PROJECTS

I work at the interface of materials science and stem cell biology to address major challenges in healthcare and life science.

Representation of the whole research activity by Kaveh Roshanbinfar. It shows design and development of microparticulate bioinks, multimaterial bioinks, light activated or photocrosslinkable bioinks, and electrically conductive bioinks. One the left side, two main methods for 3D bioprinting tissues is shown. In support bath printing known as FRESH printing and free stand or in air 3D bioprinting.
at the bottom of the image, it is shown that hiPSCs are differentiated into cardiomyocytes and neural cells.

Electrically conductive materials for biological applications

One of the central themes of my research over the last years has been elucidating the interplay between electrical properties of the extracellular matrix on cellular behavior with a focus on excitable cells.

Excitable cells are electrically active and generate action potentials thereby communicating with their neighboring cells and performing their physiological action. We found that different electrical properties of their matrices change how these cells respond, grow, and evolve.

Tools to generate Systems that address challenges in Life Science and Healthcare.

Image shows the overall path of the research by Kaveh Roshanbinfar. It states utilizing tools (biomaterials, stem cells, and 3D bioprinting) to generate and develop systems (implants, scaffolds, tissue models) for multiple applications (tissue regeneration, studying biology, and pharmaceutical screening for pharma industry).

My research and technology utilize biomaterials, stem cells, and 3D bioprinting to create implants, engineered tissues, scaffolds, and tissue models. These systems are then applied for tissue regeneration and tissue engineering, to study the physiology and pathology of tissues, or for pharmaceutical screenings. Trust us to provide you with the latest advancements in the field of tissue engineering.