Tuesday publication post! In this newest publication using the #FusionAX system, authors were using in situ electrical biasing within TEM to study electronic device formation! They visualized the formation of nanowires for field-effect transistors (FETs) in real time and at atomic resolution. The findings revealed that Mo₆Te₆ NWs form only along specific directions within the … Read More
Observe the Performance of Resistive Random-Access Memory Devices with This Workflow for Fusion AX!
Following the Selectivity of Any Catalysts at the Nanoscale
How to Correlate Catalyst Activity to Morphological Changes in the TEM
Observing Catalyst Stability in the TEM, A Workflow
An Arsenal of Tools for the Preparation of In Situ Electron Microscopy Samples
The New and Improved Success Community
Tuesday publication post! In this newest publication, the authors have looked at different ion beam milling techniques to make FIB lamella for electrical biasing with the #FusionAX system! When it comes to transmission electron microscopy (TEM) sampling, traditional Ga ion beam techniques often introduce damage, lowering the chemical stability of samples, particularly for metal thin … Read More
Tuesday publication post! In this publication from the #UniversityofMinnesota and #UniversityofArizona, the authors have used our #FusionAX to look at MRAM devices by doing electrical biasing in the electron microscope with atomic resolution! As computing technology advances, demand for efficient data storage solutions is growing. Spintronic magnetic tunnel junction (MTJ)-based MRAM devices are emerging as … Read More
Tuesday publication post! In this work, the #FusionAX system was used for electrothermal studies of high electron mobility transistors! Congratulations to this nice publication to Nahid Sultan Al-Mamun ,Ahmad Islam, Nicholas Glavin, Aman Haque, Douglas E.Wolfe, Fan Ren and Stephen Pearton! ️High-temperature operation is a critical factor impacting the reliability of AlGaN/GaN high electron mobility … Read More
Tuesday publication update! In this newest publication, authors used the #FusionAX to look at the crystallization from molten alloys in the field of metallurgy! In this work, they explored the solid intermetallic particles surrounded by the liquid metal from which they precipitated. The outer layers of solidified intermetallics fluctuate between crystalline and liquid states, even … Read More
Tuesday publication update! Managing high-level waste (HLW) from nuclear plants is a formidable challenge, where radiation resistance is crucial, but so is the thermal recovery of radiation damage. In this newest publication, an atomic-scale understanding of how materials respond to thermal annealing is shown. Using in situ heating (#FusionAX) high-resolution transmission electron microscopy (HRTEM) the … Read More
Tuesday publication update! Non-trivial topological structures, such as vortex-antivortex (V-AV) pairs, have gained attention in the field of condensed matter physics. Despite their significance, the detailed dynamics of V- AV phase transitions—encompassing self-annihilation, motion, and dissociation—have remained elusive in real space. This newest article in Advanced Materials looks into these materials using the #FusionAX system! … Read More
Tuesday publication update! In this newest research published in #AdvancedMaterials, researchers are looking at all-electric functional nanodevices with rapid reset and multi-state switching capabilities using our #FusionAX system! Using an in situ biasing technique, and focus-ion beam preparation (FIB) the authors look at spin configuration rearrangement by domain wall number modulation in Fe3GeTe2. ⚡In-situ Lorentz … Read More
Tuesday publication update! With this newest published research atomic-scale mechanisms were observed on 2D materials using our #FusionAX system! The authors imaged, atom-by-atom, the thermally induced structural evolution of twisted bilayer transition metal dichalcogenides using in situ transmission electron microscopy. The authors used short 0.5-s heat pulses from 100° to 1000°C and took STEM images … Read More
