Application Notes

Learn about industry standards and new technologies for the extraction of pesticides from foods in this eBook that takes a look into the challenges facing food testing labs today and the technologies that are helping them improve their efficiency.

Here, we demonstrate increased quantitative performance and throughput efficiency on a Thermo Scientific™ Orbitrap Exploris™ 480 LCMS combined with a FAIMS Pro™ device.

Here we investigate the optimal isolation width for the ID and quantification of proteins and peptides for the best possible accuracy and precision in LFQ experiments.

Here we describe an internal standard (IS)-guided LC-MS acquisition workflow for reproducible, sensitive and high-density absolute quantification of pTyr signaling.

Here we discuss the benefits of Real Time Search & advanced spectral processing algorithms on an Orbitrap Tribrid MS to enhance TMT quan accuracy and proteome coverage.

This poster describes the analysis of 117 environmental air pollutants in high-humidity airstreams using thermal desorption with dual-column GC–MS/FID.

This poster describes the analysis of 117 environmental air pollutants in high-humidity airstreams using thermal desorption with dual-column GC–MS/FID.

What you will learn: - Sensor-based asset monitoring & analytics help labs make data-based decisions - Straightforward software helps labs to improve CapEx, OpEx, and productivity

The applicability of AF4-UV-MALS for sizing and quantification of adeno-associated virus (AAV) samples with different degrees of aggregation is presented.

This study investigates the capabilities of asymmetrical flow field-flow fractionation coupled with MALS for the detection of carbon nanotubes in soot and soil.

The applicability of AF4-UV-MALS for sizing and quantification of adeno-associated virus (AAV) samples with different degrees of aggregation is presented.

This study investigates the capabilities of asymmetrical flow field-flow fractionation coupled with MALS for the detection of carbon nanotubes in soot and soil.

This study demonstrates the combination of inverse supercritical fluid extraction and miniaturized AF4-MALS for the analysis of nanoparticles in commercial sunscreens.

This study demonstrates the combination of inverse supercritical fluid extraction and miniaturized AF4-MALS for the analysis of nanoparticles in commercial sunscreens.

This study describes the analysis of PLGA particles under physiological conditions using centrifugal field-flow fractionation coupled with dynamic light scattering.

This study describes the analysis of PLGA particles under physiological conditions using centrifugal field-flow fractionation coupled with dynamic light scattering.

This study describes the separation of nanoplastics and determination of their surface charge by electrical asymmetrical flow field-flow fractionation.

This study describes the separation of nanoplastics and determination of their surface charge by electrical asymmetrical flow field-flow fractionation.

Electrical asymmetrical flow field-flow fractionation coupled with MALS was used to characterize the NIST monoclonal antibody reference material 8671.

This application note presents the characterization of ribosomal RNA using asymmetrical flow field-flow fractionation coupled with multi-angle light scattering.

Electrical asymmetrical flow field-flow fractionation coupled with MALS was used to characterize the NIST monoclonal antibody reference material 8671.

This application note presents the characterization of ribosomal RNA using asymmetrical flow field-flow fractionation coupled with multi-angle light scattering.

This study describes the characterization of metal-containing nanoparticles in tattoo ink using AF4 coupled with multi-angle light scattering and ICP-MS.

This study describes the characterization of metal-containing nanoparticles in tattoo ink using AF4 coupled with multi-angle light scattering and ICP-MS.

⦁ How to use the ACQUITY APC system with aggressive solvent compatible p-QSM technology to support gradient polymer elution chromatography (GPEC). ⦁ Selecting the appropriate detector for enhanced performance and insight.

⦁ How equipping LC with multi-detection technology enables achieving high quality, high-resolution, and rapid sample analysis. ⦁ Leverage LS and RI detectors and viscometer technologies to calculate absolute molecular weight, hydrodynamic radius, and structure of the materials.

⦁ Determine polymer properties such as molecular weight, dispersity, and branching/conformation. ⦁ How to differentiate molecular structure across the molecular weight distribution.

⦁ Reduce run time and solvent consumption by scaling both isocratic and gradient methods using the Alliance HPLC. ⦁ Utilization of the Waters Columns Calculator for scaling isocratic and gradient methods.

⦁ Develop a high performance and robust method for the analysis of formoterol, budesonide, and related compounds. ⦁ Show the straightforward method development capabilities of the ACQUITY™ Arc™ System in combination with Empower™ 3 Chromatographic Data System and S-Matrix Fusion QbD® Software.

⦁ Benefits of utilizing a custom library in the targeted analysis of migration samples. ⦁ Insight into how proposed workflow is used in identifying targeted and untargeted photoinitiators in migration studies.