If you are a manufacturer dealing with a 9-year gap between concept and production — this project developed a Digital Twin that simulates battery behavior. This reduces the need for costly physical tests and speeds up the time to market.
AI-Powered Digital Twin to Speed Up Battery Development and Testing
Imagine if you could test a new battery design on a computer instead of spending years building and breaking thousands of real ones. This tool acts like a high-tech flight simulator for batteries, predicting how they will age and behave. It cuts out the slow trial-and-error process, letting engineers find the best design much faster.
What needed solving
Battery innovation is slowed by expensive and time-consuming physical testing. A new design can take 9 years to reach production due to trial-and-error testing for safety and aging.
What was built
A Digital Twin software combining three physics-based models (performance, lifetime, safety) optimized by AI with a user-friendly interface.
Who needs this
Who can put this to work
If you are a provider dealing with unpredictable battery lifetime in grid storage — this project developed physics-based models for performance and aging. This allows you to predict battery health without relying on expensive, long-term physical trials.
If you are a producer dealing with high costs of safety testing for new chemistries — this project developed a virtual tool that simulates safety characteristics. This diminishes the number of physical samples required for validation.
Quick answers
How much does the software cost or what is the pricing model?
Based on available project data, no specific pricing or cost for the end-user tool is mentioned.
Can this be scaled to all types of batteries?
The project focuses on commonly used battery chemistries that represent 60% of the market share before 2030, targeting cell, module, and pack levels.
Who owns the IP and how is licensing handled?
Based on available project data, the IP and licensing terms are not specified, though the project involves 9 partners across 6 countries.
How does this integrate into existing R&D workflows?
The tool is designed as a user-friendly interface that replaces or reduces the number of physical trial-and-error tests in the design phase.
What is the timeline for the tool to be available?
The project is active from 2023-06-01 to 2027-05-31, meaning the final validated tool is expected by May 2027.
Who built it
The consortium is strongly geared toward industrial application, with a 44% industry ratio (4 industrial partners). It balances deep technical research from 3 research organizations and 1 university with practical end-users, ensuring the resulting software meets actual market needs across 6 European countries.
Contact the Commissariat à l'énergie atomique et aux énergies alternatives (CEA) in France.
Talk to the team behind this work.
Contact us to explore early adoption of the THOR Digital Twin for your battery R&D.