市場預測
• SWOT分析

第8章 量子影像感測器

• 技術概述
• 目的
• SWOT分析
• 市場預測
• 公司

第9章：量子雷達

• 技術概述
• 目的

第10章：量子化學感測器

• 技術概述
• 商業活動

第11章 利用糾纏光子進行光譜測量

• 技術概述
• 關鍵技術
• 市場規模和成長前景
• 主要公司和商業活動
• 成長的驅動力和挑戰
• 市場預測

第12章 量子射頻（RF）場感測器

• 概述
• 量子射頻感測器的類型
• 利用里德堡原子的電場感測器和無線接收器
• 基於氮空位中心鑽石的電場感測器和無線接收器
• 市場與應用
• 市場預測

第13章 量子奈米機電系統與微機電系統

• 技術概述
• 種類
• 目的
• 任務

第14章案例研究

• 量子感測器在醫學中的應用：疾病早期檢測
• 軍事應用：增強型導航系統
• 環境監測
• 金融領域：高頻交易
• 量子網際網路：一個安全的通訊網路

第15章 最終用途行業

• 醫學與生命科​​學
• 國防/軍事
• 環境監測
• 石油和天然氣
• 交通運輸和汽車
• 其他行業

第16章：公司簡介（87家公司簡介）

第17章附錄

第18章參考文獻

Quantum sensors exploit the fragility of quantum states - superposition, entanglement, and the exquisite sensitivity of atoms, photons and engineered defects to their environment - to measure physical quantities with a precision that classical instruments cannot approach. Because a quantum system's response is anchored to fundamental constants rather than to a manufactured reference, these devices offer measurements that are inherently accurate, drift-free and self-calibrating.

The field spans several distinct technology families. Quantum magnetometers - optically pumped, nitrogen-vacancy diamond and SQUID-based - detect magnetic fields weak enough to reveal neural activity or buried infrastructure. Atomic clocks provide timing stable enough to underpin navigation, telecommunications and financial networks. Cold-atom gravimeters and gravity gradiometers sense subsurface density variation without excavation. Quantum gyroscopes and accelerometers promise inertial navigation that does not drift when satellite signals are jammed, spoofed or simply unavailable. Single-photon detectors and quantum image sensors extend imaging into regimes of extreme low light. Rydberg-atom receivers sense radio-frequency fields across an enormous spectral range from a single aperture, while quantum radar and LiDAR, and quantum-enhanced spectroscopy, open further measurement modalities.

What unites these technologies commercially is not the physics but the engineering problem they share. Laboratory sensitivity has largely been demonstrated; the barrier to adoption is manufacturability. The decisive question is whether a device can be miniaturised, integrated onto a chip, fabricated using established semiconductor and photonic processes, and operated outside a controlled environment - without cryogenics, without a specialist to run it, and at a price the application can bear. Progress is therefore measured less in new records for sensitivity than in vapour cells produced at wafer scale, diamond substrates yielding consistent defects, photonic integration, and packaged systems that install in days rather than months.

Demand is currently led by defence and government, where resilient positioning, navigation and timing in GPS-denied environments, and electronic-warfare-resistant RF sensing, are treated as strategic capabilities. Healthcare follows, where magnetoencephalography and low-field magnetic resonance imaging offer diagnostic access without the cost and infrastructure of conventional systems. Industrial adoption is now emerging in earnest - semiconductor yield metrology, non-destructive testing, energy and power monitoring - and represents the point at which quantum sensing stops being a specialist instrument and becomes an embedded component.

The supply base reflects this transition: university spinouts and venture-backed startups developing the sensors themselves, established suppliers of the lasers, vapour cells, diamond and photonic components they depend on, and large aerospace, defence and industrial primes positioning to integrate them.

The Global Quantum Sensors Market 2027–2047 provides a comprehensive assessment of the sector across a twenty-year horizon. It sets out the underlying technologies and their comparative performance, assigns a technology readiness level to each sensor type with a documented basis for the assessment, and models the point at which each clears the specific manufacturing barrier standing between it and volume production. Market forecasts are built at the finished-sensor device level and presented by sensor type, by unit volume, by sensor price band, by end-use industry and by application area, with each view reconciling to a single revenue pool.

