Julianne Holloway

Modeling Mechanical Properties of Fibrous, Polymer Scaffolds as a Function of Fiber Alignment

Developing empirical models for tissue engineered scaffold properties will help target desired features that can match native tissue and promote healing.

Program: FURI

Modeling Mechanical Properties of Fibrous, Polymer Scaffolds as a Function of Fiber Alignment

Creating an empirical model that predicts the mechanical properties of fibrous scaffolds will allow for scaffolds that can mimic the mechanical properties of surrounding native tissue.

Program: FURI

Development of Electrospun 3D Biomaterials

Understanding the properties of 3D biomaterials can lead to new methods of repairing torn ligaments.

Program: FURI

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.

Program: FURI

Electro Supn Rolled Scaffolds

Studying the mechanical properties of electro spun scaffolds will help educate people on biomedical applications of electrospinning.

Program: FURI

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.

Program: FURI

Studying Osteogenesis and Mineralization within Hyperglycemic In Vitro Cell Culture Models

Program: MORE

Effects of Spatially and Temporally Manipulated Bioactive Signals on hMSC Behavior on NorHA Hydrogels

Program: FURI

3D Printing for Spatiotemporal Control of Stem Cell Behavior

Program: FURI

Developing Novel 3D Printed Hydrogel-based Bioinks

Program: MORE

Chemical Gradient Fabrication through Electrospinning

Program: FURI

In Vitro Cell Culture Model on the Influence of Advanced Glycation End-Products and Type 2 Diabetes

Program: MORE

The Effects of Advanced Glycation End-Products and Type 2 Diabetes on Bone Regeneration

Program: FURI