Resources & Insights
Dive into our knowledge base: research, resources, and recognition
White Papers
Technical deep dives into Neuranics’ technology and applications
Flyers & Brochures
Quick-reference documents showcasing Neuranics’ solutions.
Explainer Videos
A visual introduction and how-to for Neuranics’ solutions.
FAQs & Glossary of Terms
Common questions about Neuranics’ technology and products, plus a glossary of key terms for clarity.
Frequently Asked Questions
Why are TMR sensors considered quantum sensors?
TMR (Tunneling Magnetoresistance) sensors rely on quantum tunnelling to detect extremely small changes in magnetic fields, achieving picoTesla sensitivity for advanced bio-sensing and motion tracking.
What is Quantum Tunnelling?
Quantum tunnelling is a quantum phenomenon where particles pass through energy barriers they normally couldn’t. Because particles behave like waves, they have a probability of “tunnelling” through obstacles. This principle enables Tunneling Magnetoresistance (TMR), which powers Neuranics’ ultra-sensitive magnetic sensors.
How do Neuranics' sensors compare to other magnetic sensors
Unlike Hall effect, AMR, or GMR sensors, Neuranics’ TMR sensors offer:
Higher sensitivity – Detecting picoTesla-level magnetic fields
Lower power consumption – Ideal for wearables and battery-powered devices
Compact size – Enabling next-gen applications in health tech, XR, and industrial sensing
What are the key applications of Neuranics’ TMR sensors?
Neuranics’ ultra-sensitive TMR sensors enable advancements in health monitoring, human-machine interfaces (HMI), wearable technology, extended reality (XR), and industrial sensing.
How do Neuranics' sensors detect bio-signals like heart and muscle activity?
Our TMR sensors measure tiny magnetic fields generated by the body, such as the heart’s electrical activity (MCG) or muscle contractions (MMG), enabling non-invasive health and motion tracking solutions.
How much power do Neuranics' sensors consume?
Neuranics’ TMR sensors themselves are passive and require no power to detect magnetic fields. When integrated into a system, power consumption remains extremely low, making them ideal for battery-powered devices, wearables, and always-on sensing applications.
Do Neuranics' sensors require direct skin contact like ECG?
No, our sensors detect magnetic fields without direct skin contact, even through clothing. This makes them ideal for wearable and non-invasive applications.
Glossary
TMR (Tunneling Magnetoresistance)
A quantum effect enabling ultra-sensitive magnetic field detection.
Quantum Tunnelling
The process that allows electrons to pass through barriers at the quantum level, fundamental to TMR sensors.
ASIC (Application-Specific Integrated Circuit)
Custom-designed microchips that optimise sensor performance and power efficiency.
HMI (Human-Machine Interface)
Technology enabling interaction between humans and digital systems, such as XR or wearable control.
MCG (Magnetocardiography)
A non-contact method of measuring heart signals via magnetic fields, offering an alternative to ECG.
MMG (Magnetomyography)
Magnetic sensing of muscle activity, used for gesture recognition and neuromuscular monitoring.
Biomagnetic Signals
Magnetic fields naturally generated by the body, including those from the heart and muscles.
Hall Effect Sensor
A conventional magnetic sensor that detects fields perpendicular to its surface, commonly used in automotive and industrial applications.
AMR (Anisotropic Magnetoresistance)
A magnetic sensor technology with moderate sensitivity and power efficiency.
GMR (Giant Magnetoresistance)
A sensor technology with higher sensitivity than AMR but lower than TMR, used in data storage and some bio-sensing applications.
picoTesla Sensitivity
A unit of magnetic flux density equal to one trillionth of a tesla, used to measure extremely weak magnetic fields like those produced by the human body.
Awards & Recognition
Neuranics’ industry achievements and media mentions.
User Manuals & Data Sheets
Coming soon
Case Studies / User Applications
Real-world examples of Neuranics’ impact across industries.
Coming soon
