News & Resources
How Does a DC-DC Buck Converter Work?
Switching element, freewheeling diode, inductor and capacitor — and how PWM duty cycle controls the output voltage of every buck converter.
Synchronous vs Asynchronous Buck: What’s the Difference?
When a MOSFET replaces the freewheeling diode, efficiency rises — here is how synchronous rectification works and when it pays off.
J Series Buck Converters: Plastic-Housing Modules for Low-Power Rails
Compact J1–J3 plastic modules for low-power buck applications with wide input range and stable output.
C Series Buck Converters: Aluminum-Profile C2A / C2B / C3
Aluminum-profile housed buck converters balancing heat dissipation, size and cost for industrial use.
D Series Buck Converters: High-Current D25 / D50 / D50H
Higher-current step-down modules in aluminum housings for demanding vehicle and industrial loads.
Y Series Buck Converters: Die-Cast Aluminum, Waterproof Design
Die-cast aluminum Y1–Y4 housings with strong heat sinking and protection — built for harsh environments.
Boost Converters: Up to 98% Efficiency with Synchronous Rectification
Step-up modules with external-MOS synchronous design, bypass pass-through and wide input tolerance.
Buck-Boost Converters: SEPIC & Four-Switch Topologies Explained
How buck-boost converters keep the output regulated whether input voltage is above or below the target rail.
Isolated DC-DC Converters: 1000V+ Isolation for Safety
When input and output must not share a ground — isolated buck and buck-boost modules for industrial control and instrumentation.
Non-Isolated AC-DC Converters: AC 8–60V In, Up to 500W Out
Low-voltage AC-DC modules that also accept polarity-free DC input — for appliances, smart home and control modules.