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A hydrogel that adheres firmly to cartilage and meniscus

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Two EPFL research groups, led by Dominique Pioletti and Pierre-Etienne Bourban, have created a biocompatible hydrogel that naturally adheres to soft tissues like cartilage and the meniscus. Their hydrogel, which is almost 90% water, can withstand mechanical stresses and extensive deformation and therefore eliminates the need for a separate binding process. Their research has been published in ACS Applied Materials & Interfaces. Two EPFL research groups, led by Dominique Pioletti and Pierre-Etienne Bourban, have created a biocompatible hydrogel that naturally adheres to soft tissues like cartilage and the meniscus. Their hydrogel, which is almost 90% water, can withstand mechanical stresses and extensive deformation and therefore eliminates the need for a separate binding process. Their research has been published in ACS Applied Materials & Interfaces. Two EPFL research groups, led by Dominique Pioletti and Pierre-Etienne Bourban, have created a biocompatible hydrogel that naturally adheres to soft tissues like cartilage and the meniscus. Their hydrogel, which is almost 90% water, can withstand mechanical stresses and extensive deformation and therefore eliminates the need for a separate binding process. Their research has been published in ACS Applied Materials & Interfaces. Two EPFL research groups, led by Dominique Pioletti and Pierre-Etienne Bourban, have created a biocompatible hydrogel that naturally adheres to soft tissues like cartilage and the meniscus. Their hydrogel, which is almost 90% water, can withstand mechanical stresses and extensive deformation and therefore eliminates the need for a separate binding process. Their research has been published in ACS Applied Materials & Interfaces. Two EPFL research groups, led by Dominique Pioletti and Pierre-Etienne Bourban, have created a biocompatible hydrogel that naturally adheres to soft tissues like cartilage and the meniscus. Their hydrogel, which is almost 90% water, can withstand mechanical stresses and extensive deformation and therefore eliminates the need for a separate binding process. Their research has been published in ACS Applied Materials & Interfaces. Two EPFL research groups, led by Dominique Pioletti and Pierre-Etienne Bourban, have created a biocompatible hydrogel that naturally adheres to soft tissues like cartilage and the meniscus. Their hydrogel, which is almost 90% water, can withstand mechanical stresses and extensive deformation and therefore eliminates the need for a separate binding process. Their research has been published in ACS Applied Materials & Interfaces. Two EPFL research groups, led by Dominique Pioletti and Pierre-Etienne Bourban, have created a biocompatible hydrogel that naturally adheres to soft tissues like cartilage and the meniscus. Their hydrogel, which is almost 90% water, can withstand mechanical stresses and extensive deformation and therefore eliminates the need for a separate binding process. Their research has been published in ACS Applied Materials & Interfaces. Two EPFL research groups, led by Dominique Pioletti and Pierre-Etienne Bourban, have created a biocompatible hydrogel that naturally adheres to soft tissues like cartilage and the meniscus. Their hydrogel, which is almost 90% water, can withstand mechanical stresses and extensive deformation and therefore eliminates the need for a separate binding process. Their research has been published in ACS Applied Materials & Interfaces. Two EPFL research groups, led by Dominique Pioletti and Pierre-Etienne Bourban, have created a biocompatible hydrogel that naturally adheres to soft tissues like cartilage and the meniscus. Their hydrogel, which is almost 90% water, can withstand mechanical stresses and extensive deformation and therefore eliminates the need for a separate binding process. Their research has been published in ACS Applied Materials & Interfaces.