Key publications, open-source tools, and research directions in TEM automation, 4D-STEM, tomography, and AI-assisted microscopy.
Software is now central to modern transmission electron microscopy. Today’s TEM and STEM workflows depend on automated acquisition, microscope scripting, detector synchronization, tomography reconstruction, 4D-STEM analysis, machine learning, and increasingly autonomous experimental control.
This publication library curates influential papers, software platforms, and research directions that have shaped the software ecosystem for modern electron microscopy.
This research investigates domain formation and evolution in ferroelectric liquid crystals. The findings provide insight into polarization behavior and the mechanisms governing domain structure development.
The authors discuss methods for indexing unit cells from synchrotron X-ray powder diffraction measurements. Accurate indexing provides the foundation for subsequent crystal-structure determination.
This paper presents an unsupervised statistical segmentation approach for image analysis based on the SEM algorithm. The methodology is applied to satellite imagery for automated feature extraction and classification.
This paper discusses design considerations for synchrotron X-ray lithography beamlines. Optimized beamline configurations enhance performance for microfabrication and precision lithographic applications.
This study investigates silicon oxidation using in-situ TEM techniques. Direct observation of oxidation processes improves understanding of mechanisms important to electronic device fabrication.
The study evaluates image formation in transmission electron microscopy using three-dimensional power spectrum analysis. The technique offers insight into imaging performance and information transfer characteristics.
The editorial reflects on the relationship between reading and writing within scholarly and literary communities. It emphasizes how engagement with published work fosters stronger communication and knowledge creation.
This chapter reviews the mitochondrial carrier family responsible for transporting solutes across biological membranes. The discussion highlights their structure, function, and importance in cellular energy metabolism.
The article reviews magnetic phase transitions induced by external fields. The discussion addresses fundamental mechanisms governing magnetic ordering and transformation phenomena.
The article discusses simulation strategies for interpreting HRTEM images of amorphous materials. The modeling approach aids structural analysis where conventional crystallographic methods are insufficient.
This study examines how precipitates influence the migration of grain boundaries within materials. The results contribute to understanding microstructural evolution and its impact on material properties.
The paper discusses the use of microwave technology in electron microscopy sample preparation and processing. The method offers potential benefits in speed, efficiency, and specimen handling.
The paper describes a computer-controlled system for automating TEM in-situ fatigue experiments. The software improves experimental consistency and supports detailed studies of microstructural evolution under cyclic loading.
This paper examines data-exchange formats designed for testing and measurement applications. Standardized formats facilitate communication, interoperability, and efficient data processing across systems.
The authors examine dynamical diffraction imaging and topography using synchrotron radiation. These techniques reveal crystal defects, strain distributions, and structural variations in materials.
This article discusses the design and application of heating chambers for synchrotron X-ray experiments. The equipment supports in-situ studies of materials under elevated-temperature conditions.
The study evaluates imaging plate detectors for X-ray diffraction experiments using synchrotron radiation. The detector technology improves data acquisition efficiency and diffraction measurement capabilities.
This research investigates discontinuous precipitation and subsequent coarsening behavior in aluminum-zinc alloys. The findings improve understanding of phase transformation kinetics and microstructure evolution.
This study examines paraelectric-to-ferroelectric phase transitions in sodium niobate using in-situ TEM techniques. Direct observations help clarify structural changes associated with phase transformation behavior.
The paper proposes a new background extrapolation strategy for quantitative EELS analysis. The procedure improves edge extraction accuracy and strengthens detection of low-concentration elements.