Contents
- 1 Featured Research
- 1.1 Development of a 4D Printing Strategy for the Generation of Tissue Engineered Periosteum
- 1.2 3D Printed Scaffolds for Dynamic Stem Cell Coculture
- 1.3 Hybrid Biomaterials for Vascular Remodeling
- 1.4 3D Printed Bioengineering Placenta Model to Study Preeclampsia
- 1.5 Engineered Articular Cartilage
- 1.6 Transport Across the Placenta
- 1.7 Machine Learning Guided Bioprinting
- 1.8 3D Printed Nipple Areola Complex for Mastectomy Patients
Featured Research
Development of a 4D Printing Strategy for the Generation of Tissue Engineered Periosteum
This project focuses on developing a 4D printing strategy to enhance bioprinting resolution to produce biomimetic thin membranous tissues, such as the periosteum.
3D Printed Scaffolds for Dynamic Stem Cell Coculture
This project aims to develop a method for 3D printing a biomaterial for the expansion and differentiation of cocultured mesenchymal and hematopoietic stem cells.
Hybrid Biomaterials for Vascular Remodeling
This project focuses on the development of hybrid materials consisting of ECM proteins and polymer components to build a material for use in the surgical reconstruction of major vessels.
3D Printed Bioengineering Placenta Model to Study Preeclampsia
We believe that our bioengineered placenta model will be a powerful tool for researchers to test and to develop novel treatments for preeclampsia that could revolutionize the field.
Engineered Articular Cartilage
This project utilizes 3D printing technology and surface modification to develop an advanced biomimetic cartilaginous construct that contains a unique pattern for each zone to recapitulate the structural and mechanical cues of the native cartilage and thus induce the desired cellular response.
Transport Across the Placenta
We are currently working towards a tissue-engineered model of the placenta, recapitulating key regulatory features of placental transport, in order to better understand how some of these molecules may pass through.
Machine Learning Guided Bioprinting
In an effort to advance and clinically translate precision medicine technologies, we are performing automation of 3D bioprinting tissue fabrication processes and building physician-supporting machine-intelligent algorithms
3D Printed Nipple Areola Complex for Mastectomy Patients
The goal of this project is to use biomaterials to develop a 3D-printed nipple areola for patients with breast cancer that mimics the structural properties of natural tissue, is vascularized, and can integrate with the body.
