Orthographic macro shot of high-density DC-DC converter PCB layout, clean solder joints, visible SiC chips, cool clinical blue indicators.
Orthographic macro shot of high-density DC-DC converter PCB layout, clean solder joints, visible SiC chips, cool clinical blue indicators.
/ 98% PEAK EFFICIENCY

High-Density DC-DC Topologies

Engineered for electric vehicle powertrains and heavy industrial R&D. We integrate silicon carbide (SiC) semiconductors to deliver extreme power density within highly constrained thermal envelopes.

Extreme close-up of heavy-duty aluminum liquid cooling channels machined directly into a converter chassis, high contrast studio lighting.
Extreme close-up of heavy-duty aluminum liquid cooling channels machined directly into a converter chassis, high contrast studio lighting.
+ THERMAL & TRANSIENT CONTROL

Chassis-Integrated Topologies

Dynamic Load Regulation

Our systems survive severe transient response cycles without voltage sag. We optimize the physical PCB layout to minimize parasitic inductance, maintaining tight output regulation during rapid load steps.

Direct Thermal Paths

By machining liquid-cooling paths directly into the aluminum enclosure, we eliminate standard interface thermal barriers. This allows continuous operation at maximum power density without thermal throttling.

ELECTRICAL PARAMETERS

Measured Performance Curves

EFFICIENCY
VOLTAGE RANGE
POWER DENSITY

>98.4% Peak

400V / 800V

45 kW/L

Achieved using optimized SiC gate drivers and synchronous rectification across the entire operating voltage band.

Bi-directional conversion topologies supporting next-generation high-voltage EV battery architectures.

Ultra-compact footprint made possible by high switching frequencies and direct-to-chassis heat dissipation.

▸ TECHNICAL INTAKE

Submit Your Parameters

Provide your voltage, current, and thermal constraints. Our engineering team will review your topology requirements and respond with a preliminary schematic proposal.