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Metasoft imagines the soft matter of tomorrow to create flexible robots,
understand complex fluids and respond to major environmental challenges

Soft matter   Flexible robotics  CO₂ recovery

About us

Metasoft Matter is a flagship research program of Université PSL dedicated to the exploration of soft matter. By combining cutting-edge expertise in soft materials, metamaterials, robotics, design, and artificial intelligence, it aims to address major technological and environmental challenges.

Led by ESPCI Paris - PSL, the program relies on a unique interdisciplinary network to develop innovative soft robots, deepen our understanding of complex fluids and amorphous solids, and propose new sustainable solutions for recycling, water resource management, and CO₂ valorization.

By placing soft matter at the heart of innovation, Metasoft reflects PSL’s ambition to remain a key player in the scientific and technological breakthroughs of tomorrow.

Metasoft explores the soft matter of the future - programmable, active and sustainable - to invent the intelligent materials and flexible technologies that will shape the future

The main areas of research

Soft materials and flexible robotics

Combining expertise in soft materials, metamaterials, flexible robotics and design to invent the flexible robots of the future.

Complex fluids and amorphous solids

Investing in research into complex fluids and amorphous solids, which are essential for strategic industrial applications

Environmental impact

Developing innovative strategies to complement current efforts in recycling, water management and CO₂ recovery.

Schools and industrial partners involved

The Metasoft Major Program is supported by Université PSL and involves five of its schools: ESPCI Paris - PSLChimie Paris - PSL, ENS - PSLENSAD - PSL et Mines Paris - PSL, as well as industrial partners : Syensqo, Saint-Gobain, Urgo Laboritories, Safran, Scipath, LVMH.
 
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Our events

Our projects

Gelling non-Newtonian drops impacting on liquids

The project aims to understand how “complex” liquid droplets transform into small solid beads or capsules when they fall into another liquid, in order to better control their final shape.

MAGMA

The project develops small soft robots capable of changing shape remotely using magnets, by employing lightweight and porous materials specifically designed to respond to magnetic fields.

MOLECULARSOFT

The project seeks to observe how molecules move within extremely small, almost invisible spaces, in order to better understand the behavior of liquids at the nanometer scale.