Addionics develops porous 3D current collectors for rechargeable batteries, enabling higher active material loading while reducing weight and cost. This drop-in solution integrates seamlessly with existing battery assembly lines, supporting various battery chemistries. The technology delivers performance improvements like longer lifetime and higher energy density while utilizing recycled copper in its manufacturing process.
Funding
$78.6M raised to dateRaised to date based on public sources. This may differ from the amount the company actually raised and is based only on what is publicly available on the internet.
DI+1Founders
Product
Problem
Current battery technology faces limitations in energy density, charging speed, and cost-effectiveness, hindering the widespread adoption of electric vehicles and other energy storage applications. Traditional battery designs often rely on inefficient materials and manufacturing processes, leading to heavier, slower-charging, and more expensive batteries.
Solution
Addionics addresses these challenges with its innovative 3D Current Collectors, which enhance battery performance through a unique porous architecture. This design enables higher active material loading while reducing the amount of copper and aluminum needed, resulting in lighter and more cost-effective batteries. Addionics' technology is chemistry-agnostic, allowing seamless integration into existing battery assembly lines and compatibility with various battery chemistries, including both current and emerging technologies. By optimizing battery structures through AI and modeling, Addionics facilitates faster charging, higher power output, and greater energy density without compromising safety or lifecycle.
Target Audience
Addionics' primary customers are battery manufacturers and automotive OEMs seeking to improve the performance and cost-effectiveness of their battery systems for electric vehicles and other energy storage applications.
Features
- 3D Current Collectors with a porous architecture for increased active material loading
- Chemistry-agnostic design compatible with existing and emerging battery technologies
- Reduction of up to 60% in copper and aluminum usage, lowering material costs
- Enhanced power, faster charging, and higher energy density compared to traditional batteries
- Seamless integration into existing battery assembly lines using traditional coating processes
- Proprietary battery cell modeling platform that uses AI to optimize battery structures for specific performance outcomes
- Manufacturing process that utilizes recycled copper, promoting a circular economy