News & Resources
OEM/ODM Custom Converter Process: From Specification to Volume
A practical OEM/ODM workflow: clarify requirements, test feasibility, validate samples, control production quality and freeze changes.
Non-Isolated AC-DC Converters: Low-Voltage AC Input to Regulated DC Output
Low-voltage AC-DC modules simplify appliance and smart-device power when isolation is not required by the system architecture.
Thermal and Enclosure Selection for Power Converters
Choose plastic, aluminum-profile or die-cast housings from the complete thermal path, sealing, vibration and production requirements.
Isolated or Non-Isolated Converter: A Practical Selection Guide
Use grounding, safety, fault paths and measurement integrity to decide between isolated and non-isolated DC-DC converters.
Energy-Storage Converter Design: Buck-Boost Rails Across Battery State of Charge
Buck-boost energy-storage design starts with the full battery voltage window, termination behavior, protection and thermal limits.
Isolated DC-DC Converters: Ground Separation, Safety and Noise Control
Isolation separates input and output grounds for safety, floating rails and common-mode noise control.
Marine and RV Battery Charging: What a DC-DC Charger Must Protect Against
Choose marine and RV DC-DC charging for battery chemistry, cable drop, alternator limits, vibration and sealed environments.
LED Display and Lighting Power Architecture: Stable Rails Without Flicker
Design LED display rails for rapid load steps, cable drop, ripple, thermal buildup and scene-dependent brightness stability.
Automotive and AGV Auxiliary Power: Choosing Rugged DC-DC Modules
Rugged vehicle and AGV auxiliary rails need buck or buck-boost modules selected for transients, sealed-environment heat and vibration.
Buck-Boost Converters: SEPIC and Four-Switch Topologies Explained
When battery voltage crosses the required output, buck-boost regulation keeps the rail stable across the complete window.
48V to 12V Industrial Rail Design: Buck Converter Sizing Guide
Size a 48V-to-12V buck converter from load current, startup peaks, thermal path, housing and industrial wiring constraints.
Wide-Input 8–160V Converter Design Guide
Wide-input design requires startup, low-line current, thermal behavior, transient tolerance and protection checks across the real voltage window.
DC-DC Converter Selection Checklist for OEM Designers
Define input range, true load current, thermal path, isolation, housing and compliance before selecting a DC-DC converter for an OEM design.
Boost Converters: Synchronous Rectification, Efficiency and Pass-Through Behavior
A boost converter raises a lower DC input to a regulated higher rail; synchronous rectification reduces off-phase loss.
Y Series Buck Converters: Die-Cast Modules for Harsh and Outdoor Environments
Die-cast housings improve heat spreading, mechanical strength and environmental protection for demanding applications.
D Series Buck Converters: High-Current Step-Down Modules for Heavy Loads
High-current buck modules require a full load audit, startup analysis and conduction path before selection.
C Series Buck Converters: Aluminum-Profile Power for Industrial Rails
Aluminum-profile construction improves heat transfer and gives machine builders a robust panel-mount step-down solution.
J Series Buck Converters: Plastic-Housing Modules for Compact Low-Power Rails
A compact plastic-housed buck family for distributed low-power rails where space, cost and reliable regulation matter.
Synchronous vs Asynchronous Buck Converters: Efficiency and Cost Trade-offs
Replacing the freewheeling diode with a controlled MOSFET reduces conduction loss, but control complexity and cost increase.
How Does a DC-DC Buck Converter Work?
Switching element, freewheeling path, inductor and output capacitor work together to step a DC rail down efficiently.