Michelin and academic partners launch I-TireLab for tire and composites research

The four-year, €4.5 million partnership will combine sensor data, modeling and experiments across tire monitoring, vehicle control, rubber manufacturing and flexible materials.

Michelin and four academic partners have inaugurated I-TireLab, a joint research laboratory focused on tire technology, manufacturing processes and new uses for flexible composites. The partnership brings together Michelin, the University of Poitiers, Grenoble Alpes University, Grenoble INP – UGA and the French National Centre for Scientific Research (CNRS). The project represents a total investment of about €4.5 million over four years and was announced on Nov. 4.

The initiative is intended to strengthen collaboration between academic research and industrial applications by combining data analysis, mathematical modeling and experimentation. I-TireLab has set four research areas: monitoring tire conditions, improving vehicle control systems, optimizing rubber manufacturing and exploring new applications for flexible materials.

One priority is to develop real-time estimates of tire wear and grip using data from sensors already onboard vehicles. The aim is to assess tire condition without requiring additional specialized equipment. Researchers also plan to study how tire condition and grip information can be incorporated into vehicle control systems, with the objective of optimizing braking performance and improving vehicle stability and efficiency.

A third area focuses on rubber manufacturing. Teams are developing simulation and control tools intended to help manufacturers plan equipment operations and optimize production settings while maintaining consistent rubber quality and reducing raw material waste and energy consumption. The fourth area will examine how flexible materials affect air and water flows around objects. Researchers are developing control methods that can change the shape of components to modify the surrounding flows.

I-TireLab will give researchers access to industrial facilities, demonstrators and testing environments so they can evaluate methods under near-real-world conditions. The partners say findings could eventually contribute to future Michelin innovation projects.

One planned application involves Michelin Touch Intelligence, a tire digital twin introduced by the company in May 2026. The technology combines vehicle sensor data with Michelin models to estimate tire pressure, wear, load and grip in real time without requiring additional sensors. It is designed to work across vehicle brands and models.

The laboratory’s work on flexible composites could also support Wisamo, Michelin’s inflatable and retractable automated wingsail for ships. The system uses wind to supplement vessel propulsion and reduce fuel consumption. According to Michelin, the first sail is currently in the delivery phase.

Philippe Jacquin, Michelin’s general manager and director of research and development, said the partnership would help translate scientific research into practical innovations involving tires, manufacturing and tire-vehicle interactions. Michelin will contribute expertise in tire simulation, materials, industrial processes and product-use data, while the academic partners will provide theoretical and methodological expertise to develop and validate new approaches.

The collaboration will also support training for young researchers working across fundamental research, experimentation and industrial applications. Guillaume Mercère, director of I-TireLab, and co-directors John Martinez-Molina and Thibault Dairay said the initiative would bring researchers, engineers and young scientists together to improve mobility safety, manufacturing processes and flexible-material applications. The partnership builds on existing collaboration between Michelin and the academic teams and establishes a longer-term framework for converting data into knowledge and practical solutions.

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Soren Lindberg

Soren Lindberg covers steering and suspension components, including shock absorbers, struts, control arms, ball joints, and wheel hub bearings for automotive aftermarket and OEM supply chains. He evaluates damping force, spring stiffness, bearing preload, fatigue cycles, and dimensional tolerances using stated test conditions rather than unsupported equivalence claims. His work helps chassis engineers, fleet maintenance managers, and aftermarket category buyers assess fitment coverage, durability evidence, and lifecycle cost before specifying replacement parts.