Coil Modules

Inductive Components - Wireless Charging Coils

Ultra Thin, Optimized Charging

Wireless charging technology can be inefficient due to poor communication between devices or an overload of energy compromising the device's internal battery over time. Our engineers understand this constant struggle and have developed extremely effective, reliable wireless charging coil modules using carefully selected ferrite materials.

Their high Q Factor creates maximum wireless power charging efficiency while minimizing EMI. They use wireless power consortium (WPC) ferrite material and the coil module design is WPC Qi specification compliant. The power transmitter design provides up to 15 W, and even higher power designs are available upon request.

Beyond the standard coil modules, Laird Steward offers custom parts and designs for specialist applications. 

Benefits of our Coil Modules

  • Laird Steward wireless charging modules are automotive standard AECQ-200 (reliability specification) approved.
  • Designed to meet WPC Qi standard
  • Operating temperature: -40°C to +125°C
  • Assembled with ferrite plate which is built with WPC-listed ferrite material
  • High Q for maximum power transmission
  • Easy to assemble
  • Available in solid or flexible ferrite

Applications

  • Medical devices
  • Battery packs with wireless charging functionality
  • Smart kitchens (home appliances)
  • Charging needs for office, residential, or public areas
  • Charging needs for power tools or any other devices that need contactless power
  • Charging for general electronic devices or aftermarket accessories
Coil Modules

Coil Modules Series

Wireless charging coils

Transmitter Series ( 5-15 watts)

Maximize charging efficiency, reduce device size and thickness. Multi-function materials integration available to achieve high reliability test requirements.
RWC2727 image

Transmitter Series (Up to 5 Watts)

Maximize charging efficiency, reduce device size and thickness. Multi-function materials integration available to achieve high reliability test requirements.