WiTricity Wireless Charging Lab Expands EV Integration Work

WiTricity Expands Wireless Charging Engineering Capacity

WiTricity has completed a research and development laboratory in Stuart, Florida, following its recent relocation to the city. The WiTricity wireless charging lab is designed to support design engineering, prototyping, electromagnetic simulation, testing, and vehicle-integration activities for wireless charging systems. The facility expands the company’s ability to customize and deploy established wireless charging solutions for passenger EVs, autonomous vehicles, robotaxis, and fleets. It also supports WiTricity’s higher-power charging capabilities for heavy-duty applications, creating a dedicated environment for engineering and integration work across several vehicle and operating requirements.

Medium-Power Systems Support EV Integration

The company’s medium-power wireless charging systems are described as proven, operational, and available for OEM, Tier 1, and fleet integration programs. The range extends from 7.2 kW to 50 kW, with a vehicle-mounted receiver positioned on the undercarriage drawing power from a ground pad. The system uses resonant magnetic coupling to transfer energy without a conventional charging cable connection. This configuration is intended to address passenger and autonomous vehicle applications, while giving integration partners an established charging architecture that can be adapted to specific vehicle requirements and operating environments.

Higher-Power Charging Targets Heavy-Duty Operations

WiTricity’s charging capability also extends to 75 kW and higher for heavy-duty applications. These uses include airports, marine ports, transit operations, drayage and yard operations, forklifts, buses, and ground support equipment. The broader power range allows the company to address operating environments where vehicle utilization and charging requirements differ substantially from those of passenger EVs. By supporting both medium-power and higher-power systems, WiTricity can work across multiple integration scenarios while maintaining a focus on wireless energy transfer technology rather than limiting its activities to a single vehicle segment.

Unmanned Fleet Charging Enables Cable-Free Operations

Hands-free charging is particularly relevant to driverless fleet operations because it can eliminate the need for a person to connect a charging cable at the end of every shift. For autonomous fleets, robotaxis, and other unmanned operations, removing that manual step can support fully unattended charging workflows. The Stuart facility is intended to help OEMs and Tier 1 suppliers integrate these wireless charging systems into vehicles and operational platforms. This emphasis places the facility closer to customer integration, testing, and deployment activities than to the development of entirely new products by the company itself.

Engineering and Vehicle Integration Focus

The new facility broadens WiTricity’s engineering resources after its relocation to Stuart and provides dedicated capabilities covering several stages of wireless charging integration. Design engineering and prototyping can support system customization, while electromagnetic simulation and testing can help evaluate system performance before and during vehicle integration. The company is positioning the laboratory around OEM and Tier 1 programs, indicating that its primary role is to facilitate adoption of its existing wireless charging technology within customer vehicle and fleet platforms rather than serve as a standalone product-development center.

Wireless Charging Applications Span Multiple Vehicle Segments

The range of applications supported by the facility reflects the different charging requirements across passenger EVs, autonomous vehicles, robotaxis, and fleets, as well as heavy-duty equipment. For passenger and autonomous applications, the 7.2 kW to 50 kW medium-power range provides the stated operating capability, while 75 kW-and-higher systems address heavier-duty uses. The underlying approach relies on a receiver beneath the vehicle and a ground charging pad connected through resonant magnetic coupling. This architecture allows charging to occur without the conventional physical cable connection between the vehicle and charging equipment.

Industry Impact & Outlook

The Stuart facility strengthens WiTricity’s ability to move wireless charging systems from established technology into OEM, Tier 1, and fleet integration programs across passenger and heavy-duty applications. Its emphasis on engineering, simulation, testing, prototyping, and vehicle integration could help partners evaluate deployment requirements without making the laboratory itself a separate product-development operation. The hands-free capability is particularly relevant to autonomous and driverless fleets because it addresses the need for unattended charging. The next phase will depend on how effectively these capabilities translate into vehicle and fleet integration programs across the applications identified by the company.

Frequently Asked Questions

What is the WiTricity wireless charging lab designed to support?
The WiTricity wireless charging lab is designed to support engineering, prototyping, simulation, testing, and vehicle integration for wireless charging systems. The Stuart, Florida facility is intended for OEM, Tier 1, and fleet integration programs involving passenger EVs, autonomous vehicles, robotaxis, and fleets. Its capabilities also extend to higher-power charging applications for heavy-duty operations. WiTricity is focusing the laboratory on integration and deployment of its established wireless charging systems rather than using it primarily for development of its own new products.