EQx Results & Validation
Solid-state, non-linear power behaviour demonstrated across multiple independent tests.
EQx operates in a controlled non-linear DC regime. These results demonstrate instantaneous power scaling, extended thermal stability, and low thermal dissipation behaviour under continuous operation. They form the early technical basis for EQx as a new solid-state power architecture.
The results shown are early‑stage laboratory measurements from controlled prototype tests. Performance figures are normalized to the stated baseline and depend on operating conditions, instrumentation and measurement boundaries. Detailed methods, raw data and uncertainty information are available in our data room.
Instant Power Scaling
EQx trades steady, averaged delivery for controlled instantaneous power, similar to how a gearbox trades speed for torque. Power increases non-linearly while system impedance remains within a controlled range until thermal limits are approached.
Up to 3× normalized instantaneous power relative to baseline operation.
1+ Hour Thermal Stability
EQx maintains stable operation in its non-linear region without thermal runaway. Continuous long-hold tests significantly exceed typical industry stress benchmarks, demonstrating that the architecture can sustain elevated power delivery without entering destructive regimes.
Continuous operation for 60 minutes, around 6× typical accelerated stress benchmarks.
Thermal Equilibrium & Thermodynamic Analysis
Conventional power electronics are bound by linear resistive dissipation, where elevated power throughput quickly leads to thermal stress. From a thermodynamic perspective, EQx’s ability to sustain extended thermal equilibrium under peak hold conditions demonstrates minimal parasitic heat loss during operation.
| Evaluation Metric | Thermodynamic Perspective | Observed Prototype Behaviour | Characterisation Status |
|---|---|---|---|
|
Thermal Stability Hold Direct Thermal Hold |
Absence of thermal runaway indicates high energy transfer efficiency | Minimal temperature rise during continuous steady hold testing |
Validated
(60+ Min Hold)
|
|
Instantaneous Power Scaling Dynamic Throughput |
Controlled field modulation delivers elevated instantaneous power | Sustained power scaling relative to standard baseline operation |
Validated
(Up to 3×)
|
|
Conversion Efficiency (Pout / Pin) Calorimetric Profiling |
Mapping efficiency curves tailored for non-linear operating regimes | Precision input/output mapping across defined load boundaries |
In Progress
(Phase 2)
|
Data Note: Prototype testing focuses on thermal equilibrium and exergy preservation. Full calorimetric characterisation, precision Pout / Pin profiling, and third-party materials analysis with Imperial College London and the Henry Royce Institute are underway as part of our technical roadmap.
Summary: The Gearbox For Electric Power
EQx delivers higher instantaneous power, stable thermal behaviour, and near-zero loss, forming the basis of a new solid-state Power Management Layer. It behaves like a gearbox for electric fields: reshaping delivery rather than creating energy, while conserving overall energy.
Instantaneous Power
Summary of experimental prototype results. Figures are normalized to the stated baseline and apply strictly under the reported test conditions and measurement boundary.
Request Data Room Access
Please contact us to discuss the project and request access to our Data Room documentation.
Contact: DeQuincy Prescott
Email: labs@eqxpower.com
Phone: +44 7491 113 163