Quantum Sensor Market Size, Share, Growth, Report 2025 to 2034

Quantum Sensor Market Size and Growth 2025 to 2034

The global quantum sensor market size was valued at USD 420.32 million in 2024 and is expected to be worth around USD 1,907.46 million by 2034, growing at a compound annual growth rate (CAGR) of 16.32% over the forecast period from 2025 to 2034.

The demand of ultra-sensitive detection technologies is rapidly increasing in healthcare, automotive, defense, and environmental sectors which is propelling the growth of the quantum sensor market. Adoption of technologies such as in GPS-denied environments, MRI, and precision agriculture are enabling further innovation and adoption. Through quantum technologies, the next generation sensors can achieve unprecedented levels of sensitivity, accuracy, and miniaturization. Furthermore, Advanced quantum computers, atomic clocks, and cryogenic cooling systems are improving the performance of the sensors and their practical applications. Acceleration of the market growth is the outcome of government funding, joint ventures between academia and industry, and increased efforts towards commercialization. Strategic partnerships, prototype scalability, and R&D are the main foci of the key players. Therefore, industries are set to be transformed with high precision agus quantum enabled solutions and as a result, the quantum sensors market is evolving.

Quantum Sensor Market Report Highlights

• By Region, North America has accounted highest revenue share of around 36.5% in 2024.
• By Type, the atomic clocks segment has recorded a revenue share of around 40.01% in 2024. Atomic clocks lead due to their critical role in aerospace, navigation, and telecom precision timing.
• By Platform, the neutral atoms segment has recorded a revenue share of around 36.5% in 2024. Neutral atoms dominate due to their application in ultraprecise gravimeters and timing devices.
• By End Use, the aerospace & defense segment has recorded revenue share of around 37.5% in 2024. Aerospace & defense leads as it is backed by strong adoption of GPS-free navigation and surveillance sensors.
• By Application, the precision measurement segment has recorded revenue share of around 36.01% in 2024. Precision measurement dominates as it underpins applications in metrology, defense, and infrastructure.

Quantum Sensor Market Growth Factors

• Increasing Interest in Healthcare: The ultra-sensitive detection capabilities of quantum sensors make them invaluable in the healthcare sector. Their integration in low-field MRI and brain mapping diagnostics is a testament to this. The National Science Foundation of the USA will fund $0.029 billion for quantum medical sensors in June of 2024. Shortly before, UC London was advancing diamond-based quantum sensors for early disease detection. These efforts showcase the rising diagnostic investment in non-invasive procedures. Growing healthcare systems focusing on precise early detection and diagnostic services is increasing the need for quantum sensors. The trends are highly likely to continue past 2025.
• Demand Driven by Industrial Automation: Real-time feedback for quality control, calibration, and predictive maintenance can be facilitated through quantum sensors. Their sensitivity also increases precision in mechanical and electromagnetic processes in manufacturing. In March 2025, the US Defense Innovation Unit is set to begin field tests of quantum gravimeters and magnetometers in industrial settings. These tests are meant to determine if these devices are rugged enough for factory use. Some early use is noted in automotive and aerospace captive use installations. These changes indicate responsiveness to shifts toward the use of precision technologies. The increased complexity of manufacturing systems is driving the adoption further.
• Environmental Monitoring Growth: Application of quantum sensors is now possible for the monitoring of geo-subsurface water, seismic and other anomalous activities with unprecedented precision. Some critical applications in geomagnetism and gravimetric monitoring give precise information for disaster forecasting. The Uk government funded approximately $12 million for development in quantum technologies for environmental monitoring in July 2024. These sensors are undergoing trials for precise detection of gas leaks and underground infrastructure. Urban planners together with environmental agencies are employing these sensors in building tools to bolster climate resilience. Demand for such systems remains persistent. The importance of this measure is extreme due to increasing danger to biodiversity.

