Imagine a battery that acts like a lizard's tail; when it gets damaged inside, it can actually fix itself. It uses tiny internal sensors to feel where the damage is and then triggers a heating process to 'glue' the internal parts back together. This means batteries last much longer and don't need to be replaced as often.
Batteries degrade over time due to internal fractures and chemical decay, leading to expensive replacements and waste. Current Battery Management Systems can monitor health but cannot actively repair the damage.
A system comprising printed resistance and electrochemical sensors, self-healing polymer networks, and a BMS that triggers thermal activation to repair battery internals.
If you are an EV manufacturer dealing with battery degradation and short replacement cycles — this project developed embedded sensors and self-healing polymers that repair electrode fractures. This increases the reliability and lifetime of the vehicle's power source.
If you are a storage operator dealing with the high cost of replacing large-scale battery arrays — this project developed a system that senses internal chemical decay and removes harmful ions. This extends the operational life of energy storage systems.
If you are a device brand dealing with battery failure in premium products — this project developed a smart Battery Management System (BMS) that triggers on-demand healing. This reduces warranty claims and improves product longevity.
Based on available project data, specific pricing is not provided, but the project focuses on using existing manufacturing methods to keep costs manageable.
The project is currently performing upscaling efforts for new self-healing polymers and ensures the design remains compatible with today's manufacturing processes.
Based on available project data, licensing terms are not specified, but the consortium includes 12 partners across 7 countries.
The technology integrates via a modified Battery Management System (BMS) and printed sensors on cell components, designed to be compatible with existing cell chemistries.
The project runs until 2026-10-31, suggesting that commercial versions would likely follow after this date.
The consortium is research-heavy with 10 combined university and research institutes, balanced by 2 industrial partners (17% industry ratio). This structure indicates a technology that is still in the advanced R&D phase, leveraging deep academic expertise from 7 countries to solve complex chemical problems before full industrial handover.
Contact INSTITUTT FOR ENERGITEKNIKK STI in Norway
Contact us to connect with the SALAMANDER consortium for licensing discussions.
