LynXes
Description
LynXes Innovation is a European deep-tech instrumentation company founded by internationally recognised experts in X-ray spectroscopy. The company develops laboratory-scale high-energy-resolution X-ray spectroscopy (HERXS) systems that deliver synchrotron-quality analytical capabilities directly in the laboratory. By reducing dependence on limited beamtime at large-scale facilities, LynXes enables researchers and industrial R&D teams to perform routine measurements, screen samples, optimise experiments, and accelerate innovation cycles.
The modular product line includes four spectrometer models: Lynx A for quick XANES scans, Lynx X for extended absorption measurements including EXAFS, Lynx E for rapid X-ray emission spectroscopy (XES), and Lynx U combining absorption and emission capabilities in a single device. All instruments are equipped with open-access control and acquisition software that is fully programmable and can integrate additional devices such as sample environments. Applications span a wide range of industrial sectors including battery development, green chemistry and energy, semiconductor manufacturing, pharmaceuticals, waste management, solar panels, fuel cells, and data storage. The instruments support non-destructive testing of solids, liquids, and gels, with capabilities for time-resolved, in-situ, and operando studies. In addition to instrument sales, LynXes provides measurement services where users can submit samples for HERXS spectroscopy analysis, as well as high-quality silicon-based X-ray analyser crystals with custom crystal cuts to meet specific research requirements. The company collaborates with industrial and academic partners across Europe and worldwide.
Offer / Action
Accelerate materials innovation with laboratory-based synchrotron-quality X-ray spectroscopy. LynXes supports industrial R&D teams and academic researchers with XANES, EXAFS and XES capabilities directly in the laboratory, enabling faster materials screening, investigation of electronic structure and chemical states, and in-situ or operando studies. Save time, reduce costs, and maximise the value of synchrotron beamtime through faster, data-driven R&D.