Petascale Connectomics and Beyond - IPAM at UCLA
Explore petascale connectomics, its advancements in brain mapping, and future exascale projects. Learn about automated image analysis techniques and their impact on understanding neural structures and brain function.
Strategies for Quantitative Imaging and Reconstruction from High Speed-Low Dose Data
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.
Acquiring Quality SEM/FESEM Images in Different Situations - Like Driving a Car
Master SEM/FESEM imaging techniques through practical analogies. Learn key parameters, beam control, and troubleshooting for high-quality microscopy results across various sample types and conditions.
Transmission Electron Microscopy - Principles and Applications - Lecture 2
Explore transmission electron microscopy fundamentals, including microscope components, image formation, sample preparation techniques, and applications in materials science and biology.
Introduction to Transmission Electron Microscopy - Lecture 1
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.
Nature's Incredible Rotating Electric Motor - Smarter Every Day 300
Explore the fascinating world of bacterial flagella, nature's electric rotating motor. Discover groundbreaking research on this microscopic marvel and its implications for science and technology.
Introduction to Microscopy - Section B
Explore microscopy techniques and principles, enhancing your understanding of cellular structures and their visualization in biological research.
3D Imaging of Fruit Fly Neurons and Muscles - NCI Seminar
Explore cutting-edge 3D imaging techniques used to map fruit fly motor neurons and muscles, revealing insights into neural networks controlling locomotion and posture.
Scanning Electron Microscopy (SEM) - Working Principles and Applications in Biology
Explore the working principles and biological applications of Scanning Electron Microscopy (SEM). Discover how this powerful imaging technique reveals intricate details of microscopic structures.
Time-resolved Electron Microscopy: Synaptic Ultrastructure Millisecond by Millisecond with High-Pressure Freezing
Explore time-resolved electron microscopy techniques for capturing synaptic ultrastructure at millisecond intervals using high-pressure freezing, revealing native cellular architecture at nanometer resolution.
AI Inroads in Imaging Sciences for Materials Research - IPAM at UCLA
Explore deep learning applications in materials research, focusing on convolutional neural networks for transmission electron microscopy and tomographic imaging advancements.
Algorithms for Non-Local Filtering - Application Cryo-Electron and Biological Microscopy
Efficient algorithms for non-local filtering in microscopy, focusing on fast implementations of Non-Local Means Denoising and feature detection in biological images for improved image processing and analysis.
Investigating the Cell Biology of Invasive Growth by the Rice Blast Fungus Magnaporthe Oryzae
Explore the cell biology of rice blast fungus infection, focusing on disease mechanisms, host responses, and molecular pathways involved in this devastating crop pathogen.
Transmission Electron Microscopy (TEM) - Principles, Applications, and Limitations
Explore transmission electron microscopy principles, applications, and limitations. Gain insights into this powerful imaging technique for studying cellular structures at high resolution.
Manifold Denoising with Application to Electron Microscopy
Discover advanced manifold denoising techniques for electron microscopy image processing, focusing on Fourier-like basis construction and filtering methods to enhance two-dimensional image collections through mathematical analysis.
Disordered Hyperuniformity in Two-Dimensional Materials
Explore disordered hyperuniformity in 2D materials, its impact on electronic structures, and role of topological defects in preserving hyperuniformity in amorphous materials.