Building the Future of Energy Routing for Data Centers, Microgrids, Energy Storage, and Electrified Infrastructure.

EPower Technology develops advanced multiport power conversion platforms that intelligently route energy through a shared magnetic architecture. By directly connecting generation, energy storage, and loads through a single scalable converter, our technology reduces conversion stages, improves efficiency, and enables flexible energy management for data centers, microgrids, EV charging infrastructure, and energy storage systems.

Target Applications: AI Data Centers • Energy Storage • EV Charging • Microgrids.

Seeking strategic partners and pilot deployments.

EPower Technology has developed a patent-pending multiport power conversion system for commercial and industrial nearly net-zero buildings, microgrids, and data centers. The system is based on a Multiple-Active-Bridge (MAB) converter with multiple bidirectional, galvanically isolated DC ports, enabling flexible interconnection among distributed energy resources, storage systems, and dynamic loads.

The MAB converter can be integrated into EP's modular, plug-and-play inverters, which are capable of autonomous operation in both grid-connected and islanded modes. This architecture enables flexible microgrid reconfiguration and power-routing functionality, while the MAB converter remains inverter-agnostic, ensuring broad compatibility across different system implementations.

Key Technology Advantages:

• Plug-and-Play Integration

Connect up to four energy sources or loads through a single power conversion platform, significantly reducing system complexity and integration effort.

Benefits:

Lower installation and commissioning costs
Simplified system architecture
Compatible with diverse energy sources, storage systems, and loads

• Modular and Serviceable Architecture

Built on scalable 15 kW power modules with replaceable inverter units. Multiple modules can operate in parallel to support higher power levels such as 30 kW, 45 kW, 60 kW, and beyond.

Benefits:

Flexible system expansion
Reduced maintenance and repair costs
Faster deployment and servicing
Lower manufacturing costs through standardized modules

• High Power Density and Efficiency

Leveraging advanced GaN and SiC semiconductor technologies together with planar magnetic components to achieve compact, high-performance power conversion.

Benefits:

Up to 40% reduction in size and system cost compared to conventional solutions
Reduced energy losses
Improved thermal performance
Higher power density for space-constrained installations

• Galvanic Isolation and Enhanced Safety

Integrated high-frequency planar transformer technology provides controlled energy transfer while maintaining electrical isolation between ports.

Benefits:

Safe integration of multiple energy sources and loads
Supports systems with different grounding requirements
Ideal for EV charging, energy storage, and critical infrastructure applications

• Bidirectional Power Flow

Supports seamless two-way energy transfer between batteries, renewable resources, loads, and the utility grid.

Benefits:

Maximizes utilization of energy storage assets
Enables vehicle-to-grid (V2G) and battery energy management applications
Improves system flexibility and resilience

• Autonomous Operation

Advanced self-synchronizing control enables seamless transitions between Grid-Following (GFL) and Grid-Forming (GFM) operating modes without dedicated communication links.

Benefits:

Uninterrupted operation during grid disturbances
Enhanced microgrid resilience
Reduced system complexity and installation costs
Reliable operation in both grid-connected and standalone applications

Supports

We would like to express our gratitude for the support and funding the Department of Energy (DOE) provided for our SBIR/STTR projects.

Disclaimer: Note that Epower Technology, despite past or current agreements/contracts with the mentioned agencies, is not directly affiliated with any of them.