Tag: tissue engineering
The promise of tissue engineering stretches the limits of our imagination.
Biotechnology in general, and stem cell research in particular, has made great strides in spurring the growth (and re-growth) of specific human cell types. But cells alone cannot replace human tissue. Cells need scaffolds to serve as structural guides while growing into useful tissues or life-saving drug delivery systems.
Cell-scale scaffolds share similarities with building-scale scaffolds used in construction projects. Viable scaffolds allow for the mass transport of oxygen and nutrients. These scaffolds can direct the growth of cells migrating from nearby tissue or provide a foothold for new tissue growth. This directed growth could be used to replace destroyed nerves or heal fractured bones, damaged blood vessels, or parts of diseased organs.
Tissue engineering researchers at WID are laying the research foundation for these transformative scaffolding technologies. Ultimately, their work aims to heal damaged tissues with remarkable speed and minimal complications.
By working at the intersection of biotechnology and nanotechnology, tissue engineering researchers are building a library of scaffolding materials and cost-effective, mass-production methods that will work for a variety of cell types used in a wide range of in-body applications.
Neha Kulkarni
ePTFE expansion of polymer to be used for artificial blood vessels
Mackenzie Beam
Mechanism that links neurodegenerative diseases to lysosomal and endosomal dysfunction.
Jacobus (Jack) Burger
Developing biomedical nanomaterials for drug delivery applications
WID alumnus awarded first AAAS Science & Technology Policy Fellowship in the U.S. Department of the Treasury
WID and Saha Lab alumnus, and current postdoc at the Morgridge Institute for Research, Amritava Das anticipates that he will put his engineering and bioscience training to use exploring the sometimes knotty connections between science, national security, and finance.
Micro-Molded ‘Ice Cube Tray’ Scaffold is Next Step in Returning Sight to Injured Retinas
WID’s Sarah Gong is part of a team that developed a micro-molded scaffolding photoreceptor “patch” to be implanted under damaged or diseased retinas, the next step in restoring sight.
Randolph Ashton and Collaborators Win WARF Innovation Award
WID’s Randolph Ashton, Gavin Knight, Benjamin Knudsen, and Nisha Iyer take top honors from the Wisconsin Alumni Research Foundation’s Innovation Awards. Their work, Superior Neural Tissue Models for Disease Modeling, Drug Development and More, was selected from more than 400 innovation disclosures.
Dan Cappabianca
Novel CAR T Cell therapy development in translational and bench top settings
Brady Lundin
Creating and utilizing neural tissue engineering platforms for the study of clinical disease.
Susan Thibeault
Professor, Diane M. Bless Endowed Chair in Otolaryngology
Vocal fold mucosa biology in health and disease
New Tool for Assessing Heart Muscle Cells Helps Unlock Their Potential
A team of UW-Madison researchers led by Discovery Fellow Wendy Crone has created a powerful tool to help assess what experimental factors help to produce stem cell-generated cardiomyocytes that behave like adult heart cells.
Huaguang Yang
Polymer Processing, Polymer Foaming, Composites, Injection molding and innovative plastics manufacturing processes
Keerthana Shankar
Virus-free CAR Natural Killer (CAR) NK cell therapies for solid tumors
Shivani Saxena
Engineering cells and organism via genome editing and studying the delivery method for CRISPR/Cas9
Award-winning Grad Student Research Could Benefit Industry
Three members of Lih-Sheng (Tom) Turng’s research group at WID won top awards for their exceptional research papers in March.
Uncovering a Connection Between Regulators and Genes During Early Neurodevelopment
WID researchers used a collaborative combination of computational and wet lab experimental techniques to find a connection between a transcription factor and a neurodevelopment gene.
New Technique Enables Versatile 3D Control Over Stem Cell-Derived Organoids
WID researchers Randolph Ashton and Tom Turng partnered on a project to create hydrogel molds that will allow them to more precisely control the three-dimensional structures of organoids.
Revolutionary Engineered Blood Vessels Behave Like the Real Thing
WID’s Tom Turng envisions a future in which surgeons can order mass-produced artificial blood vessels that arrive ready to use in bypass surgeries.