High-efficiency, low-ripple, and programmable modules engineered to support demanding industrial workloads.
Active Power Models
Cooperative Partner Facilities
DC Output Voltage Ranges
DC-DC Modular Capability
In modern industrial systems, precision control of electrical energy is paramount. The modern power supply ecosystem is undergoing an architectural shift towards digital power loops, integration of wide-bandgap (WBG) materials, and extreme thermal resilience. As a premier provider of customized power conversion systems and OEM Power Management architectures, we bridge the gap between high-level digital configuration and robust analog conversion topologies.
Our approach integrates Silicon Carbide (SiC) and Gallium Nitride (GaN) components, ensuring that converters operate at high switching frequencies while minimizing parasitic inductance and switching losses. This enables the design of high-density DC-DC converters, heavy-duty programmable switching power supplies, and multi-phase AC frequency changers capable of handling industrial, aerospace, and medical loads with unparalleled efficiency.
Integrating zero-voltage switching (ZVS) and zero-current switching (ZCS) LLC resonant converter topologies to maximize output power density and system reliability across fluctuating loads.
Utilizing high-power IGBTs and advanced SiC MOSFET drivers within high-voltage units to maintain ultra-low ripple voltage profiles down to < 0.1% RMS.
Integrated manufacturing, developmental engineering, and end-to-end power conversion validation.
Our comprehensive power portfolio is built to cover wide-ranging operational inputs and outputs:
We operate proprietary, ISO 9001-certified manufacturing facilities in Guangzhou, China, alongside more than 20 closely integrated cooperative factories. Utilizing a workforce of over 60 dedicated technicians, engineers, and assembly personnel, we specialize in:
How our custom industrial configurations solve key power transmission and regulation problems worldwide.
Our programmable DC power supplies serve as the backbone of automated assembly lines and PLC power distribution grids. Operating in environments prone to heavy electromagnetic interference, these units keep supply fluctuations to < 0.5% with high input-to-output isolation.
Our smart automatic fast-charging systems power automatic guided vehicles (AGV), golf carts, and heavy duty industrial forklifts. Implemented with proprietary charging profiles (CC-CV-Float), they extend LiFePO4 battery pack life-cycles by up to 20%.
Our SMPS units, featuring ultra-low leakage current configurations, are integrated directly into hospital imaging machines, diagnostics rigs, and patient monitoring terminals. Double galvanic isolation safeguards critical systems against unexpected mains voltage surges.
Every custom order undergoes a systematic seven-stage assembly procedure followed by comprehensive functional stress testing.
1. Wire Cutting
2. Plug-In
3. Soldering Tin
4. Electrical Testing
5. Glue Filling
6. Burn-In Test
7. Secure Packaging
Equipped with precise, high-volume automated manufacturing systems to ensure strict tolerances and consistent product batches.
Automated precise core wrapping guarantees stable inductance and prevents high-frequency electromagnetic noise spikes.
Calibrated length and strip parameters ensure repeatable terminal crimping profiles and secure connections.
Eliminates cold joints and trace defects under exact temperature-controlled profiles, increasing the product lifespan.
Permanent serialization and labeling facilitate tracking of individual modules, specifications, and certifications.
Ensures complete potting compound dispersion for IP67/IP68 ingress ratings and robust heat conduction.
Synchronized layout optimized to reduce handling overhead and prevent micro-static component discharge (ESD).
Every shipment undergoes environmental testing and high-voltage compliance checks to guarantee field performance.
Automated dynamic transient load validation checks regulator response times under extreme duty changes.
Ensures safety isolation by checking for insulation breakdown at high voltage potentials.
Tests performance and reliability under high temperatures and humidities to prevent field failures.
Used for microscopic inspection of solder joint integrity, micro-cracking, and track geometry during prototyping.
Ensures long-term reliability by subjecting units to continuous maximum-rated output stresses prior to packaging.
Experienced engineers customize schematics, PCB routes, and enclosures to meet specific customer specifications.
The power electronics landscape is transitioning away from silicon-only architectures. Over the next decade, our engineering efforts will focus on increasing efficiency and output density through several key technologies:
Our next-generation converters use GaN/SiC technology to reduce switching losses by up to 60%, enabling higher power density, smaller footprints, and simpler thermal management.
We are shifting to software-defined digital power. Using ARM Cortex-M microcontrollers and FPGA DSP cores allows for real-time monitoring and adjustment via PMBus or CAN Bus interfaces.
We leverage advanced planar magnetics, multi-layer direct bonded copper (DBC) substrates, and liquid cooling channels to maximize efficiency in space-constrained installations.
Operating out of Guangzhou, China's manufacturing heartland, gives us major supply chain and cost advantages. By co-locating near top component suppliers, raw material refiners, and shipping ports, we are able to offer:
Our integrated network of over 20 partner facilities provides access to specialized manufacturing capabilities, including deep-draw CNC enclosure milling, automated SMD assembly, vacuum-pressure transformer encapsulation, and high-frequency testing. This shared infrastructure ensures stable production and high reliability, even during periods of global component shortages.
Deploying power supplies globally requires strict adherence to international safety and compatibility regulations. Our engineering designs are fully compliant with major international certifications, ensuring quick integration into local grids.
Our designs follow CE, FCC Part 15, RoHS, REACH, and UL/IEC 62368-1 standards for information technology and industrial control equipment safety.
We provide hermetically sealed and potted systems rated up to IP67 and IP68, protecting against dust, moisture, and acid corrosion.
Our global engineering team provides remote integration assistance, schematic reviews, and troubleshooting to help resolve field issues quickly.
Common questions regarding customization, technical specifications, and ordering details.
For standard modifications of existing platforms, development takes 2 to 3 weeks. Fully custom designs requiring new PCB layouts, magnetics calculations, and custom enclosures typically take 6 to 8 weeks, including initial sample evaluation.
We use multi-stage LC filter circuits, precision high-speed optocouplers for voltage feedback, and high-frequency IGBT switches. This keeps output ripple voltage down to < 0.1% of the peak value, even at high voltages up to 200kV.
Yes. We offer isolated step-down DC-DC converters designed for automotive grids, featuring wide input ranges (e.g., 20-100VDC to 12VDC output). These modules include built-in overcurrent, overvoltage, and thermal protection.
Every unit undergoes a series of QA tests: insulation resistance checks, automated AC withstand voltage tests (hipot), high/low temperature testing, and a full-load burn-in test (typically 4 to 24 hours depending on client specifications).
High-capacity chargers, variable frequency converters, and isolated industrial systems.