Articles

New hope for a cruel disease

Israel’s BrainStorm partners with New York’s Dana-Farber in Phase II ALS clinical trial to treat Lou Gehrig’s disease
Written byLori Lesko
| 3 min read

PETACH TIKVAH, Israel—Biotechnology firm BrainStorm CellTherapeutics has entered into an agreement with the Dana-Farber CancerInstitute to provide cGMP-compliant clean room facilities for production ofBrainStorm's NurOwn stem cell technology during an upcoming clinical trial foramyotrophic lateral sclerosis (ALS), also known as Lou Gehrig's disease.

Named for the popular Yankees slugger who retired frombaseball in 1939 at age 36 after losing the endurance, strength and speed heplayed the game with for 17 years, ALS is described by the Amyotrophic LateralSclerosis Association as a "progressive neurodegenerative disease … aparticularly cruel disease that destroys a person's ability to control allmuscle movement, typically striking adults in the prime of their lives."

Gehrig was diagnosed with ALS at the Mayo Clinic and died ofthe disease in 1941.

To continue reading this article, subscribe for FREE toDrug Discovery News Logo

Subscribe today to keep up to date with the latest advancements and discoveries in drug development achieved by scientists in pharma, biotech, non-profit, academic, clinical, and government labs.

Add Drug Discovery News as a preferred source on Google

Add Drug Discovery News as a preferred Google source to see more of our trusted coverage.

About the Author

Here are some related topics that may interest you:

Subscribe to Newsletter

Subscribe to our eNewsletters

Stay connected with all of the latest from Drug Discovery News.

Subscribe

Sponsored

3D illustration of a single cell surrounded by small molecular particles in a red biological environment.
Measuring mRNA and protein together at single cell resolution can uncover tumor-specific signaling activity and immune features.
Illustration of an antibody intertwined with a DNA double helix.
Discover how CRISPR and single-cell RNA sequencing can connect disease-associated variants to regulatory elements, genes, and pathways.
Digital illustration of the human digestive system highlighting the liver, stomach, and intestines.
Explore how human gut-liver models can improve the translation of preclinical findings into clinical pharmacokinetic predictions.