The report examines the drivers reshaping demand: the reorientation of government policy from research funding toward procurement and advance market commitments; the strategic priority now attached to navigation and timing that survives in GPS-denied and contested environments; the arrival of the first genuinely industrial applications in semiconductor metrology, non-destructive testing and energy optimisation; and the components and enabling technologies - lasers, vapour cells, synthetic diamond, integrated photonics, control electronics - on which the entire value chain depends.

It also maps the competitive landscape in detail, profiling companies across the value chain from sensor developers and component suppliers to systems integrators and the aerospace, defence and industrial primes positioning to embed these devices. Methodology, market definition and scope are stated explicitly, including what is counted, what is excluded, and why.

Contents include:

• Executive summary - key findings, technology readiness at a glance, principal conclusions
• Introduction to quantum sensing - quantum states, superposition, entanglement; why quantum sensors outperform classical instruments; fundamental constants and self-calibration
• Quantum sensor technologies - atomic clocks; optically pumped, NV-diamond and SQUID magnetometers; gravimeters and gravity gradiometers; quantum gyroscopes and accelerometers; single-photon and quantum image sensors; quantum radar and LiDAR; Rydberg/RF (PAR) sensors; quantum-enhanced spectroscopy
• Benchmarking and performance - comparative sensitivity, stability, size, weight, power; performance metrics by application domain
• Technology readiness and commercialisation - TRL by sensor type, basis of assessment, time-to-market and mass-production timing, manufacturing barriers, price-point thresholds
• Quantum sensing components and enabling technologies - lasers and VCSELs, vapour cells, synthetic diamond, integrated photonics, cryogenics, control electronics and firmware; supply-chain challenges
• Market definition, scope and methodology - value-chain stages included and excluded; primary and secondary research; interview programme; base-year estimation
• Market analysis and forecasts, 2027–2047 - by sensor type; by unit volume; by sensor price band; by end-use industry; by application area
• Segment forecasts - dedicated forecasts for each sensor technology, with sub-segment breakdowns
• Application areas - navigation and PNT; medical imaging and diagnostics; defence and security; scientific research and metrology; resource exploration and environmental monitoring; industrial process control and NDT; timing, synchronisation and communications
• Market drivers, challenges and barriers to adoption
• Policy, government programmes and procurement - national quantum strategies, defence programmes, advance market commitments
• Investment landscape - funding activity, public and private financing (reported separately from market revenue)
• Roadmaps - technology development, price-point evolution and commercial milestones by period
• Company profiles - 89 companies across the value chain. including Aegiq, Airbus, Aquark Technologies, Artilux, Atomionics, Beyond Blood Diagnostics, Bosch Quantum Sensing, BT, Cerca Magnetics, Chipiron, Chiral Nano AG, Covesion, Delta g, DeteQt, Diatope GmbH, Diffraqtion, Digistain, Element Six, Ephos, EuQlid, Exail Quantum Sensors, Genesis Quantum Technology, ID Quantique, Infleqtion, Ligentec, Mag4Health, Menlo Systems GmbH, Mesa Quantum, Miraex, Munich Quantum Instruments GmbH, NeoCrystech, Neuranics, NIQS Technology Ltd, Nomad Atomics, Nu Quantum, NVision, Phasor Innovation, Photon Force, Polariton Technologies, PsiQuantum, Q.ANT, Qaisec, Q-CTRL, Qingyuan Tianzhiheng Sensing Technology Co. Ltd and more.....

Table of Contents

1 EXECUTIVE SUMMARY

• 1.1 First and second quantum revolutions
• 1.2 Current quantum technology market landscape
  • 1.2.1 Key developments
• 1.3 Investment landscape
• 1.4 Global government initiatives
• 1.5 Industry developments 2024-2026
• 1.6 Market Drivers
• 1.7 Market and technology challenges
• 1.8 Technology trends and innovations
• 1.9 Market forecast and future outlook
  • 1.9.1 Short-term Outlook (2025-2027)
  • 1.9.2 Medium-term Outlook (2028-2031)
  • 1.9.3 Long-term Outlook (2032-2047)
• 1.10 Emerging applications and use cases
• 1.11 Quantum Navigation
• 1.12 Benchmarking of Quantum Sensor Technologies
• 1.13 Potential Disruptive Technologies
• 1.14 Market Map
• 1.15 Global market for quantum sensors
  • 1.15.1 By sensor type
  • 1.15.2 By volume
  • 1.15.3 By sensor price
  • 1.15.4 By end use industry
  • 1.15.5 By Application Area
• 1.16 Quantum Sensors Roadmapping
  • 1.16.1 Atomic clocks
  • 1.16.2 Quantum magnetometers
  • 1.16.3 Quantum gravimeters
  • 1.16.4 Inertial quantum sensors
  • 1.16.5 Quantum RF sensors
  • 1.16.6 Single photon detectors
• 1.17 International Standardization Landscape

