A Raman spectrometer uses orthogonal polarized wavelengths to collect separate spectra for decomposition into a clean signal.
Excitation-preventing light shields luminophores from electronic excitations, reducing bleaching while maintaining high spatial resolution.
Vibrational spectroscopy captures unique lipid signatures to detect cardiovascular disorder risk.
A double nanohole plasmonic assembly traps single protein molecules using localized optical fields without physical tethers.
A pulsed light inspection apparatus detects photoluminescence and Raman scattered light simultaneously through a shared objective lens.
A portable molecular signature detector uses Raman spectroscopy to identify unique cancer patterns in shed molecules.
A Raman analysis apparatus integrates a temperature elevation unit and gas supplier to enable real-time spectral measurement of samples under elevated conditions.
Arrays of nanostructures functionalized via phosphonic acid linkers replace expensive gold to reduce cost while maintaining chemical stability.
A miniature multi-spectral system fuses spectral outputs from multiple spectrometers to identify pathogens in samples.
Structured illumination segments the sample field to reduce secondary scattering, improving confocality without slowing acquisition speed.
Backward-propagating air laser beams enable single-ended remote detection of molecular species, eliminating ionization requirements and spark formation risks.
Asymmetric nano finger geometries enable directional closure, resolving sensitivity and control trade-offs in surface enhanced luminescence sensors.
Segmented movable reactor resolves spatial profiles of catalyst properties, overcoming background interference in operando measurements.
Hexagonal protrusions create localized gaps that boost electric field intensity, resolving the trade-off between sensitivity and analyte adsorption.
Two-dimensional gold nanoparticle monolayers enhance surface-enhanced Raman scattering signals through strong localized electromagnetic fields.
A pinching holding part secures the SERS element to the transport board, preventing optical function deterioration from adhesives.
A sensor chip uses a closed space-forming member to adjust internal water content relative to the metal thin film area.
Segmented illuminating fibers enable mathematical subtraction of fiber Raman noise, improving signal-to-noise ratios in biological tissue measurements.
A Raman spectroscopic method classifies cell culture medium signals to assess growth activity without invasive sampling.
Periodic 3D nanowire arrays replace random nanoparticles to resolve signal reproducibility issues in large-area trace chemical detection.
Patterned hydrophilic and hydrophobic regions on a SERS substrate control analyte distribution, improving signal reproducibility and detection limits.
A dark-field UV irradiation filter unit enables fluorescence observation in Raman microscopes using a long-pass filter and UV-LED elements.
Segmented spectral regions and polar diameter filtering resolve peak overlap, reducing model complexity while maintaining classification accuracy.
A SERS chip uses multiplex molecular probes to generate distinct spectral profiles for simultaneous analyte detection.
Segmenting the sensor chip into a disposable cartridge eliminates manual alignment time while maintaining light coupling efficiency.
A CIE-Infrared chart classifies chemicals using three IR optical filters to mimic human color vision principles.
Three-dimensional metal nanostructures on a substrate create surface-enhanced Raman scattering hot spots to resolve weak single molecule signals.
Portable optical system uses independent bio-imaging probes to correlate spatial data for rapid tissue analysis.