Orthographic overhead technical blueprint view of a high-power PCB layout, glowing blue trace lines, massive aluminum heat sink, clinical laboratory lighting.
Orthographic overhead technical blueprint view of a high-power PCB layout, glowing blue trace lines, massive aluminum heat sink, clinical laboratory lighting.
/ HIGH-CURRENT TOPOLOGY

Pulse Reverse Power Topologies

Engineered for microsecond-range polarity switching speeds. Our topologies utilize parallel GaN devices to handle extreme transients during high-frequency electrochemical deposition.

Close-up of a digital oscilloscope screen displaying a perfectly square pulse-reverse waveform with minimal ringing, sharp blue grid lines, high contrast.
Close-up of a digital oscilloscope screen displaying a perfectly square pulse-reverse waveform with minimal ringing, sharp blue grid lines, high contrast.
TECHNICAL PARAMETERS

Microsecond Polarity Switching

Designed specifically for advanced material research and industrial electroplating. We eliminate thermal bottlenecks through direct integration of SiC MOSFETs and optimized copper busbars.

Switching Performance

Achieve sub-microsecond transient responses under full load. Our embedded microcontrollers execute real-time current monitoring to prevent overshoot during high-frequency cycles.

Output current ranges from 100A to 2000A continuous, with reverse-pulse ratios fully programmable via Modbus or Ethernet interfaces.

SYSTEM ARCHITECTURE

Engineered for Extreme Physics

Parallel GaN Stages

Embedded Platforms

Ruggedized Enclosures

Distributed thermal load across multiple GaN devices prevents localized hotspots, ensuring continuous operation at maximum current density.

High-speed microcontrollers calculate duty cycles in real-time, delivering predictable transient responses even during rapid load impedance shifts.

Chassis are milled from solid aerospace-grade aluminum, providing both structural integrity and integrated liquid or forced-air cooling paths.

+ TECHNICAL INTAKE

Submit Electrical Parameters

Provide your voltage, current, and switching frequency requirements. Our power electronics engineering team will review your thermal envelope constraints and respond with a custom topology proposal.