Project description

The brain is soft, dynamic, and complex, yet most current biomaterials interfacing the brain are rigid and static. NEUROSOFT aims to overcome this mechanical and biological mismatch by developing the next generation of brain-compatible interfaces. Our research focuses on bio-inspired materials—such as electroactive hydrogels and smart resorbable polymers—that mimic the brain’s natural elasticity and function to transform scientific breakthroughs into tangible clinical solutions.

Objective 1

Advanced Polymeric Biomaterials

We design and synthesize electroactive and resorbable polymers.

• The Goal: To create implants that can «speak» the electrical language of neurons but reabsorb safely once their mission is complete.

• Focus: Electroactive hydrogels and biodegradable scaffolds.

1.OBJECTIVE_Advanced_Polymeric_Biomaterials

Objective 2

Bio-inspired Fabrication

Using state-of-the-art advanced manufacturing techniques, we replicate the intricate architecture of neural tissues.

• The Goal: Tailor-made implants that match the brain’s mechanical properties and structure, ensuring long-term biocompatibility.

• Focus: High-resolution printing and two-photon polymerization.

2.OBJECTIVE_Bio-inspired_Fabrication

Objective 3

Functional Neural Interfacing

We study the materiobiology of how cells interact with synthetic surfaces.

• The Goal: To optimize the coupling between brain-interfacing biomaterials and neurons for superior recording and stimulation.

• Focus: Enhancing signal quality for epilepsy, Alzheimer’s, and Parkinson’s treatments.

3.OBJECTIVE_Functional_Neural_Interfacing

Objective 4

Translational Neurotechnology

We validate our materials in realistic environments to ensure clinical safety and efficacy.

• The Goal: Bridging the gap between the lab bench and the hospital bed by aligning designs with regulatory standards from day one.

• Focus: Preclinical validation and smart drug delivery systems.

4.OBJECTIVE_Translational_Neurotechnology