Electron microscopy has long been a cornerstone of materials science, enabling researchers to delve into the nanoscale world with remarkable precision. However, commercial electron microscopes’ high cost and proprietary nature have often hindered broader access and innovation.
The quest for more efficient and durable energy storage solutions has led scientists to explore innovative methods to enhance sodium batteries. A recent study has introduced a NaOH protective layer as an easily scalable method to protect sodium without any additional chemicals or a special environment for this reaction. This achievement has the potential to significantly improve the stability and performance of sodium metal anodes.
The first IMPRESS Training Workshop, co-organized by Euro-BioImaging and CERIC-ERIC with the support of Promoscience, successfully gathered a diverse group of scientists, technologists and stakeholders over two virtual sessions on November 5 and 7, 2024. With over 65 participants joining each day, the workshop showcased leading-edge developments in transmission electron microscopy (TEM) carried out within the framework of the IMPRESS Project, fostering a collaborative exchange of ideas and solutions for enhancing the capabilities of TEMs.
The IMPRESS project successfully participated in the third edition of the Big Science Business Forum (BSBF 2024), held from October 2-4 in Trieste, Italy. With over 1300 delegates and key players from the European Big Science and high-tech industries in attendance, the event provided a significant platform to showcase the innovations driving the IMPRESS project.
Deep learning is increasingly recognized as a powerful tool for advancing materials characterization, particularly in Electron Energy Loss Spectroscopy (EELS), as highlighted by a recent study. Traditionally, identifying core-loss edges and their corresponding elements in EELS spectra has required manual effort, making the process time-consuming and error-prone, especially in large datasets.
The synthesis of superconducting infinite-layer nickelates through topochemical reduction was one of the significant achievements in the recent years in the domain of unconventional superconductivity. Understanding this superconducting nature is intertwined with understanding competing order such as a 3 unit cell periodic charge order (an electronic modulation) reported in them.