Company research projects supported by PIPE Program

• Abstract

  Extrusion-based 3D bioprinting is one of the most used technologies to fabricate complex biological structures. A compromise between printability and biocompatibility is needed to make bioinks, or hydrogels, suitable for these applications. It means that adequate rheological behavior and shape retention, as well as the ability of providing a cell-friendly and pro-regenerative environment,…

  Tissue-specific hydrogels derived from decellularized extracellular matrix with adjustable mechanical properties: characterization and applications in the (bio)medical field, AP.PIPE

• Abstract

  The development of hydrogels for application in regenerative medicine, tissue engineering and in vitro studies that require three-dimensional cell culture has been the focus of intense investment by universities and companies around the world. These hydrogels seek to mimic features of the extracellular matrix environment, such as biochemical clues and biomechanical stimuli. Taking into ac…

  Characterization of extracellular matrix mimetic hydrogels derived from multiple tissues and their influence on cell behavior, AP.PIPE

• Abstract

  The development of biomaterials for application in 3D bioprinting of tissues and organs has been the focus of diverse research around the world. Conventionally, 3D bioprinting has been carried out with the help of extrusion technologies, but other interesting and advantageous techniques are gaining space. Stereolithography (SLA) has been increasingly used in biomedical and translational r…

  Development of photocurable biological resins based on extracellular matrix for 3D Bioprinting of human tissues by stereolithography, AP.PIPE

(Only some records are available in English at this moment)