Explore the evolving landscape of digital transformation, with expert insights on the strategies driving innovation and helping companies navigate rapid technological change. Don’t miss this conversation on the future of life sciences and the role of digitalization in shaping tomorrow’s industry standards.
Explore the transformative impact of qNMR technology on scientific research and regulatory practices. Don’t miss this insightful discussion on the future of analytical chemistry and digital innovation in the industry.
Join us in our first episode of our MestreCast as we explore the rise of automation and robotics in chemistry, where innovation meets automation to accelerate progress. Follow us for upcoming episodes promising to reveal exciting developments at the intersection of analytical chemistry software, automation, and more, and don’t miss out on the latest insights and trends!
In this Mnova Tip, we show you two easy ways to display the Pages Navigator in Mnova, whether you've accidentally closed it or are accessing it for the first time. We hope you find this tip helpful—stay tuned for more Mnova tips!
In this Mnova Tip, discover the palette options for your 2D NMR spectrum. Learn how to enhance data clarity and presentation using advanced features. Optimize your Mnova documents for visual appeal and scientific accuracy with this expert tip.
Watch this video and discover how the IUPAC Name tool can streamline the generation of IUPAC names for chemical structures. This tool helps you avoid manually naming complex structures, thereby reducing errors and saving time.
This study reports a deep learning approach that utilises message passing neural networks (MPNNs) for predicting chemical shifts in 13C NMR spectra of small molecules. MPNNs were trained on two distinct datasets: one with approximately 4000 labelled structures and another with over 40,000.
In this work, we introduce a novel NMR apodization function designed to enhance spectral resolution while maintaining compatibility with qNMR standards. This function is based on a modified Savitzky–Golay filter, adapted for time-domain application.
The procedure for simulating the nuclear magnetic resonance spectrum linked to the spin system of a molecule for a certain nucleus entails diagonalizing the associated Hamiltonian matrix.