Engineering Mechanics
This is a basic first-level course to learn rigid body mechanics covering both statics and dynamics. Statics covers free body diagrams, equilibrium of rigid bodies, analysis of trusses and beams, discussion on friction, virtual work and stability.
Fluctuations and Order in Randomly Evolving Environments
Explore non-equilibrium systems where giant fluctuations coexist with long-range order, examining particle behavior, interface properties, and applications in various scientific domains.
Systems of ODEs - Saddle Points and Instability
Explore unstable saddle points in 2D linear ODEs, their applications in energy-efficient transport, and analysis using eigenvalues, eigenvectors, and phase portraits.
Cartes Aléatoires - Entre Croissance et Fragmentation
Explorez les liens fascinants entre cartes aléatoires et processus de croissance-fragmentation dans cette conférence captivante sur les surfaces aléatoires et la dynamique des particules.
Theoretical Modeling of Passive and Active Particle Dynamics in Shear Flow
Explore theoretical models of particle dynamics in shear flow, covering both passive and active systems in physics and biology.
3ds Max + TyFlow - Dynamic Boolean and Particles
Learn to create dynamic particle effects using TyFlow in 3ds Max. Master TyBoolean and TyMesher modifiers to transfer particles between shapes and generate bead-like simulations with PhysX-enabled voxels.
Using Xplode to Shatter Objects in Cinema 4D - Part 1
Learn to create stunning shattered object effects in Cinema 4D using the Xplode feature, enhancing your 3D animation and visual effects skills.
Exploring Turbulence Through Particles - Statistical Properties of Spheroids in Turbulent Flows
Dive into the statistical dynamics of neutrally buoyant particles in turbulent flows, exploring finite-size and shape effects, acceleration properties, and angular dynamics.
Falling Particles in Vortical Flows by Elisabeth Guazzelli
Explore particle behavior in vortical flows, examining interactions between particles and flow structures. Gain insights into natural phenomena and industrial applications of particle transport in complex environments.
Quasivoid: A Quasi-Particle Approach for the Dynamics of Structural Glass
Explore quasivoid theory for structural glass dynamics. Analyze particle motions, defects, and their impact on glassy phenomena using a distinguishable-particle lattice model and configuration-tree theory.
Random Target Searches by Multiple Particles
Explore random target search dynamics with multiple particles, examining first-passage problems, competing agents, and optimal searcher distributions in various systems.
Discovering Dynamic Laws from Observations: The Case of Self-Propelled Particles
Explore machine learning techniques for uncovering forces in active matter systems, from cellular to animal scales. Learn to extract local dynamics crucial for understanding collective phenomena.
Hamiltonian: Particle on a Frictionless Cylinder with a Force
Explore particle motion on a frictionless cylinder under external force using Hamilton's equations and Python simulation.
Using a Bunch of Balls to Model the Ideal Gas Law in Python
Model the ideal gas law with bouncing balls in Python and calculate pressure and temperature.
From Newton's Laws to Fluid Mechanics: Deriving the Boltzmann Equation - Award Lecture
Explore the derivation of fluid mechanics equations from Newton's laws, examining irreversibility and propagation of chaos in the context of Boltzmann's kinetic theory.
Dynamics of Active Particles at High Densities
Explore the dynamics of active particles at high densities in this advanced physics lecture by Thomas Voigtmann from the ESI's thematic programme.
Quantitative Studies of Supersonic Microparticle Impacts on Metals
Explore quantitative analyses of supersonic microparticle impacts on metals, uncovering insights into high-energy density science and material behavior under extreme conditions.
Inertia, Turbulence and the Concentration Field in Active Fluids
Explore inertia, turbulence, and concentration fields in active fluids. Delve into self-driven particle dynamics, active turbulence, and hydrodynamic flow interactions in various settings.
A Monte Carlo Method for Stationary Solutions of General-Relativistic Vlasov Systems
Delve into Monte Carlo methods for solving general-relativistic Vlasov equations, exploring particle trajectory analysis and applications in black hole accretion models.