Highlights

(Courtesy of University of Texas at Arlington)
A team led by researcher Dr. Hanli Liu (right) is currently developing a dual-mode brain sensing device that pairs near-IR spectroscopy with EEG for quicker, more accurate detection of Alzheimer’s disease.
A team led by researcher Dr. Hanli Liu (right) is currently developing a dual-mode brain sensing device that pairs near-IR spectroscopy with EEG for quicker, more accurate detection of Alzheimer’s disease.
A team led by researcher Dr. Hanli Liu (right) is currently developing a dual-mode brain sensing device that pairs near-IR spectroscopy with EEG for quicker, more accurate detection of Alzheimer’s disease.
A team led by researcher Dr. Hanli Liu (right) is currently developing a dual-mode brain sensing device that pairs near-IR spectroscopy with EEG for quicker, more accurate detection of Alzheimer’s disease.
A team led by researcher Dr. Hanli Liu (right) is currently developing a dual-mode brain sensing device that pairs near-IR spectroscopy with EEG for quicker, more accurate detection of Alzheimer’s disease.
Bio&Life Sciences

Dual-mode brain sensing device could detect Alzheimer’s quicker

Dec. 22, 2022
A new combination method pairing spectroscopy and EEG could lead to better, more effective treatments for the brain diseases.
(Courtesy of InSpek)
FIGURE 1. Schematic principle of waveguide-enhanced Raman spectroscopy (WERS). The excitation laser propagates in a waveguide; the evanescent field of the waveguide mode excites the analyte present at the surface of the chip. Some of the generated Raman signal is collected by the waveguide and guided to the spectrometer for detection.
FIGURE 1. Schematic principle of waveguide-enhanced Raman spectroscopy (WERS). The excitation laser propagates in a waveguide; the evanescent field of the waveguide mode excites the analyte present at the surface of the chip. Some of the generated Raman signal is collected by the waveguide and guided to the spectrometer for detection.
FIGURE 1. Schematic principle of waveguide-enhanced Raman spectroscopy (WERS). The excitation laser propagates in a waveguide; the evanescent field of the waveguide mode excites the analyte present at the surface of the chip. Some of the generated Raman signal is collected by the waveguide and guided to the spectrometer for detection.
FIGURE 1. Schematic principle of waveguide-enhanced Raman spectroscopy (WERS). The excitation laser propagates in a waveguide; the evanescent field of the waveguide mode excites the analyte present at the surface of the chip. Some of the generated Raman signal is collected by the waveguide and guided to the spectrometer for detection.
FIGURE 1. Schematic principle of waveguide-enhanced Raman spectroscopy (WERS). The excitation laser propagates in a waveguide; the evanescent field of the waveguide mode excites the analyte present at the surface of the chip. Some of the generated Raman signal is collected by the waveguide and guided to the spectrometer for detection.
Bio&Life Sciences

Versatility, continued advancement help Raman spectroscopy shine

July 21, 2022
Since its inception nearly a century ago, Raman spectroscopy has evolved into a powerful tool for biomedical research.
Thermo Fisher Scientific
Thermo Fisher Scientific
Thermo Fisher Scientific
Thermo Fisher Scientific
Thermo Fisher Scientific
Bio&Life Sciences

Spectrophotometer features sample-retention technology

June 9, 2022
The NanoDrop Lite Plus Microvolume UV-Vis spectrophotometer measures purified DNA, RNA, and protein concentration up to 30 Abs.
Teledyne Princeton Instruments
Teledyne Princeton Instruments
Teledyne Princeton Instruments
Teledyne Princeton Instruments
Teledyne Princeton Instruments
Detectors & Imaging

CCD cameras feature deep-depletion design

April 24, 2022
The LANSIS 261 CCD cameras also feature a 30.72 × 3.96 mm sensor.
Yfi Winners
Yfi Winners
Yfi Winners
Yfi Winners
Yfi Winners
Fluorescence

HORIBA Scientific presents 2020 Young Fluorescence Investigator Award

The Young Fluorescence Investigator Award is presented to a researcher who has been nominated by their peers for significant advancements and/or contributions in or using fluorescence...
Rajaram Lab
Rajaram Lab
Rajaram Lab
Rajaram Lab
Rajaram Lab
Spectroscopy

Optical imaging for cancer treatment monitoring is focus of NIH grant

A grant from the National Institutes of Health will support the pursuit of optical imaging technologies that can identify treatment-resistant tumors early in the treatment process...
Ods Medical Ods Medical Inc Announces Sentry System Prototype
Ods Medical Ods Medical Inc Announces Sentry System Prototype
Ods Medical Ods Medical Inc Announces Sentry System Prototype
Ods Medical Ods Medical Inc Announces Sentry System Prototype
Ods Medical Ods Medical Inc Announces Sentry System Prototype
Spectroscopy

Raman spectroscopy instrument receives testing authorization for brain cancer surgeries

The handheld instrument performs real-time Raman spectroscopy measurements of normal brain tissue, cancerous tissue, and in areas around the tumor.
2019 07 22 Rudack Gerwert Jacs Tk
2019 07 22 Rudack Gerwert Jacs Tk
2019 07 22 Rudack Gerwert Jacs Tk
2019 07 22 Rudack Gerwert Jacs Tk
2019 07 22 Rudack Gerwert Jacs Tk
Spectroscopy

Spectroscopy method helps detect deactivation mechanism for switch proteins

After identifying various speeds for the deactivation process, the researchers compared the calculated speeds with values gained in experiments through spectroscopy.
059905 Adv Stroke Detection
059905 Adv Stroke Detection
059905 Adv Stroke Detection
059905 Adv Stroke Detection
059905 Adv Stroke Detection
Spectroscopy

Spectroscopy device is promising for quick detection of stroke

The device, which relies on the combination of two optical spectroscopy techniques, could be used to quickly and noninvasively diagnose cerebral ischemia.