
This application note demonstrates the adeptness of the BLADE™, a sequential digestion system, in efficiently and rapidly digesting various forms of dietary supplements for sample preparation and elemental analysis by ICP-MS.

This application note demonstrates the adeptness of the BLADE™, a sequential digestion system, in efficiently and rapidly digesting various forms of dietary supplements for sample preparation and elemental analysis by ICP-MS.

XperRAM S combined with a phase shifting interferometer is capable of analyzing the surface structure of nanomaterials such as graphene, 2D materials, and TMD.

The ever-changing world demands innovations in analytical instrumentation to solve pressing challenges and meet modern analytical needs.

This work focuses on the analysis of potable waters using the Avio® 220 Max hybrid simultaneous ICP-OES

This work demonstrates the ability of the NexION® ICP-MS to measure silver (Ag) nanoparticles in seawater and track their transformations over time.

This work has demonstrated the ability of the NexION 2000 ICP-MS to analyze both natural and drinking water samples.

This work demonstrates the ability of the Avio 560 Max ICP-OES to perform rapid analysis.

This work presents a method for the direct analysis of trace elements in coastal seawater using the NexION® 2000 ICP-MS.

Our GoldenEye is the only Snapshot hyperspectral imager covering from 400-1100nm.

By adding a FLIM module to the inVia Raman microscope, you can directly correlate Raman and fluorescence lifetime images with ease.

The efficient, rapid sample preparation and analysis of dietary supplements for elemental impurities is demonstrated using the BLADE, a sequential digestion system.

This work describes Raman and IR spectroscopies as a viable means of comparing CO2 concentrations.

This work demonstrates the capability of the NexION® 2200 ICP-MS to effectively analyze petroleum distillates according to the ASTM D8110-17 method requirements.

IR Laser Imaging offers higher power density than traditional MIR sources, creating excellent IR spectral data in less time than what is needed for FT-IR acquisition.

By adding a FLIM module to the inVia Raman microscope, you can directly correlate Raman and fluorescence lifetime images with ease.

In this application note, we use a compact, high-resolution spectrometer to investigate the reflectance properties of graphite samples in powder form.

In this application note, we evaluate the effectiveness of a modular spectrometer for measuring the absorbance of optical filters and potassium dichromate standards.

Its high SNR and excellent thermal stability make the Ocean SR6 spectrometer desirable for applications including DNA analysis and protein concentration measurements.

In this application note, we use an Ocean ST-UV microspectrometer (185-650 nm) to measure the absorbance of whole blood and methemoglobin.

In this application note, a microspectrometer is evaluated as an option for measuring the fluorescence of the compounds Europium chloride and Terbium chloride.

Using modular Raman spectroscopy to monitor and optimize UV-cured epoxies applied during die-attach processes in semiconductor assembly.

Utilize absorbance spectroscopy to measure concentration levels of active pharmaceutical ingredients before and after Cleaning-in-Place processes.

In this application note, we use the RMS1000 confocal Raman Microscope to characterize and spatially resolve the optoelectronic properties of a fabricated OLED.

The Lock-in Amplifier is intuitive and precise for self-heterodyne signal detection in SRS microscopy, a critical component in modulation transfer detection.

Learn how to achieve multiple-frequency lock-in detection capability using Multi-instrument Mode for Moku:Pro.

Using the Moku:Lab Lock-in Amplifier (LIA)

Learn how the PLL frequency multiplier and divider can be used for harmonic demodulation and generating reference signal harmonics and sub-harmonics.

See Raman imaging investigate living cell components & plant cell walls, recognize atherosclerosis, differentiate malignant cells, monitor lipid uptake, and more.

University of Washington researchers extracted low-intensity SRS signals using Moku:Pro in diverse experiments with one device.

In this application note, we will introduce the working principles of these instruments and provide an instrument selection guide for different measurement scenarios.