Geomagnetic calibration
Real-time orientation correction using the Earth's magnetic field — no encoders, no mechanical homing.
The next frontier of automotive actuation
Precision that floats, control that holds
An internationally protected electromagnetic levitation platform that positions vehicle components below one millimeter — using only the Earth's magnetic field as a reference, no encoders, no mechanical homing.
- 3registered mathematical models
- <1mmpositioning precision
- 157countries with patent coverage
Protected, verified engineering — ready for vehicle integration
- International WIPO patent protection
- Mathematically guaranteed stability
- Real-time geomagnetic calibration
- Production-ready embedded delivery
What it is
Levitation engineering that redefines what's possible
Imagine a vehicle component that positions itself with sub-millimeter precision — without a single mechanical sensor, without homing, without ever touching a reference point. Just a magnetic field, a control law, and a compass pointed at the Earth itself.
This platform calibrates, stabilizes, and actuates electromagnetic levitation in real time, even while the vehicle rotates and vibrates on the road. Where conventional systems lose accuracy under motion, this technology holds it.
Calibrate
Use the Earth's magnetic field as the exclusive orientation reference — no encoders, no absolute sensors.
Stabilize
A nonlinear control law regulates position, velocity, and current with mathematically guaranteed stability.
Actuate
A variable-reluctance electromagnetic core delivers precise, low-power, position-dependent force.
Interactive demo
Feel the control system yourself
Move your cursor (or finger) over the panel to disturb the floating object. Pick a mode to see how the technology responds in real time.
ModeFree
EffectUnstable drift, no reference
Covered technology domains
Four engineering domains, one platform
Nonlinear control
A multi-stage nonlinear control approach regulating position, velocity, and current with guaranteed stability.
Variable-reluctance actuation
Real-time reluctance correction and an electromechanical core producing precise, position-dependent force.
Embedded architecture
Deployable on standard ESP32 / STM32 microcontrollers — compact, low-power, production-ready today.
Benefits
Technology that rewrites the rules of vehicle actuation
01
Faster to market
Accelerate development of precision actuation systems without building the control theory and embedded stack from scratch.
02
Lower bill of materials
Eliminate costly absolute position sensors and mechanical homing hardware, reducing total cost per unit.
03
Guaranteed stability
Rigorous control theory ensures mathematically proven stability — suitable for safety-critical applications.
04
Minimal power draw
Designed for embedded platforms on 7.4V Li-ion battery — fully compatible with EV battery management.
05
Robust under vibration
Maintains full performance under vehicle rotation and vibration — conditions that degrade conventional systems.
06
Retrofit compatible
Integrates into current production vehicles or new prototypes without full structural redesign.
Sectors that benefit
The invisible engine behind the next generation of vehicles
Wherever precise, low-power electromagnetic actuation is central to product value, this platform makes the difference.
Chassis & ride
- Next-generation active suspension
- Millimeter-level ride-height control
- Retrofit integration for production vehicles
NVH & comfort
- Active engine and powertrain mounting
- Premium EV cabin refinement
- Vibration-sensitive mounting environments
Autonomous & EV systems
- Precision LiDAR / camera sensor positioning
- Brake-by-wire and steering actuation
- EV and hybrid battery-compatible actuation
OEM & Tier-1 integration
- Embedded module and subsystem integration
- Joint R&D and platform-specific adaptation
- Technology licensing and knowledge transfer
Applicability across industries
One core technology, every industry that needs precision without compromise
Originally engineered for automotive actuation, the same calibration, control, and actuation platform extends naturally to any system that needs sub-millimeter positioning without absolute sensors. Hover each card to see the control response settle.
Automotive & mobility
ChallengeVehicle actuation needs encoder-free, low-power precision that survives constant road vibration.
ImpactPowers active suspension, cabin isolation, and safety-critical actuation across ICE, hybrid, and EV platforms.
Real precedentPer-corner electromagnetic active suspension is already in production (Audi A8 48V; ClearMotion/Bose linear actuators).
Aerospace & space systems
ChallengeSatellites and aircraft rely on heavy mechanical gyros or absolute sensors for orientation and payload positioning.
ImpactGeomagnetic-referenced actuation enables lightweight, propellant-free attitude control and stabilized sensor payloads.
Real precedentMagnetorquers referencing Earth’s field are standard for CubeSat attitude control today.
Rail & mass transit
ChallengeTrack-induced vibration reaches the cabin, and mechanical suspension parts wear fast under continuous duty cycles.
ImpactContactless electromagnetic actuation delivers active ride comfort with lower maintenance across rail fleets.
Real precedentElectromagnetic and electrodynamic suspension is proven in maglev service (SCMaglev, Transrapid).
Marine & naval systems
ChallengeWave motion destabilizes onboard sensors, and saltwater environments accelerate wear on mechanical position sensors.
ImpactEncoderless, vibration-robust actuation stabilizes navigation and sensor platforms with no exposed moving parts.
Real precedentContactless magnetic positioning is used in naval-grade sensor and bearing systems.
Industrial machinery & automation
ChallengeHigh-speed rotating machinery and precision manufacturing equipment need contactless, wear-free position control.
ImpactBuilds on proven magnetic-bearing and active-vibration-isolation principles for turbomachinery, robotics, and cleanroom equipment.
Real precedentActive magnetic bearings have run in industrial turbomachinery since the 1980s (SKF/S2M, Calnetix, Baker Hughes).
Medical & precision robotics
ChallengeSurgical and diagnostic robots demand sub-millimeter positioning without bulky mechanical sensors.
ImpactCompact, low-power electromagnetic actuation enables finer, more reliable motion control in medical devices.
Real precedentMagnetic-bearing ventricular assist pumps (e.g. Levitronix CentriMag) are in clinical use.
Renewable energy & infrastructure
ChallengeWind turbines and other structures suffer fatigue and efficiency loss from uncontrolled vibration.
ImpactActive electromagnetic damping reduces structural fatigue and improves output stability.
Real precedentMagnetic-bearing vibration damping for wind turbines is in experimental / pilot testing.
Scientific base & trust
Disruptive, cutting-edge tech at its finest.
Protected intellectual property
Internationally registered under the WIPO Patent Cooperation Treaty (PCT), active across 157 member countries.
Proprietary mathematical framework
Part of a portfolio of three registered mathematical models governing calibration, control, and actuation.
Computational validation
Rigorous control theory and embedded validation back every stability and performance claim.
Controlled, secure delivery
Licensing, joint R&D, or embedded module integration — core know-how stays under licensor control.
4
engineering domains in a single platform
7
industries with direct applicability
157
countries with active patent coverage
<1mm
positioning precision, no absolute encoders
Take the next step
The future of vehicle actuation starts here
Request the non-confidential technology summary and discover how it could apply to your platform.
[email protected] · www.lifeisgood0.com