Applications
Where BriPower power systems are applied
EV Charging
Validate AC and DC charging equipment under repeatable input, output and abnormal-grid conditions. A programmable source and regenerative load can support functional checks, efficiency evaluation and charging-behavior studies without relying on a live vehicle or public grid.
On-Board Charger
Reproduce grid and battery-side conditions while evaluating an on-board charger across its operating envelope. Engineers can study conversion behavior, input response, efficiency and bidirectional power flow in a controlled laboratory setup.
Energy Storage Systems
Exercise energy-storage converters and battery interfaces through controlled charge, discharge and grid scenarios. Regenerative test equipment helps return energy to the facility while teams evaluate control response, protection behavior and system efficiency.
Power Conversion Systems
Test power conversion systems with programmable AC and DC conditions on both sides of the converter. Typical work includes functional verification, dynamic response, conversion efficiency and behavior during voltage or frequency disturbances.
PV Inverter
Emulate photovoltaic array behavior and utility-grid conditions to validate inverter control and energy conversion. Repeatable profiles help engineers examine start-up, tracking behavior, protection functions and response to changing grid conditions.
Solid State Transformer
Build controlled source-and-load environments for solid-state transformer research and validation. Programmable power platforms support studies of multi-stage conversion, control response, power flow and interaction with distribution networks.
HVDC
Create repeatable high-power AC and DC conditions for converter and control-system development used in HVDC research. Test scenarios can examine power flow, transient response, protection logic and interaction between conversion stages.
AI Server / BBU
Evaluate high-density server power supplies and battery backup units under rapidly changing load profiles. Programmable and regenerative equipment supports repeatable transient, ride-through, conversion and backup-transition testing.
Railway
Simulate traction supply and regenerative operating conditions for railway power converters and auxiliary systems. Controlled voltage and load profiles help engineers evaluate dynamic response, conversion behavior and energy recovery.
Grid Simulation
Reproduce normal and abnormal utility conditions in the laboratory with programmable voltage, frequency and phase. Grid simulation gives engineers a repeatable environment for converter control, protection and ride-through evaluation.
Regenerative Load Testing
Absorb power from a device under test and return usable energy to the facility supply. This approach is suited to sustained converter, power-supply and burn-in work where conventional resistive loads would dissipate energy as heat.
Battery Testing
Simulate battery-side operating conditions or cycle batteries with controlled bidirectional power. Engineers can create repeatable charge and discharge profiles while observing response, efficiency and protective behavior at system level.
HIL / PHIL
Connect real-time simulation with physical power hardware for controller and system validation. HIL and PHIL setups let teams introduce repeatable operating events before committing to larger or less flexible field tests.
Power Converter Testing
Combine programmable sources and regenerative loads to evaluate AC/DC, DC/DC and DC/AC converters. A controlled setup supports functional, efficiency, transient and protection testing across defined operating scenarios.
Grid Code Testing
Apply repeatable voltage, frequency and phase events to grid-connected equipment in a controlled setting. Engineers can use these scenarios to prepare evidence for applicable interconnection requirements and internal validation plans.
Power Quality Testing
Generate controlled disturbances and load conditions to study harmonics, voltage variation, unbalance and transient response. Repeatable laboratory profiles help teams characterize equipment behavior and verify internal acceptance criteria.