Deep-Tech Research & Hardware Development
Quantum Sensing: Atomic-Level Measurement for the Real World
Quantum sensing is opening a new frontier in how we measure, map, navigate, inspect, and understand the physical world.
Dynex Quantum Sensing is a new product line focused on developing ultra-compact, high-precision sensing systems based on quantum effects in NV-diamond technology. By using the atomic-scale properties of nitrogen-vacancy centers in diamond, quantum sensors can detect extremely small changes in magnetic fields, electromagnetic activity, temperature, motion, and material properties — enabling a new class of measurement instruments that are more sensitive, more portable, and more deployable than many conventional sensing systems.
While quantum computing is designed to process information in new ways, quantum sensing is designed to observe the world with extraordinary precision. It uses quantum states as highly sensitive probes of the physical environment. These states respond to tiny external signals, allowing quantum sensors to detect effects that may be invisible to classical instruments or measurable only with large, expensive, laboratory-scale equipment.
Dynex is developing one of the smallest quantum sensing platforms in its category: a portable, hand-held NV-diamond quantum sensor with a very small footprint, designed for practical field deployment, laboratory research, industrial inspection, and advanced security applications.
What Is Quantum Sensing?
Quantum sensing is the use of quantum systems to measure physical quantities with exceptional sensitivity.
At the heart of a quantum sensor is a material or system whose quantum state changes in response to the surrounding environment. By reading out these changes, the sensor can detect magnetic fields, electric fields, temperature variations, mechanical strain, motion, frequency shifts, or other physical signals with very high precision.
In Dynex’s approach, this capability is based on NV centers in diamond. An NV center is an atomic-scale defect inside the diamond lattice. These defects behave like highly sensitive quantum probes. When illuminated and controlled with microwave and optical signals, their quantum state can be measured and used to detect subtle changes in the local environment.
The result is a powerful sensing architecture that combines quantum precision with the robustness of diamond as a solid-state material.
Why NV-Diamond Quantum Sensors?
NV-diamond sensors are especially promising because they can operate at room temperature, are highly robust, and can be engineered into compact devices. Unlike many quantum technologies that require cryogenic cooling, vacuum systems, or large laboratory infrastructure, NV-diamond sensing can be developed into practical, portable instruments.
This makes NV-diamond technology highly relevant for real-world use cases where sensitivity, size, reliability, and deployment flexibility matter.
Dynex is focusing on miniaturization, portability, and system integration. Our objective is to bring quantum sensing out of the laboratory and into the field — enabling powerful measurement capabilities in a device that can be carried, deployed, and operated in practical environments.
One of the Smallest Quantum Sensors in Development
Dynex is developing a very small-footprint, hand-held quantum sensor based on NV-diamond technology.
The product is designed around a compact sensing head, integrated optical excitation, microwave control, and photodetection. This architecture allows the system to measure quantum responses from the diamond sensor and translate them into actionable physical data.
The strategic goal is clear: make quantum-grade measurement available in a portable form factor.
Instead of relying on large, fixed installations, Dynex Quantum Sensing is being developed for mobile and flexible operation. The platform is intended to support use in laboratories, industrial facilities, field environments, defense and security scenarios, infrastructure sites, and advanced research settings.
What Can Quantum Sensing Be Used For?
Quantum sensing has applications wherever extremely precise measurement of the physical world is required.
Magnetic Field Detection
NV-diamond quantum sensors are highly suited for magnetic-field sensing. This can be used to detect small magnetic signatures, map magnetic field distributions, identify anomalies, or measure changes in electromagnetic environments.
Potential applications include:
Magnetic anomaly detection
Electronics inspection
Current mapping
Material characterization
Non-destructive testing
Detection of hidden structures or magnetic objects
Scientific and laboratory measurement
Advanced security and defense sensing
Navigation Without GPS
Modern navigation systems depend heavily on satellite signals. These signals can be blocked, degraded, jammed, or spoofed. Quantum sensing can support new approaches to navigation by measuring physical fields such as magnetic-field patterns, inertial motion, or environmental signatures.
For aircraft, drones, autonomous vehicles, ships, underground systems, and defense platforms, this can become highly relevant in GPS-denied or GPS-contested environments.
Dynex Quantum Sensing is positioned within this broader evolution: creating compact, precise, and deployable sensing systems that can help machines and operators understand their environment even when conventional signals are unavailable or unreliable.
Industrial Inspection and Quality Control
Industrial systems often require precise, non-invasive measurement. Quantum sensors can help detect subtle changes in materials, electrical systems, components, and structures.
