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Researcher Advancing Motor Neuron Studies
Supported by the commitment of the University of Connecticut and the state to stem cell research, a UConn Health Center researcher is advancing the understanding of the devastating inherited condition known as spinal muscular atrophy.
Xue-Jun Li, assistant professor in the Department of Neuroscience, is corresponding author of a paper published in the prestigious journal Cell Research in December 2012 entitled “Recapitulation of spinal motor neuron-specific disease phenotypes in a human cell model of spinal muscular atrophy.” The paper’s other authors are UConn Health Center researcher Zhi-Bo Wang and Xiaoqing Zhang of the Tongji University School of Medicine in Shanghai.
Spinal muscular atrophy (SMA) is a group of inherited diseases that cause muscle damage and debilitation, which progress over time and eventually lead to death. To be affected, a person must inherit the defective gene from both parents. About 1 in 10,000 people have SMA, and most do not survive childhood due to respiratory problems, heart failure and infections.
“There is no effective treatment for spinal muscular atrophy, and one of the roadblocks is not knowing why the spinal motor neuron degenerates,” Li explains. “One of the aspects of our research is to understand how specific types of neurons are specified and degenerated. We are trying to model neurological disorders by using human motor neurons derived from stem cells.”
Establishing human cell models of SMA to mimic motor neuron-specific phenotypes holds the key to understanding this destructive disease, she says. The model described in the journal article provides a unique paradigm for studying how motor neurons degenerate. It also highlights the potential importance of antioxidants for the treatment of SMA.
Understanding how motor neurons are specifically degenerated can lead to effective interventions in the future. “It can help us find some way to rescue the motor neuron degeneration in this disease,” Li points out. “Understanding the role of antioxidants can provide potential clues to finding a treatment.”

Researcher Advancing Motor Neuron Studies

Supported by the commitment of the University of Connecticut and the state to stem cell research, a UConn Health Center researcher is advancing the understanding of the devastating inherited condition known as spinal muscular atrophy.

Xue-Jun Li, assistant professor in the Department of Neuroscience, is corresponding author of a paper published in the prestigious journal Cell Research in December 2012 entitled “Recapitulation of spinal motor neuron-specific disease phenotypes in a human cell model of spinal muscular atrophy.” The paper’s other authors are UConn Health Center researcher Zhi-Bo Wang and Xiaoqing Zhang of the Tongji University School of Medicine in Shanghai.

Spinal muscular atrophy (SMA) is a group of inherited diseases that cause muscle damage and debilitation, which progress over time and eventually lead to death. To be affected, a person must inherit the defective gene from both parents. About 1 in 10,000 people have SMA, and most do not survive childhood due to respiratory problems, heart failure and infections.

“There is no effective treatment for spinal muscular atrophy, and one of the roadblocks is not knowing why the spinal motor neuron degenerates,” Li explains. “One of the aspects of our research is to understand how specific types of neurons are specified and degenerated. We are trying to model neurological disorders by using human motor neurons derived from stem cells.”

Establishing human cell models of SMA to mimic motor neuron-specific phenotypes holds the key to understanding this destructive disease, she says. The model described in the journal article provides a unique paradigm for studying how motor neurons degenerate. It also highlights the potential importance of antioxidants for the treatment of SMA.

Understanding how motor neurons are specifically degenerated can lead to effective interventions in the future. “It can help us find some way to rescue the motor neuron degeneration in this disease,” Li points out. “Understanding the role of antioxidants can provide potential clues to finding a treatment.”

Filed under spinal muscular atrophy muscular atrophy motor neurons neuron stem cells neuroscience science

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