Development of Electrospun 3D Biomaterials
Understanding the properties of 3D biomaterials can lead to new methods of repairing torn ligaments.
Brendan Brookhouser
FURI: Fall 2019
Julianne Holloway
Julianne L. Holloway is currently an assistant professor in chemical engineering at Arizona State University, where she began in 2016. Her research interests are in the field of tissue engineering, with a focus on designing materials to mimic the native biochemical and biophysical cues of musculoskeletal tissues.
Total projects: 10
Projects
Production of NorHA Microspheres for Peptide Tethering
Producing microspheres that have stem cells, peptides and biomolecules tethered to the surface will aid in generating new tissue for bone.
Jasmine Davis
FURI: Spring 2019
Electro Supn Rolled Scaffolds
Studying the mechanical properties of electro spun scaffolds will help educate people on biomedical applications of electrospinning.
Improving Offset Electrospinning for the Tendon-Bone Junction
Creating an improved resolution of the rotator cuff tendon-bone junction will help develop improved injury recovery techniques.
Studying Osteogenesis and Mineralization within Hyperglycemic In Vitro Cell Culture Models
Andrew D'Arcangelis
MORE: Fall 2018
Effects of Spatially and Temporally Manipulated Bioactive Signals on hMSC Behavior on NorHA Hydrogels
Amber Sogge
FURI: Fall 2018
3D Printing for Spatiotemporal Control of Stem Cell Behavior
Developing Novel 3D Printed Hydrogel-based Bioinks
Andrew D'Arcangelis
MORE: Spring 2018
Chemical Gradient Fabrication through Electrospinning
Minh Le
FURI: Spring 2018
In Vitro Cell Culture Model on the Influence of Advanced Glycation End-Products and Type 2 Diabetes
Lindsey Macias
MORE: Spring 2018
