More Information: Minus iconIcon indicating subtraction, or that the element can be closed. Plus IconIcon indicating addition, or that the element can be opened. Arrow (down) icon.An arrow icon, usually indicating that the containing element can be opened and closed.

Human Pluripotent Stem Cells in Cell Therapy

Parkinson’s disease

Our lab has worked for more than a decade on developing a cell therapy for Parkinson’s disease (PD). We have tested many types of stem cells over the years as a potential source of dopamine neurons. However, only recently have we resolved some of the major challenges in generating the correct nerve cell type at sufficient scale and purity. Using this novel differentiation strategy we have demonstrated that lab-grown dopamine nerve cells can efficiently engraft and function in mouse, rat or monkey models of PD.

Based on those results, we are currently pursuing the development of a clinical-grade dopamine neuron cell product and are in the process of generating the data necessary for an IND (investigational new drug) application from the FDA, which is required for the first human clinical use of human ESC-derived dopamine neurons. This is a project supported through a consortium award from New York’s Empire State Stem Cell Board (NYSTEM).

In addition to pursuing the first clinical application of human ESC-derived dopamine neurons, we continue to work on detailing the mechanisms of graft function by implementing novel tools such as optogenetics, a technology that enables “switching off” or “switching on” grafted cells in freely moving animals. Using genetic reporter tools and surface marker screening technology, we are also further defining the optimal composition of a midbrain dopamine neuron graft. Insights from those studies should go toward further improving cell therapy for PD in the future.

Other CNS & PNS disorders

We are interested in applying our ability to generate disease-relevant cell types and in establishing clinical-grade protocols for the development of cell therapy approaches in other CNS and PNS disorders. Collaborative studies are ongoing to explore the potential of hPSC derivatives such as oligodendrocytes, Schwann cell precursors, and peripheral neurons.