Quantum Sensor Market Trends

• AI Integration: The intricate data flows produced by quantum sensors require real-time artificial intelligence interpretation. AI techniques enhance the measurement quantum’s signal-to-noise ratio. SandboxAQ announced AQNav—an AI-embedded quantum sensor for quantum GPS-free navigation—on January 2025. It is already undergoing trial for military exercises. The convergence of AI and quantum sensing is a developing frontier of tremendous importance. It enhances resilience for usability in swiftly changing and noisy environments. This integration relaxes already stringent requirements for next-generation sensing platforms.
• From Laboratory to Field: The academic focus on cold atom sensors is shifting towards commercialization. The devices yield precise measurements critical to navigation and many other geospatial applications. Australia’s DSTG tested cold atom clocks for real-time navigation during naval ship exercises in April 2024. The Humewood Marshals cold atom systems pysically demonstrated a significant milestone by demonstrating excellent performance in harsh marine environments. Other companies are aggressively pursuing their miniaturization for wider deployment and so far, results suitably optimistic results.
• Application in Self-Driving Cars: Autonomous systems frequently function in areas where GPS all but inertial sensors are critical. Quantum inertial sensors provide a level of accuracy for either orientation and positioning independently. In March 2025 Lockheed Martin was awarded a contract by the US military for development of QuINS which is a quantum inertial navigation prototype. The system is intended for integration into drones and submarines. This indicates growing focus in autonomy without the aid of GPS. Quantum sensors are poised to become increasingly prevalent as vehicle autonomy advances. These technologies are already being tested by the automotive and defense sectors.

Report Scope

Quantum Sensor Market Dynamics

Market Drivers

• The Need for Advanced Inertial Systems: The aerospace and defense sectors keenly appreciate the advantages offered by quantum inertial systems due to the risks of jamming, spoofing, and signal loss associated with satellite-based navigation systems. In December 2024, DARPA launched a new flagship program that aims to create field-deployable quantum sensors for use in navigation in contested environments for regionally-denied GPS infrastructure zones. These sensors operate using fully autonomous GPS-denied systems. Allied countries’ parallel efforts support the strategic importance of these technologies. As geopolitical conflicts intensify, the need for dependable tracking and navigation systems becomes more critical.  There is a sea change in defense spending rationale towards achieving greater strategic independence in the use of navigational satellites.
• Advancements in Laser Technology and Photonics: Laser cooling, photonic integration, and even nanofabrication are shrinking the overall size and costs of quantum sensors. The February 2024 presentation by Sandia Labs featuring a chip scale quantum compass manufactured by Sandia using integrated photonics denotes progress towards room temperature operation photonic quantum sensors which can shed cryogenic cooling requirements. This particular sensor showcases compact photonic sensors' potential, easing their integration across various fields. The ability to miniaturize quantum sensors further accelerates their widespread availability.
• Remote sensing needs: The mining and energy sectors, alongside environmental organizations, require high-precision subsurface mapping. Quantum gravimeters and precision remote sensing magnetometers fulfill these requirements. Since March 2025, DIU has been testing quantum sensors for comprehensive terrain profiling across various geomorphological settings, including deserts, forests, and urban areas. These findings will guide the stepwise implementation of commercial sensing systems. Remote sensing is now more important than ever, particularly for the purposes of data-driven exploration. Quantum sensors offer a sharper picture of the phenomena under observation and enable deeper analysis.

Market Restraints

• Long Approval Cycles in Healthcare: Quantum-based diagnostic tools face extended clinical trials and regulatory hurdles. Their path to hospital adoption is obstructed by stringent safety standards. In June 2024, quantum MRI prototypes received grants but remained in early clinical phases. None progressed to full regulatory approval. This stagnation increases time-to-market significantly. The suspension of quantum technology adoption stems from a provider skepticism and the technologies remaining unproven. There is still a persistent regulatory bottleneck which, even in the face of rapid innovation, remains one of the most constraining factors to widespread adoption.
• Market Fragmentation: The gap in technologies and players hinders collaboration and interoperability as well as prevents more scaled efforts in the quantum sensor space industry. In July 2024, UK established quantum hubs aimed at bridging the gaps between the industry and the academic worlds, thus fostering collaborations designed. However, the wide variety of sensor modalities keeps these silos intact. The lack of universal standards impedes integration into greater systems. Cross-platform systems still face challenges with interoperability. There is a need for consolidation among participants to remove fragmentation which is stifling the industry’s momentum.
• Fragmented Research Landscape: The lack of organization diminishes efficiency as the development of quantum sensors occurs across numerous global institutions. This duplication propulsion technological progression. Starting in February 2025, Canada introduced its National Quantum Strategy roadmap which aims to unify quantum research objectives. The aim of the initiative is to combine the educational, industrial, and governmental systems. The goal is to reduce redundancy and enhance the productivity of innovations. Other countries should adopt similar models. Such collaboration is essential in preventing standstill in commercialization. The lack of a cohesive system hinders scalable growth.