2 INTRODUCTION

• 2.1 What is quantum sensing?
• 2.2 Types of quantum sensors
  • 2.2.1 Comparison between classical and quantum sensors
• 2.3 Quantum Sensing Principles
• 2.4 Quantum Phenomena
• 2.5 Technology Platforms
• 2.6 Quantum Sensing Technologies and Applications
• 2.7 Value proposition for quantum sensors
• 2.8 SWOT Analysis

3 QUANTUM SENSING COMPONENTS

• 3.1 Overview
• 3.2 Specialized components
• 3.3 Vapor cells
  • 3.3.1 Overview
  • 3.3.2 Manufacturing
  • 3.3.3 Alkali azides
  • 3.3.4 Companies
• 3.4 VCSELs
  • 3.4.1 Overview
  • 3.4.2 Quantum sensor miniaturization
  • 3.4.3 Companies
• 3.5 Control electronics for quantum sensors
• 3.6 Integrated photonic and semiconductor technologies
• 3.7 Challenges
• 3.8 Roadmap

4 ATOMIC CLOCKS

• 4.1 Technology Overview
  • 4.1.1 Hyperfine energy levels
  • 4.1.2 Self-calibration
• 4.2 Markets
• 4.3 Roadmap
• 4.4 High frequency oscillators
  • 4.4.1 Emerging oscillators
• 4.5 New atomic clock technologies
• 4.6 Optical atomic clocks
  • 4.6.1 Chip-scale optical clocks
  • 4.6.2 Rack-sized atomic clocks
• 4.7 Challenge in atomic clock miniaturization
• 4.8 Companies
• 4.9 SWOT analysis
• 4.10 Market forecasts
  • 4.10.1 Total market
  • 4.10.2 Bench/rack-scale atomic clocks
  • 4.10.3 Chip-scale atomic clocks

5 QUANTUM MAGNETIC FIELD SENSORS

• 5.1 Technology overview
  • 5.1.1 Measuring magnetic fields
  • 5.1.2 Sensitivity
  • 5.1.3 Motivation for use
• 5.2 Market opportunity
• 5.3 Performance
• 5.4 Superconducting Quantum Interference Devices (Squids)
  • 5.4.1 Introduction
  • 5.4.2 Operating principle
  • 5.4.3 Applications
  • 5.4.4 Companies
  • 5.4.5 SWOT analysis
• 5.5 Optically Pumped Magnetometers (OPMs)
  • 5.5.1 Introduction
  • 5.5.2 Operating principle
  • 5.5.3 Applications
    • 5.5.3.1 Miniaturization
    • 5.5.3.2 Navigation
  • 5.5.4 MEMS manufacturing
  • 5.5.5 Companies
  • 5.5.6 SWOT analysis
• 5.6 Tunneling Magneto Resistance Sensors (TMRs)
  • 5.6.1 Introduction
  • 5.6.2 Operating principle
  • 5.6.3 Applications
  • 5.6.4 Companies
  • 5.6.5 SWOT analysis
• 5.7 Nitrogen Vacancy Centers (N-V Centers)
  • 5.7.1 Introduction
  • 5.7.2 Operating principle
  • 5.7.3 Applications
  • 5.7.4 Synthetic diamonds
  • 5.7.5 Companies
  • 5.7.6 SWOT analysis
• 5.8 Market forecasts

6 QUANTUM GRAVIMETERS

• 6.1 Technology overview
• 6.2 Operating principle
• 6.3 Applications
  • 6.3.1 Commercial deployment
  • 6.3.2 Comparison with other technologies
• 6.4 Roadmap
• 6.5 Companies
• 6.6 Market forecasts
• 6.7 SWOT analysis

7 QUANTUM GYROSCOPES

• 7.1 Technology description
  • 7.1.1 Inertial Measurement Units (IMUs)
    • 7.1.1.1 Atomic quantum gyroscopes
    • 7.1.1.2 Quantum accelerometers
      • 7.1.1.2.1 Operating Principles
      • 7.1.1.2.2 Grating magneto-optical traps (MOTs)
      • 7.1.1.2.3 Applications
      • 7.1.1.2.4 Companies
• 7.2 Applications
• 7.3 Roadmap
• 7.4 Companies
• 7.5 Market forecasts
• 7.6 SWOT analysis

