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Farad Power

Farad Power develops advanced electrode materials for supercapacitors and batteries, targeting electric buses, power tools, EV charging stations, grid storage, and electric flight. Their platform uses liquid carbon precursors from agricultural waste to create high‑performance activated carbon, carbon‑silicon, and carbon‑sulfur composites for EDLCs, lithium‑ion, sodium‑ion, and lithium‑sulfur batteries, enabling higher efficiency and lower cost.

Sunnyvale, United States3200+ followers
Updated 28 days ago

Funding

Funding not disclosed

Funding rounds are not available yet.

Founders

Founder details are not available yet.

Product

Problem

Energy storage devices such as lithium‑ion, sodium‑ion, lithium‑sulfur batteries and electric double‑layer supercapacitors rely on costly and performance‑limited electrode materials, which increase the price and reduce the efficiency of applications ranging from electric buses to grid‑scale storage.

Solution

Farad Power provides a materials platform that converts liquid carbon precursors derived from agricultural waste into high‑performance carbon and carbon‑composite electrodes. The process yields tailored anodes, cathodes, and activated‑carbon electrodes for multiple storage chemistries, enabling higher energy density, longer cycle life, and lower material costs. By integrating carbon‑silicon composites for lithium‑ion anodes, carbon‑sulfur composites for lithium‑sulfur cathodes, and optimized activated carbons for supercapacitors, the company supports a broad portfolio of electric‑mobility and stationary‑storage products. The platform is scalable and compatible with existing manufacturing lines, allowing customers to adopt greener electrode materials without major process changes.

Target Audience

Primary customers are manufacturers of electric vehicles, electric buses, power tools, EV charging infrastructure, grid‑attached storage systems, and aerospace firms developing electric flight technologies.

Features

  • Liquid carbon precursor technology that upcycles agricultural waste into high‑purity carbon feedstock
  • Carbon‑silicon composite anodes for lithium‑ion batteries delivering increased capacity and rate capability
  • Carbon‑sulfur composite cathodes for lithium‑sulfur batteries offering higher specific energy
  • Tailored carbon materials for sodium‑ion battery electrodes to reduce cost while maintaining performance
  • Activated‑carbon electrodes optimized for electric double‑layer supercapacitors with improved power density
  • Process compatible with standard electrode fabrication equipment, facilitating easy integration into existing production lines
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