Lumera Reaches Agreement with the MUSC
News Feb 08, 2006
Additionally, MUSC and Lumera announced they will co-develop a new protein chip, based on Lumera's NanoCapture™ HPT technology, which will be aimed at the growing drug discovery and toxicology market.
"Our agreement with MUSC represents a significant milestone for our Bioscience division," said Lumera CEO Tom Mino.
"We believe the researchers at MUSC are truly innovative in their approach to developing next generation toxicology methods aimed at speeding up the drug discovery process. We see great potential for the jointly developed intellectual property."
Lumera's NanoCapture™ HPT technology is a proprietary surface coating and related methods, which allows proteins to be bound to a surface and remain biologically active.
"In the emerging field of protein arrays, no standard has been created for attaching proteins to a chip. We believe that with our HPT technology, we are going to be able to define the standard," said Ron Dudek, Lumera's Bioscience Product Group Manager.
"Lumera's approach is entirely unique," said Dr. Craig Beeson, Associate Professor in the South Carolina College of Pharmacy at MUSC.
"With the combined power of Lumera's ProteomicProcessor™ and NanoCapture™ HPT technologies, we feel as though we can catapult our research in mitochondrial biology to the forefront of the drug toxicology screening arena."
Under this agreement, Lumera retains rights to commercialize all jointly developed intellectual property.
‘Good Cholesterol’ May Not Always be Good for Postmenopausal WomenNews
Postmenopausal factors may have an impact on the heart-protective qualities of high-density lipoproteins (HDL) – also known as ‘good cholesterol’ – according to a study led by researchers in the University of Pittsburgh Graduate School of Public Health.READ MORE
What Makes Good Brain Proteins Turn Bad?News
The protein FUS is implicated in two neurodegenerative diseases: amyotrophic lateral sclerosis (ALS) and frontotemporal lobar degeneration (FTLD). Using a newly developed fruit fly model, researchers have zoomed in on the protein structure of FUS to gain more insight into how it causes neuronal toxicity and disease.