Battery Science – Multimedia

Since its discovery 20 years ago, graphene has been a hot topic in materials science. But its potential uses span many more disciplines, including drug delivery, engineering, biosensing, energy, electronics and more.

This comprehensive guide explores cutting-edge analytical techniques and equipment designed to optimize the manufacturing process to ensure superior performance and sustainability in lithium-ion battery production.

This eBook dives into the key role that inductively coupled plasma optical emission spectroscopy plays in lithium-ion battery analysis, providing insights on how to optimize accuracy, throughput and efficiency across all stages of the lifecycle.

This guide highlights several solutions to address these issues, helping you maintain measurement stability and avoid costly errors.

Manufacturers must control the complex internal interactions of batteries to tailor device performance to each application. Download this listicle to learn more about the analysis of raw materials, battery components, assembled batteries and black mass.

Download this infographic to explore the foundational principles of battery science and the current state of investment in battery research projects.

Battery material analysis and characterization is essential for ensuring optimal performance of all battery components. Download this guide to learn more about safety precautions and avoiding contamination.

This whitepaper highlights how FTIR can be used to enhance the development of LIBs by rapidly characterizing their raw materials and components.

This application note showcases FTIR's role in quickly assessing potentially hazardous lithium salts in a controlled environment.

This application note demonstrates how FTIR can be used to assess LIB-electrolyte solvents and create spectral libraries to enhance the development of your LIB technology.