Market Opportunities

• Defense Navigation Systems: Quantum gyroscopes and accelerometers assist stealth submarines and aircraft in navigating through areas where GPS signals are unavailable. In April 2024, Australia's Defence Science and Technology Group (DSTG) tested quantum inertial sensors on naval vessels during conflict-simulation exercises. The sensors sustained accuracy in the absence of satellite signals. After successful trials, multiple countries’ defense departments intend to procure them. There are ongoing negotiations for these sensors, emphasizing significant acceleration in defense sector investment. This establishes a fundamental milestone in the adoption of quantum navigation systems.
• Industrial Quality Control: Quantum sensors offer the capability to detect and monitor structural changes in high-value manufacturing processes at earlier stages. They enhance the accuracy of predictive maintenance and improve product reliability across the board. In March 2025, DIU conducted tests on quantum magnetometers with aerospace components to detect concealed hidden defects. These tests otange subtle imperfections that, if left addressed, might result in significant failures. Consequently, these magnetometers are being piloted as part of production Q.A. processes. This is highly advantageous for suppliers of sensor technology. A sharp increase in industrial adoption is anticipated.
• Plasma Diagnostics and Electromagnetic Field Measurements: Meeting the operational safety and sustaining criteria for fusion reactors require accurate diagnostics of the plasma and instruments to monitor the electromagnetic fields. In this regard, quantum sensors are ideal. Starting January 2025, ITER and partnering labs started implementing quantum-based diagnostic systems for plasma confinement. These sensors promise to resolve more accurately than traditional instruments. Although still experimental, this work marks a decisive turn. As fusion platforms are scaled up, the need for quantum diagnostics will grow. This area offers a sustained frontier of expansion.

Market Challenges

• Limitations of Cooling Technology: The majority of quantum sensors operate under cryogenic or ultra-cold conditions, which are both space and energy costly. This limits portability as well as “field” deployment. In December 2024, DARPA started a program to develop quantum sensors with more compact and less energy-demanding cooling systems, targeting functional cryogenic prototypes nearer to room temperature. Even earlier prototypes are overpriced and oversized. Solving the cooling problems is essential for more extensive outdoor use. Until then, operation in mobile or rugged environments is heavily constrained. The ability to cool remains among the harshest technological challenges.
• Legacy Industry Slow Adoption: New quantum sensors struggle to find adoption in legacy industries due to their sidebar integration and unclear cost-value proposition. These sectors do not find quantum systems easy to adapt to existing processes. Utility companies, for instance, tested quantum gravity sensors for mapping but halted large-scale investment due to infrastructure adaptation costs. Industries need multi-year observational studies with conclusive outcomes and fixed templates to center operational standards around. The lack of a conclusive return on investment continues to decelerate advancement. Completing the shift to quantum-powered operation remains elusive.
• Dispersed and Duplicative Research: Problematic duplication and inefficiency characterize the poorly coordinated, globally dispersed quantum sensing R&D ecosystem. Canada's quantum roadmap released in February 2025 pointed out the lack of aligned timelines and shared infrastructure straddling multiple sectors. Realization of integrated research frameworks could drive rapid progress; however, collaboration remains minimal. Competing national interests impede interstate border technology initiatives. In the absence of harmonization, worldwide monetization lags. Critical work remains to be done to address the lack of integration within the field.

Quantum Sensor Market Segmental Analysis

Type Analysis

Atomic clocks: The atomic clocks segment has generated highest revenue share. The frequency of atomic transition makes atomic clocks important for advanced navigation and communications systems which require time precision down to nanoseconds. NIST is leading a consortium which in May 2023 announced the development of portable chip-scale atomic clocks which can be used in time sensitive field operations away from the lab. During validation, the prototype performed similarly to the laboratory systems in stability. Adoption is likely in the defense, telecommunications, and autonomous industries. Commercialization is expected in about two years.

Magnetometers: Exceptional sensitivity to magnetic fields enable their use in navigation, medical imaging, and exploration geophysics. In many applications, these sensors are capable of discerning changes that go undetected by other sensors. In October 2024, a quantum-enhanced magnetometer was tested on a diamond-hot-air-balloon for geological survey aircraft and was able to detect magnetic anomalies with unprecedented resolution. This will significantly improve the accuracy of data and thus bolster mineral exploration, infrastructure mapping, resource evaluation using quantum airborne surveys, and geophysical surveys. Industry experts believe enhanced adoption in resource mapping will enable widespread environmental monitoring.

