Each sector has its constraints, density, bidirectional flow, fire safety, continuity. We design for them, not around them. Every application below maps to a field in our configurator.
100% electronic load and absolute continuity. K-rated designs for harmonics, redundancy running transformers at half-load (low no-load losses matter), F1 dry or ester for fire safety, and DCIM supervision (RS485/Modbus).
Learn more →Step-up units feeding the grid: inverter voltages (400–800 V), double-secondary transformers, truly bidirectional flow, and evacuation substations up to HV.
Learn more →Genuine bidirectional flow, charging by day and discharging at peak, with K-rated design for PCS harmonics and cycling-aware thermal sizing.
Learn more →Charging hubs concentrate high power at one point: past a few hundred kW the connection moves to MV, with a dedicated delivery substation.
Learn more →Robust units for demanding environments, MV connection via delivery substation, DGPT2 protection, and like-for-like replacement or uprating of existing units.
Learn more →Distribution and grid-connection transformers in volume, Tier 2 losses that drive lifetime cost, and engineered substations up to HV.
Learn more →A data center is the most demanding load a distribution transformer will meet: 100% electronic, continuous, and intolerant of interruption. Switch-mode power supplies draw harmonic-rich current, so a K-rated design is the norm rather than the exception. Redundant (N+1) architectures often run transformers at half load, which makes low no-load losses a real operating cost, not a detail. Fire safety inside the building points to cast-resin (F1) or ester-filled units, and facilities teams increasingly expect temperature and status data over RS485 / Modbus for DCIM.
Typical fit: cast-resin (dry) or ester-filled distribution, K-rated, with monitoring. Configure →
Renewable plants run the transformer in reverse: power flows from the inverters up to the grid. That calls for genuinely bidirectional designs, inverter-matched LV voltages (often 400–800 V), and frequently double-secondary units to pair with multi-string inverters. Above a certain size the evacuation point becomes an MV or HV substation, which we build as a complete package, not just the transformer.
Typical fit: step-up distribution + BESS / storage designs, up to a full substation. Configure →
Two fast-growing segments that share one thing: they stress the transformer in ways a catalogue unit does not. BESS imposes a truly bidirectional flow (charge and discharge) and PCS converters rich in harmonics, a K-adapted design is essential. EV charging hubs concentrate large power at a single point: past a few hundred kW, the connection leaves LV and moves to MV with a dedicated delivery substation. Both applications sit in our configurator under the “Application” field.
Typical fit: K-rated bidirectional units for BESS, or a complete delivery substation for a charging hub. Configure →
Industrial sites ask for robustness above all: demanding environments (dust, heat, corrosive atmospheres), MV connection via a delivery substation, and protection fittings such as DGPT2. Grid and distribution operators buy distribution and grid-connection transformers in volume, to standard specifications and with documented conformity. Both value a single accountable supplier from specification to delivery, which is exactly our model.
Typical fit: oil-immersed distribution, MV delivery substations, volume framework orders. Configure →
Select your use case, the design integrates its constraints from the start.
Configure a quote →