Tissue Engineering Applications in Biomedical Engineering - Lecture 23
Explores tissue engineering applications in healing, regeneration, organ replacement, and drug delivery, featuring Yale research on hydrogel scaffolds, spinal cord repair, and blood vessel growth control.
Nonlinear Dynamics of Active Solids Through Nonreciprocal Mechanochemical Feedback
Explore nonlinear dynamics of active solids through nonreciprocal mechanochemical feedback. Gain insights into collective phenomena in energy-consuming systems and their applications in various fields.
Learning and Active Mechanics
Explore active mechanics and collective phenomena in energy-consuming systems. Gain insights into active solids, their behavior, and potential applications in various fields from biology to engineered materials.
Spectral Dynamics of Active and Living Materials
Dive into the spectral dynamics of active materials with MIT's Jorn Dunkel, exploring collective phenomena in energy-consuming systems and their applications in diverse fields.
Control Strategies in Active and Robotic Matter
Explore control strategies in active and robotic matter, focusing on collective phenomena and energy-consuming components in various systems, from living organisms to engineered materials.
Innovative Biomedical Technologies to Impact Healthcare
Discover groundbreaking biomedical innovations addressing real-world healthcare challenges, from anti-pesticide solutions for farmers to disease-responsive drug delivery systems and improved blood storage technologies.
The Role of Matrix Stiffness in Esophageal Cancer - Mechanism to Translational Therapeutics
Explore the impact of extracellular matrix stiffness on esophageal cancer progression and drug resistance, using engineered hydrogels and 3D cancer organoids to identify potential therapeutic targets.
Hydrogels Rheology, Extrusion Printing, and Potential Applications
Explore hydrogels' rheology, extrusion printing techniques, and diverse applications in this comprehensive lecture on advanced soft materials and their practical uses.
A Coarse-Grained Molecular Dynamics Study of Damage Localization During the Fracture of Double Polymer Networks
Explore molecular dynamics of damage localization in double polymer networks, focusing on mechanisms behind increased toughness and the interplay between load sharing and damage propagation.