Gyroscopes: Quantum gyroscopes use interference patterns both to measure and to quantify rotational motion, and, unlike classical GPS systems, provide drift-free orientation information. They are best suited for inertial navigation in the absence of GPS signals. In March 2025, Lockheed Martin performed drone flights using gyroscopes with QuINS quantum inertial navigation systems, confirming functionality. During extensive flights, the device maintained remarkable orientation accuracy. This milestone indicates more work can now be done toward true practical testing. The breakthroughs will enable further advances to be made for submarines and self-driving cars. Partners are currently setting schedules for possible commercial timelines.

Acoustic sensors: Acoustic quantum sensors can be used for materials characterization, monitoring phenomena below the water's surface, and observing the health of the structures due to their capability of detecting ultrasonic waves and other pressure variations. Research laboratories introduced a new diamond-based acoustic sensor in August 2022, which is capable of detecting fractures much earlier than they can be detected with existing methods. Its ability to detect micro-fractures months prior to ultrasound detection is unprecedented. Civil infrastructure testing has begun, and there is a rising demand for the technology in industrial preventative maintenance. Its adoption is anticipated shortly.

Platform Analysis

Neutral atoms: The neutral atoms segment has captured highest revenue share. In certain areas of measurement science, including gravimetry, laser-cooled and arrested neutral atoms are utilized for timekeeping and gravity measurement. These systems achieve exceptionally high accuracy due to the coherent atomic states. A startup I am aware of commenced in April 2024 with a groundwater detecting field-portable gravity sensor using interferometry on neutral atoms. Early testing revealed the system performed with centimeter-level resolution for detection. Pilot projects were subsequently initiated with agricultural agencies. This has potential to advance portable environmental sensor systems.

Nuclear magnetic resonance: NMR quantum sensors are used for chemical analysis, medical diagnosis, and material assessment through non-destructive high contrast and NMR-based atomic nuclei resonance sensing. It is possible to implement non-destructive, high-contrast, and high precision sensing with NMR. In November 2023, a spin-off company launched an NMR quantum sensor designed for real-time soil nutrient analysis and enabled on-the-site measurement of nitrogen and phosphorus content for farmers. Early field tests performed in Europe indicated a 5–10% improvement in yields. It is anticipated that the product will soon be embraced by Agri-Tech companies, enabling more sustainable agricultural practices.

Optomechanics: Light interacting with a mechanical system enables the detection of displacements, forces, and accelerations at quantum limits using an optomechanical sensor. The sensitivity of these sensors includes measurement of vibrations and in precision metrology. In January 2025, a research group created an optomechanical accelerometer for seismic monitoring which has a resolution of nano-g. This new device is a tenfold improvement over standard accelerometers. Currently, the device undergoes testing in earthquake-prone regions for early warning system applications while commercial partners conduct preliminary tests. This marks a major achievement in the evolution of quantum-enhanced optomechanical devices.

End User Analysis

Aerospace & defense: The aerospace & defense segment held dominant position in the market. Quantum sensors in aerospace and defense include inertial navigation, gravimetry, and threat detection systems. They bolster precision and security in hostile or GPS-denied zones. In December 2024, DARPA awarded multiple contracts for demonstrator systems combining quantum gravimeters and inertial sensors for missile tracking. These systems are created with no dependency on satellites. This progresses further the development of defense sensing infrastructures. Prototypes that can be easily scaled are being constructed actively by industry stakeholders. This is expected to speed up the deployment of next-generation systems.

Agriculture & environment: Quantum sensors have widespread applications in monitoring soil moisture, groundwater, and other subsurface anomalies in precision farming which aids in optimizing resource allocation. Such sensors are useful in precision agri-environmental activities. In July 2024, portable quantum gravimeters were used by a governmental laboratory to track irrigation leakage and groundwater depletion. The results improved water-use planning in arid regions. Demand for pilot projects has now been requested by farmers and regulators. This marks a shift towards data-driven ecological conservation. Greater adoption in other regions is anticipated.

Oil & gas: Through advanced classical techniques, precision subsurface mapping, reservoir monitoring, and leak detection are offered to the oil and gas sectors through quantum sensors. Utilization of such sensors enables companies to address operational issues of sustainability, achieving equilibrium between profit-driven extraction and harm to the environment. In February 2023, one energy company utilized quantum gravimeters for offshore reservoir delineation and noticed subtle density changes that were previously overlooked. Now, the deep-water fields are being added to the test. Investors are closely monitoring the commercialization potential. Interest in quantum-based surveys is increasing in the industry.