8 QUANTUM IMAGE SENSORS

• 8.1 Technology overview
  • 8.1.1 Single photon detectors
  • 8.1.2 Semiconductor single photon detectors
  • 8.1.3 Superconducting single photon detectors
• 8.2 Applications
  • 8.2.1 Single Photon Avalanche Diodes with Time-Correlated Single Photon Counting (TCSPC)
  • 8.2.2 Bioimaging
• 8.3 SWOT analysis
• 8.4 Market forecast
• 8.5 Companies

9 QUANTUM RADAR

• 9.1 Technology overview
  • 9.1.1 Quantum entanglement
  • 9.1.2 Ghost imaging
  • 9.1.3 Quantum holography
• 9.2 Applications
  • 9.2.1 Cancer detection
  • 9.2.2 Glucose Monitoring

10 QUANTUM CHEMICAL SENSORS

• 10.1 Technology overview
• 10.2 Commercial activities

11 SPECTROSCOPIC MEASUREMENT USING ENTANGLED PHOTONS

• 11.1 Technology overview
• 11.2 Key techniques
• 11.3 Market size and growth outlook
• 11.4 Key companies and commercial activities
• 11.5 Growth drivers and challenges
• 11.6 Market forecast

12 QUANTUM RADIO FREQUENCY (RF) FIELD SENSORS

• 12.1 Overview
• 12.2 Types of Quantum RF Sensors
• 12.3 Rydberg Atom Based Electric Field Sensors and Radio Receivers
  • 12.3.1 Principles
  • 12.3.2 Commercialization
• 12.4 Nitrogen-Vacancy Centre Diamond Electric Field Sensors and Radio Receivers
  • 12.4.1 Principles
  • 12.4.2 Applications
• 12.5 Market and applications
• 12.6 Market forecast

13 QUANTUM NEMS AND MEMS

• 13.1 Technology overview
• 13.2 Types
• 13.3 Applications
• 13.4 Challenges

14 CASE STUDIES

• 14.1 Quantum Sensors in Healthcare: Early Disease Detection
• 14.2 Military Applications: Enhanced Navigation Systems
• 14.3 Environmental Monitoring
• 14.4 Financial Sector: High-Frequency Trading
• 14.5 Quantum Internet: Secure Communication Networks

15 END-USE INDUSTRIES

• 15.1 Healthcare and Life Sciences
  • 15.1.1 Medical Imaging
  • 15.1.2 Drug Discovery
  • 15.1.3 Biosensing
• 15.2 Defence and Military
  • 15.2.1 Navigation Systems
  • 15.2.2 Underwater Detection
  • 15.2.3 Communication Systems
• 15.3 Environmental Monitoring
  • 15.3.1 Climate Change Research
  • 15.3.2 Geological Surveys
  • 15.3.3 Natural Disaster Prediction
  • 15.3.4 Other Applications
• 15.4 Oil and Gas
  • 15.4.1 Exploration and Surveying
  • 15.4.2 Pipeline Monitoring
  • 15.4.3 Other Applications
• 15.5 Transportation and Automotive
  • 15.5.1 Autonomous Vehicles
  • 15.5.2 Aerospace Navigation
  • 15.5.3 Other Applications
• 15.6 Other Industries
  • 15.6.1 Finance and Banking
  • 15.6.2 Agriculture
  • 15.6.3 Construction
  • 15.6.4 Mining

16 COMPANY PROFILES (87 company profiles)

17 APPENDICES

• 17.1 Research Methodology
• 17.2 Glossary of Terms
• 17.3 List of Abbreviations

