Clemson University

Musc Foundation for Research Development

The University of Chicago

Izumi International, Inc.

Ying Mei

Bozhi Tian

Michael J Yost

Chung-Jen James Chou

Donald R Menick

Tan Yu

Michael Chappell

Walter Boylan

Jia Jia

Dylan Richards

Thomas Trusk

The present invention provides an in vitro method for identifying a compound that promotes endothelial cell adhesion, endothelial cell spreading, endothelial cell migration and/or endothelial cell proliferation for the manufacture of a diagnostic or therapeutic agent. The present invention further provides the identified compounds and pharmaceutical compositions, and assays and kits for identifying a compound or using a compound that promotes endothelial cell adhesion, endothelial cell spreading, endothelial cell migration and/or endothelial cell proliferation and is useful for bioprinting.

Bi-functional arginine-glycine-aspartic acid (RGD) peptides and methods to promote angiogenesis

Described herein are tissues containing semiconductor nanomaterials. In some embodiments, the tissues include vascular cells, cardiomyocytes, and/or cardiac fibroblasts. The tissue may be scaffold-free. In some embodiments, the tissue includes an electrically conductive network. The tissue may exhibit synchronized electrical signal propagation within the tissue. In some embodiments, the tissue exhibits increased functional assembly of cardiac cells and/or increased cardiac specific functions compared to a cardiac tissue prepared using a conventional tissue culture method. Methods of preparing and using such tissues are also described herein.

Cardiac tissues containing semiconductor nanomaterials and methods of preparing and using the same

Disclosed are systems, compositions, and methods for three-dimensional (3D) printing. An example system includes a plurality dispensers configured to deposit materials from their tips and a printing surface for receiving the materials. The system includes a position sensing detector configured to detect positions of the tips of the dispensers and the location and dimensions of the printing surface. The system includes a robotic positioning device configured to drive the dispensers. The system also includes a control unit configured to receive and map in a 3D space the positions of the tips of the dispensers and the position and dimensions of the printing surface. The control unit is further configured to control the robotic positioning device to drive the dispensers relative to the printing surface in the 3D space, and to independently deposit materials on the printing surface, or on material deposited on the printing surface.

Multidispensor cartesian robotic printer

Growing community of inventors

Mount Pleasant, SC, United States of America

Ying Mei