Kidney stones rank among the most common illnesses. Their recurrence may be prevented with the right post-operative care. However, for this to be effective, the composition of the stones needs to be known. Fraunhofer researchers are developing a Raman spectroscopy based system for rapid analysis of urinary stones immediately after the surgical procedure.
A new infrared light source with unprecedented sensitivity allows molecular fingerprints of cancer cells.
The National Physical Laboratory (NPL) in the UK has used tip-enhanced Raman spectroscopy to map catalytic reactions at the nanoscale for the first time.
Ultrafast infrared spectroscopy has shown that long-lived sub-structures exist in liquid water by measuring the vibrations of the O–H bonds.
Raman microscopy is being used alongside high-resolution X-ray diffraction to unpick the reasons for crystallographic defects in SiC bulk crystal and epitaxial film, which limit the commercialisation of SiC devices.
Canadian researchers have used SERS to screen blood samples for molecular traces that indicate the presence of precancerous polyps in the colon, a key warning sign for colon cancer. Their results may yield a cheaper and less invasive initial screening test for colon cancer that could complement colonoscopy, though further clinical trials will need to demonstrate the safety and effectiveness of the blood test before it is routinely used.
In initial tests, a novel near infrared spectroscopy device assesses shock severity as accurately as a standard blood sample, without a single needle prick.
A microscope being developed at the US Department of Energy’s Oak Ridge National Laboratory will allow scientists studying biological and synthetic materials to simultaneously observe chemical and physical properties on and beneath the surface.
Raman spectroscopy helps lithium-air batteries live up to their promise: we could one day be driving electric cars 500 miles or more without recharging, or using laptops for weeks without having to plug in. They could also replace lithium-ion batteries, currently the standard in many consumer electronics.
A Lab-on-a-Disc platform combined with Raman microscopy and developed by a German and Irish team of researchers can dramatically cut the time to detect bacterial species that cause urinary tract infections—a major cause of sepsis—from 24 hours to within 70 minutes.
Diseases like Alzheimer’s are caused when proteins aggregate and clump together. Using atomic force microscopy and infrared spectroscopy, EPFL scientists have successfully distinguished between the disease-causing aggregation forms of proteins. The finding can help change pharmaceutical treatment of neurodegenerative diseases.
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- Atomic absorption
- Atomic emission
- Ion mobility
- Laser spectroscopy
- Mass spectrometry
- Near infrared
- NMR ESR EPR
- North America
- Related equipment
- RMs and standards
- Separation science
- South America
- Surface analysis
- X-ray spectrometry