18 REFERENCES

List of Tables

• Table 1. First and second quantum revolutions.
• Table 2. Quantum Sensing Technologies and Applications.
• Table 3. Quantum Technology investments 2012-2025 (millions USD), total.
• Table 4. Major Quantum Technologies Investments 2024-2025.
• Table 5. Global government initiatives in quantum technologies.
• Table 6. Quantum Sensor industry developments 2024-2026.
• Table 7. Market Drivers for Quantum Sensors.
• Table 8. Market and technology challenges in quantum sensing.
• Table 9. Technology Trends and Innovations in Quantum Sensors.
• Table 10. Emerging Applications and Use Cases
• Table 11. Benchmarking of Quantum Sensing Technologies by Type.
• Table 12. Performance Metrics by Application Domain.
• Table 13. Technology Readiness Levels (TRL) and Commercialization Status
• Table 14. Comparative Performance Metrics.
• Table 15.Current Research and Development Focus Areas
• Table 16. Potential Disruptive Technologies.
• Table 17. Global market for quantum sensors, by types, 2018-2047 (Millions USD).
• Table 18. Global market for quantum sensors, by volume (Units), 2018-2047.
• Table 19. Global market for quantum sensors, by sensor price, 2025-2047 (Units).
• Table 20. Global market for quantum sensors, by end use industry, 2018-2047 (Millions USD).
• Table 21. Global market for quantum sensors, by application area, 2026–2047 (Millions USD).
• Table 22.Types of Quantum Sensors
• Table 23. Comparison between classical and quantum sensors.
• Table 24. Applications in quantum sensors.
• Table 25. Technology approaches for enabling quantum sensing
• Table 26. Key technology platforms for quantum sensing.
• Table 27. Quantum sensing technologies and applications.
• Table 28. Value proposition for quantum sensors.
• Table 29. Components for quantum sensing.
• Table 30. Specialized components for atomic and diamond-based quantum sensing.
• Table 31. Companies in Chip-Scale Vapor Cell Development.
• Table 32. Companies in VCSELs for Quantum Sensing.
• Table 33. Challenges for Quantum Sensor Components.
• Table 34. Key challenges and limitations of quartz crystal clocks vs. atomic clocks.
• Table 35. Atomic clocks End users and addressable markets.
• Table 36. Key Market Inflection Points and Technology Transitions.
• Table 37. New modalities being researched to improve the fractional uncertainty of atomic clocks.
• Table 38. Companies developing high-precision quantum time measurement
• Table 39. Key players in atomic clocks.
• Table 40. Global market for atomic clocks 2025-2047 (Billions USD).
• Table 41. Global market for Bench/rack-scale atomic clocks, 2026-2047 (Millions USD).
• Table 42. Global market for Chip-scale atomic clocks, 2026-2047 (Millions USD).
• Table 43. Comparative analysis of key performance parameters and metrics of magnetic field sensors.
• Table 44. Types of magnetic field sensors.
• Table 45. Market opportunity for different types of quantum magnetic field sensors.
• Table 46. Performance of magnetic field sensors.
• Table 47. Applications of SQUIDs.
• Table 48. Market opportunities for SQUIDs (Superconducting Quantum Interference Devices).
• Table 49. Key players in SQUIDs.
• Table 50. Applications of optically pumped magnetometers (OPMs).
• Table 51. MEMS Manufacturing Techniques for Miniaturized OPMs.
• Table 52. Key players in Optically Pumped Magnetometers (OPMs).
• Table 53. Applications for TMR (Tunneling Magnetoresistance) sensors.
• Table 54. Market players in TMR (Tunneling Magnetoresistance) sensors.
• Table 55. Applications of N-V center magnetic field centers
• Table 56. Quantum Grade Diamond.
• Table 57. Synthetic Diamond Value Chain for Quantum Sensing.
• Table 58. Key players in N-V center magnetic field sensors.
• Table 59. Global market forecasts for quantum magnetic field sensors, by type, 2025-2047 (Millions USD).
• Table 60. Applications of quantum gravimeters
• Table 61. Comparative table between quantum gravity sensing and some other technologies commonly used for underground mapping.
• Table 62. Key players in quantum gravimeters.
• Table 63. Global market for Quantum gravimeters 2025-2047 (Millions USD).
• Table 64. Comparison of quantum gyroscopes with MEMs gyroscopes and optical gyroscopes.
• Table 65. Comparison of Quantum Gyroscopes with MEMS Gyroscopes and Optical Gyroscopes.
• Table 66. Key Players in Quantum Accelerometers.
• Table 67. Markets and applications for quantum gyroscopes.
• Table 68. Key players in quantum gyroscopes.
• Table 69. Global market for for quantum gyroscopes and accelerometers 2026-2047 (millions USD).
• Table 70. Types of quantum image sensors and their key features.
• Table 71. Applications of quantum image sensors.
• Table 72. SPAD Bioimaging Applications.
• Table 73. Global market for quantum image sensors 2025-2047 (Millions USD).
• Table 74. Key players in quantum image sensors.
• Table 75. Comparison of quantum radar versus conventional radar and lidar technologies.
• Table 76. Applications of quantum radar.
• Table 77. Key spectroscopic techniques using entangled photons and their applications.
• Table 78. Related market segments and their relevance to spectroscopic measurement using entangled photons
• Table 79. Estimated market size for spectroscopic measurement using entangled photons, 2025–2036 (USD Millions)
• Table 80. Value Proposition of Quantum RF Sensors
• Table 81. Types of Quantum RF Sensors
• Table 82. Markets for Quantum RF Sensors
• Table 83. Technology Transition Milestones.
• Table 84. Application-Specific Adoption Timeline
• Table 85. Global market for quantum RF sensors 2026-2047 (Millions USD).
• Table 86.Types of Quantum NEMS and MEMS.
• Table 87. Quantum Sensors in Healthcare and Life Sciences.
• Table 88. Quantum Sensors in Defence and Military
• Table 89. Quantum Sensors in Environmental Monitoring
• Table 90. Quantum Sensors in Oil and Gas
• Table 91. Quantum Sensors in Transportation.
• Table 92.Glossary of terms.
• Table 93. List of Abbreviations.