Automation: In the field of industrial automation, quantum sensors enhance precision of robotics and predictive maintenance as well as quality control by monitoring minute mechanical or magnetic fluctuations. In March 2025, pilot programs utilizing quantum magnetometers to uncover concealed weld imperfections on automotive production lines surfaced. The systems were capable of identifying flaws prior to the emergence of visible issues. Manufacturers are scaling up trials on the plant floor. This marks an advancement toward automated quality assurance. Full implementation is expected in two years. 

Others: This spans across healthcare diagnostics, subsurface imaging and surveying in mining, and even telecommunications, all of which make use of quantum sensors for imaging, subsurface surveying, and precision timing. One of the telecom operators tested a portable quantum clock intended for synchronizing 5G base stations in August 2023. The clock achieved its goals as it outperformed fiber-based timing systems. Initial testing in metropolitan areas is showing good promise. Now, the operator is implementing a broader network test. This expands the use cases for quantum sensors even more.

Application Analysis

Environmental monitoring: Quantum sensors can monitor water levels, magnetic and seismic activities for better resource management regarding climate change. Their long duration precision measurements without drift calibration are unrivaled. In July 2024, national parks received quantum magnetic and gravity sensors for real-time monitoring of gas seepage and other geological processes during in-park geological remote sensing. Advanced notice systems for park managers have been implemented, allowing advanced warnings of some geological shifts. The program is expanding to other protected regions now. More governments have shown interest for such systems. From gas seepage monitoring to conservation, the possibilities are numerous. The sensors are applicable in disaster mitigation as well as conservation.

Quantum Sensor Market Revenue Share, By Application, 2024 (%)

Medical imaging: New applications of quantum magnetoencephalography and low field MRI through quantum imaging offer improved sensitivity for advanced diagnostics. It holds promises for imaging at a lower size and cost. A biotech company issued a quantum sensor module for brain imaging MRI to be performed under portable settings and neurological assessments in the field were made possible. Preliminary clinical tests during stroke diagnosis have shown enhanced signal clarity which is attributed to the technology. Imaging and remote diagnostics are offered by some diagnostic centers now utilizing the technology. A paradigm shift in portable imaging is anticipated. More widespread use is anticipated for 2025.

Precision measurement: The precision measurement segment has accounted for highest revenue share. Applications of precision measurements are found in gravimetry, accelerometry, as well as timing tasks performed at a quantum level. These are important in industrial metrology, mapping, and calibration. A national metrology institute benchmarked a quantum gravimeter for calibrating classical sensors with a gapotian approach in February 2024. This complements data from other laboratories. Industry is now aligning measurement protocols using classical sensors, which marks a major milestone towards advancing global alignment for defining consistency and traceability. Widespread adoption is expected soon.

LiDAR: In photon counting based quantum LiDAR stealth imaging and low signature scans, power consumption and sensitivity are improved. Last year, a quantum LiDAR prototype was reported with record range performance by a startup. The device autonomously tracked and detected ranging obstackles. Autonomous vehicle companies began urban pilot tests. The new range performance has been demonstrated in limited visibility conditions, with the potential for further testing outside.

Quantum Sensor Market Regional Analysis

The quantum sensor market is segmented into several key regions: North America, Europe, Asia-Pacific, and LAMEA (Latin America, Middle East, and Africa). Here’s an in-depth look at each region.

Why is North America the leading region in the quantum sensor market?

• The North America quantum sensor market size was valued at USD 153.42 million in 2024 and is expected to reach around USD 696.22 million by 2034.

North America is the leading region due to having well-established R&D facilities, significant defense spending, and adoption in aerospace, healthcare, and industrial automation. The United States is still the leader, with Canada following, and with Mexico growing academic participation. In June 2023, the U.S. DOD obligated about $0.07 billion USD towards quantum sensor GPS-denied navigation and surveillance system enhancements. Canada was working on magnetometer commercialization for geological surveying. Mexico is increasing funding for academics in quantum technologies and their applications. North America is projected to persist as a center of strategy and commercial thrust for quantum technologies.

Why is the European region receiving so much attention in the quantum sensor market?

• The Europe quantum sensor market size was estimated at USD 136.18 million in 2024 and is projected to hit around USD 618.02 million by 2034.

