Application Notes: General

This application note demonstrates the use of the SQX Scatter Fundamental Parameter (FP) method for the screening of materials difficult to analyze by conventional SQX.

See how Raman microscopy in combination with SEM, AFM, topographic imaging, and other methods can characterize chemical and structural properties of geoscience samples.

The analytical performance of your ICP can often be improved by a careful choice of torch, spray chamber and nebulizer components by taking into account the type of samples that will be analyzed. In this article, we focus on the “hard to measure” ICP-OES elements, As, Se and Pb to determine whether we can improve detection limit performance by selection of appropriate sample introduction components.

This application note describes a method for determining the composition of mullite and fiber cement as conducted by an on-site wet-chemical process laboratory.

This application note demonstrates the utility of Kaiser Raman to rapidly measure taste, color, and texture attributes of salmon meat in the laboratory or plant.

Learn how to ensure high quality and productivity in elemental analysis of petrochemical samples.

This application note demonstrates the performance of polycapillary optic-enabled instruments that improve measurement capabilities.

This application note describes how to achieve reproducible and reliable determination of total organic carbon (TOC) content in drinking water that has a high inorganic-carbon matrix.

In this application note, we report how a high-resolution spectrometer monitored changes in argon emission after gases were added to a closed-reaction plasma chamber.

Handheld Raman instruments are valued for cell culture media analysis in the biopharmaceutical industry. Here we present an analysis of a selection of common media powders.

Isotope fingerprints can be used as a tool for environmental forensics investigations of potentially carcinogenic pollutants, such as polycyclic aromatic hydrocarbons.

New data and tips for using ICP-MS in the cannabis and hemp testing lab Factors that affect heavy metals in cannabis Analysis of hemp plants for toxic heavy metals using new technology

This paper details RISE (Raman Imaging and Scanning Electron) microscopy and demonstrates its advantages using geological, polymer, biological, and nanomaterial samples.   

See 2D/3D Raman, AFM, SEM, and SHG/THG microscopy measurements of GaN, Si, and MoS2 for characterizing composition, crystallinity, topography, and stress fields.   

This study shows examples of the pharmaceutical research benefits from Raman microscopy, which characterizes distributions, homogeneity, drug states, and contaminants.

This overview of advanced microparticle analysis shows how particles can be found, classified, and then identified automatically using confocal Raman microscopy.

Download the eBook

A demonstration of vertical dual-view instrument analysis of high-concentration metal matrices with excellent accuracy in place of traditional radial instrumentation

We highlight why, when, and how to properly maintain your ICP-MS interface cones, and the importance of cone conditioning. We also discuss the benefits of Platinum-tipped cones.

The capability to simultaneously collect Raman and photocurrent data using the photocurrent mapping module concurrently with an inVia Raman microscope is demonstrated.

This application note describes the analysis of heavy metals in cannabis with high sensitivity, precision, and accuracy using HR ICP-OES.

Pharmaceutical research benefits from Raman microscopy, which characterizes distributions, homogeneity, drug states and contaminants. This study provides examples.   

Measurement of fluorescence lifetimes provides a wealth of information. Here a photoluminescence pectrometer is used for the measurement of sub-20 picosecond lifetimes.

The analysis of carbon black, residual oil and oil ash by Energy Dispersive X-ray Fluorescence (EDXRF) is demonstrated using semi-quant Fundamental Parameters (FP).