Articles tagged with Atomic Absorption Spectroscopy
Researchers at JGU and HIM develop a novel method for atomic structure investigation, discovering new samarium absorption lines with enhanced multichannel DCS approach. The technique enables high-resolution, broadband spectroscopy with improved signal-to-noise ratio.
Birgitta Schultze-Bernhardt is developing a portable device that can determine the concentration of several gaseous pollutants in ambient air with utmost accuracy, measuring three pollutants simultaneously. The device will enable real-time monitoring of pollution levels in cities and industrial areas.
Researchers developed an on-chip detector that uses phonon polaritons to enhance molecular fingerprint detection. This compact design enables ultra-sensitive gas sensing and paves the way for medical diagnostics and environmental monitoring.
The new resonators exhibit a record low UV light loss, enabling the development of miniaturized devices for applications such as spectroscopic sensing, underwater communication, and quantum information processing. The researchers achieved this by combining optimized design and fabrication techniques with amorphous alumina materials.
Researchers create a nanocapsulation strategy to solubilize insoluble aromatic polymers in water, enhancing their processing and development. The approach uses bent aromatic amphiphiles to form micelle-like nanocapsules that encapsulate hydrophobic molecules.
Researchers developed a technique to 'see' fine structure and chemical composition of human cells with high resolution. The new method uses infrared light to reveal chemical signatures without fluorescent labeling.
Researchers develop new theory for attosecond transient absorption spectroscopy of polyatomic molecules, revealing electron-nuclear dynamics. The technique provides sufficient resolution to study decoherence of electron motion caused by nuclear rearrangement.
Researchers have developed a new type of fluorescent carbon dot that can effectively detect calcium levels in cells. The CDs exhibit bright blue fluorescence and have been shown to be nontoxic and biocompatible, making them a promising probe for intracellular Ca2+ detection.