Repellents are used worldwide to protect against insect bites. This blog describes fun facts about mosquitoes, which substances are considered safe to be used in repellents applied to the skin, and look inside a pure repellent sample via 1H NMR. Read more.

Introducing the newest addition to our family…the Nanalysis-60! As the benchtop NMR market has grown, and people have become more excited about the possibility of including these systems in their research program, the question that we always get asked is if we could increase the number of features available – more sophisticated pulse programs, pulsed field gradients, advanced modules to modify and program new pulse sequences… Read more.

This blog goes into detail of the COSY experiment, a useful 2D homonuclear experiment.

In this blog, we analyze both the aqueous and organic layers during the separation step in the synthesis of Isoamyl Acetate to determine whether the product is in a different layer than the starting reagents.

Are you looking for literature using benchtop NMR? We have compiled a list of reading materials here.

This blog post introduces some of the results we obtained in the collaborative publication of our white paper with the United States Pharmacopeia. It discusses the use of benchtop NMR spectroscopy for the analysis of over-the-counter medicines, and showcases how quantum mechanics can help reduce time requirements and lower accessibility barriers for industrial quality control.

While low-field NMR has extremely favourable accessibility and affordable characteristics, the most common question that we get asked about our family of benchtop NMR spectrometers is with respect to any trade-offs that come from moving to lower-field.

The Limit of Detection (LoD) and Limit of Quantification (LoQ) are analytical benchmarks that define the practical boundaries for identifying and measuring a specific analyte within a given matrix, under particular experimental conditions.

Magnets used to manufacture low-field and high-field NMR spectrometers are not perfect and the magnetic field that they generate is prone to drift for a variety of reasons. However, during an NMR experiment it is important to keep the magnetic field as stable as possible to prevent the signals from drifting. This is taken care of by the lock system.

In this blog, we describe the T2-filter experiment, including its description and application.