A professor of biomedical materials engineering science at the Inamori School of Engineering at Alfred University (Alfred, NY), has done research showing that the risk of bone loss associated with osteoporosis can be predicted using a patient?s toenail clipping and Raman spectroscopy.
Mark Towler, a professor of biomedical materials engineering science at the Inamori School of Engineering at Alfred University (Alfred, NY), has done research showing that the risk of bone loss associated with osteoporosis can be predicted using a patient’s toenail clipping. Towler’s test, the Bone Quality Test (BQT) uses Raman spectroscopy done at the point-of-care.
The BQT involves aiming a 785 nm laser beam with power up to 400 mW at a toenail clipping from a subject. The information recorded from the laser beam evaluates the presence of certain proteins in the nail clipping, measuring the quality of the protein phase of the subject’s bones.
Towler noticed that osteoporosis patients saw improved strength and appearance in their nails after taking medication for osteoporosis. Raman spectroscopy analyses showed differences in the protein structures between the nails of healthy patients and those with osteoporosis.
Crescent Diagnostics (Dublin, Ireland), which Towler co-founded in 2004, hopes to launch the BQT test within a year in Europe and expand into the U.S. market in the next 18 months, pending U.S. FDA approval.
Best of the Week: EAS Conference Coverage, IR Spectroscopy, Microplastics
November 22nd 2024Top articles published this week include highlights from the Eastern Analytical Symposium, a news article about the infrared (IR) spectroscopy market, and a couple of news articles recapping spectroscopic analysis of microplastics.
FT-IR Analysis of pH and Xylitol Driven Conformational Changes of Ovalbumin–Amide VI Band Study
November 21st 2024This study uses Fourier transform infrared (FT-IR) spectroscopy to analyze how the globular protein ovalbumin's secondary structures transition under varying pH conditions in the presence of the cosolvent xylitol, highlighting the role of noncovalent interactions in these conformational changes.