Europe region is receiving much attention, driven by EU policies complemented with industrial demand, and strong national programs from Germany, the UK, and France. Environmental and defense monitoring as well as autonomous mobility feature the technologies. In November 2022, the UK government committed over $0.13 billion USD to its National Quantum Technologies Programme, which includes sensors for agriculture and aerospace. Germany's Fraunhofer Institute started testing tunnel detection sensors and France launched a dedicated quantum navigation center. Russo-Italian and Dutch collaborations are working on environmental and atomic clock sensors. Europe is fiercely competitive in innovation due to cross-border cooperations.

Why is the Asia-Pacific region expanding rapidly in quantum sensor market?

• The Asia-Pacific quantum sensor market size was accounted for USD 97.93 million in 2024 and is forecasted to grow around USD 444.44 million by 2034.

China, Japan, and India are expanding their government spending initiatives, commercialization policies, and cross-sector research, making the Asia-Pacific Region one of the most advanced in the world concerning quantum sensors. China is the largest sensor user, supporting Japan and India's military and agricultural quantum investments. With its $0.09 billion USD funding of metro infrastructure projects using quantum gravimeters in February 2024, China continues to prioritize infrastructure spending. India started a national quantum accelerator program in 2023, while Japan conducted military test flights using magnetometers. South Korea and Australia are researching naval and automation factory applications. The region is poised in the long term.

Quantum Sensor Market Revenue Share, By Region, 2024 (%)

What are the driving factors of LAMEA region in quantum sensor market?

• The LAMEA quantum sensor market size was valued at USD 32.78 million in 2024 and is anticipated to surpass around USD 148.78 million by 2034.

Research in energy, navigation, and the environment places LAMEA at the forefront of quantum sensor innovation. Early adopters and capacity builders include Brazil, UAE, and South Africa. Offshore oil deposit mapping using magnetometers is being funded by 0.012 billion usd by Brazil's national laboratory. In 2024, the UAE pledged 0.015 billion usd towards construction of a quantum sensor lab aimed at autonomous systems and defense, expanding previous commitments. South Africa is increasing pilot and academic frameworks in quantum gravimetry. Although the region is still emerging, it is showing strong strategic readiness.

Quantum Sensor Market Top Companies

• ADVA
• AdSense
• Biospherical Instruments Inc.
• GWR Instruments Inc.
• Microchip
• Microsemi Corp.
• Muquans SAS
• Robert Bosch GmbH
• Spectrum Technologies Inc.
• Thomas Industrial Network Inc.

Recent Developments

The quantum sensor industry is driven by key players like ADVA, AdSense, Biospherical Instruments Inc., GWR Instruments Inc., and Microchip, who are advancing compact, high-precision sensing for defense, telecom, and environmental use. In Jan 2024, Microchip launched a next-gen atomic clock; GWR introduced a portable gravimeter in Mar 2023. ADVA expanded its quantum timing tech in North America in Jun 2022. Biospherical Instruments collaborated on marine quantum sensors, and AdSense launched a cloud-based magnetometer in Oct 2024. These firms are shaping the future of quantum sensing.

• In September 2024, QuantumDiamonds GmbH launched the QD m.0, the world’s first commercial quantum device tailored for semiconductor chip failure analysis. Using diamond-based quantum microscopy, it offers unmatched precision in detecting faults across advanced architectures like 2.5D/3D packaging and chiplet-based designs. The system can extract electrical current data across multiple chip layers, making it ideal for analyzing die-stacking, through-silicon vias, and hybrid bonding. This addresses key challenges in heterogeneous integration. The QD m.0 significantly boosts yield, reduces failure-related losses, and streamlines debugging. The first units are set to ship in Q4 2024. The launch has already drawn major industry interest and partnerships.

Market Segmentation

By Type

• Atomic Clocks
• Magnetometers
• Gravitational Sensors
• PAR Quantum Sensors
• Gyroscopes
• Acoustic Sensors
• Others

By Platform

• Neutral atoms
• Nuclear magnetic resonance
• Trapped Ions
• Optomechanics
• Photons
• Superconductors
• Defects in Diamonds

By End Use

• Aerospace & defense
• Agriculture & environment
• Oil & gas
• Automation
• Others

By Application

• Environmental monitoring
• Medical imaging
• Precision measurement
• LiDAR

By Region

• North America
• APAC
• Europe
• LAMEA