
Comprehensive exploration of materials characterization techniques, covering optical and electron microscopy, X-ray diffraction, and transmission electron microscopy, with hands-on demonstrations and practical applications.

Explore advanced techniques for reconstructing atomic structures using transmission electron microscopy data, comparing phase imaging methods and discussing recent experimental results in 2D and 3D materials analysis.

Explore quantitative imaging techniques using AI/ML for analyzing large datasets of electron microscopy images, focusing on defect mapping in graphene and industrial catalyst studies.

Explore transmission electron microscopy fundamentals, including microscope components, image formation, sample preparation techniques, and applications in materials science and biology.

Explore transmission electron microscopy's principles, components, and applications in nanotechnology. Learn about electron sources, lenses, aberration correction, and cutting-edge imaging techniques for nanomaterial characterization.

Explore cutting-edge 3D imaging techniques used to map fruit fly motor neurons and muscles, revealing insights into neural networks controlling locomotion and posture.

Explore time-resolved electron microscopy techniques for capturing synaptic ultrastructure at millisecond intervals using high-pressure freezing, revealing native cellular architecture at nanometer resolution.

Explore deep learning applications in materials research, focusing on convolutional neural networks for transmission electron microscopy and tomographic imaging advancements.

Explore the cell biology of rice blast fungus infection, focusing on disease mechanisms, host responses, and molecular pathways involved in this devastating crop pathogen.

Explore transmission electron microscopy principles, applications, and limitations. Gain insights into this powerful imaging technique for studying cellular structures at high resolution.

Explore disordered hyperuniformity in 2D materials, its impact on electronic structures, and role of topological defects in preserving hyperuniformity in amorphous materials.