Potential use cases include:
Inspection of electronic circuits and semiconductor devices
Detection of hidden defects or stress patterns
Monitoring of current flows and electromagnetic leakage
Battery and energy-storage analysis
Quality control in advanced manufacturing
Characterization of magnetic and electronic materials
Because NV-diamond sensing can operate at room temperature and can be integrated into compact devices, it may become a valuable tool for industrial users that need high sensitivity without complex laboratory infrastructure.
Infrastructure, Geology, and Subsurface Mapping
Quantum sensing can also support applications in infrastructure and environmental monitoring. Highly sensitive sensors may help detect changes in magnetic fields, motion, gravity-related effects, or subsurface structures.
Relevant use cases include:
Tunnel and underground infrastructure mapping
Geological surveying
Utility and pipeline inspection
Civil engineering diagnostics
Environmental monitoring
Mining and resource exploration
Detection of structural anomalies
A portable quantum sensor could allow teams to perform advanced measurements directly on site, reducing the dependency on large-scale instruments or centralized laboratory analysis.
Healthcare and Life Sciences Research
Quantum sensing has potential in biomedical research and diagnostics, particularly where weak magnetic or electromagnetic signals need to be detected with high precision.
Possible areas include:
Biomagnetic signal detection
Cellular and molecular measurement
Magnetic nanoparticle tracking
High-resolution microscopy
Laboratory diagnostics
Medical-device research
While clinical deployment requires strict validation, the underlying quantum sensing capabilities are highly relevant for research institutions, medical technology companies, and advanced life sciences laboratories.
Defense, Aerospace, and Security
Quantum sensing is especially relevant in environments where conventional sensing, navigation, and communication systems may be limited.
Potential use cases include:
GPS-denied navigation
Passive detection systems
Magnetic anomaly detection
Secure positioning and timing support
Autonomous platform navigation
Subsurface and underwater sensing
Electromagnetic environment monitoring
Aerospace system diagnostics
Because quantum sensors can measure physical fields directly, they can provide valuable capabilities in contested, remote, noisy, or signal-limited environments.
Who Is Quantum Sensing Relevant For?
Dynex Quantum Sensing is relevant for organizations that need to measure more precisely, navigate more reliably, inspect more deeply, or detect weaker signals than conventional systems allow.
This includes:
Research institutions and universities developing next-generation measurement science
Industrial companies working in advanced manufacturing, electronics, semiconductors, energy, and materials
Defense and aerospace organizations requiring compact, precise, and resilient sensing technologies
Infrastructure and engineering companies performing field inspection, mapping, and diagnostics
Automotive, robotics, and autonomous systems developers exploring GPS-independent navigation and environmental awareness
Healthcare and life sciences researchers investigating magnetic, cellular, or molecular-scale phenomena
Government agencies and public-sector organizations responsible for safety, security, mapping, and critical infrastructure
Quantum technology partners seeking practical, deployable quantum hardware platforms
Quantum sensing is not limited to one industry. It is a foundational technology layer for any sector where better measurement produces better decisions.
From Quantum Research to Deployable Instruments
Dynex’s work in quantum sensing is part of a broader deep-tech strategy: transforming advanced quantum and quantum-driven technologies into practical systems with commercial relevance.
Our NV-diamond quantum sensor development combines expertise in quantum physics, diamond materials, optics, microwave engineering, embedded electronics, signal processing, and system miniaturization.
The objective is not only to demonstrate quantum sensing in a controlled laboratory setting. The objective is to build a compact product platform that can be used by researchers, engineers, operators, and organizations in real-world environments.
This is where Dynex sees a major opportunity: quantum sensing as a practical instrument class.
Portable. Hand-Held. Quantum-Precise.
Dynex is developing a portable, hand-held quantum sensor with a very small footprint.
The system is designed to make quantum sensing easier to deploy, easier to operate, and easier to integrate into real workflows. Its compact architecture is intended to support field use, laboratory use, and future application-specific configurations.
By miniaturizing the sensing platform, Dynex aims to lower the barrier between quantum research and practical adoption.
Quantum sensing should not remain confined to large research facilities. It should become a deployable technology — one that can be used wherever precise measurement matters.
The Future of Measurement
The next generation of sensing will not only measure louder signals, larger objects, or stronger fields. It will measure what was previously too subtle to detect.
Quantum sensing enables a new relationship with the physical world: more precise, more direct, and more resilient.
Dynex Quantum Sensing is being developed to bring this capability into a compact, portable, and commercially relevant product line — built on NV-diamond technology and designed for the next generation of scientific, industrial, defense, and infrastructure applications.
With one of the smallest quantum sensor platforms in development, Dynex is working to make atomic-level measurement available in the field, in the laboratory, and wherever high-precision sensing can create new value.