List of Figures

• List of Figures
• Figure 1. Quantum computing development timeline.
• Figure 2. Quantum Technology investments 2012-2025 (millions USD), total.
• Figure 3. National quantum initiatives and funding.
• Figure 4. Quantum Sensors: Market and Technology Roadmap to 2040.
• Figure 5. Quantum sensor industry market map.
• Figure 7. Global market for quantum sensors, by volume, 2018-2047.
• Figure 8. Global market for quantum sensors, by sensor price, 2025-2047 (Units).
• Figure 9. Global market for quantum sensors, by end use industry, 2018-2047 (Millions USD).
• Figure 10. Atomic clocks roadmap.
• Figure 11. Quantum magnetometers roadmap.
• Figure 12. Quantum gravimeters roadmap.
• Figure 13. Inertial quantum sensors roadmap.
• Figure 14. Quantum RF sensors roadmap.
• Figure 15. Single photon detectors roadmap.
• Figure 16. Q.ANT quantum particle sensor.
• Figure 17. SWOT analysis for quantum sensors market.
• Figure 18. Roadmap for quantum sensing components and their applications.
• Figure 19. Atomic clocks market roadmap.
• Figure 20. Strontium lattice optical clock.
• Figure 21. NIST's compact optical clock.
• Figure 22. SWOT analysis for atomic clocks.
• Figure 23. Global market for atomic clocks 2025-2047 (Billions USD).
• Figure 24. Global market for Bench/rack-scale atomic clocks, 2026-2047 (Millions USD).
• Figure 25. Global market for Chip-scale atomic clocks, 2026-2047 (Millions USD).
• Figure 26. Quantum Magnetometers Market Roadmap.
• Figure 27.Principle of SQUID magnetometer.
• Figure 28. SWOT analysis for SQUIDS.
• Figure 29. SWOT analysis for OPMs
• Figure 30. Tunneling magnetoresistance mechanism and TMR ratio formats.
• Figure 31. SWOT analysis for TMR (Tunneling Magnetoresistance) sensors.
• Figure 32. SWOT analysis for N-V Center Magnetic Field Sensors.
• Figure 34. Quantum Gravimeter.
• Figure 35. Quantum gravimeters Market roadmap.
• Figure 36. Global market for Quantum gravimeters 2025-2047 (Millions USD).
• Figure 37. SWOT analysis for Quantum Gravimeters.
• Figure 38. Inertial Quantum Sensors Market roadmap.
• Figure 39. Global market for quantum gyroscopes and accelerometers 2026-2047 (millions USD).
• Figure 40. SWOT analysis for Quantum Gyroscopes.
• Figure 41. SWOT analysis for Quantum image sensing.
• Figure 42. Global market for quantum image sensors 2025-2047 (Millions USD).
• Figure 43. Principle of quantum radar.
• Figure 44. Illustration of a quantum radar prototype.
• Figure 45. Quantum RF Sensors Market Roadmap (2023-2047).
• Figure 46. Global market for quantum RF sensors 2026-2047 (Millions USD).
• Figure 47. ColdQuanta Quantum Core (left), Physics Station (middle) and the atoms control chip (right).
• Figure 48. PsiQuantum’s modularized quantum computing system networks.
• Figure 49. Quantum Brilliance device
• Figure 50. SpinMagIC quantum sensor.