
Discover free online resources for learning Computational Fluid Dynamics (CFD), enhancing your understanding of fluid flow simulations and analysis techniques.

Explore the fascinating temperature changes during a Kilimanjaro climb through scientific experiments and breathtaking footage. Gain insights into high-altitude physics and mountaineering challenges.

Explore advanced concepts in Lie group thermodynamics, focusing on polysymplectic Souriau theory and entropy's geometric structure as a Casimir invariant.

Explore extensive entropy functionals and non-ergodic random walks in statistical physics and complex systems.

Explore advanced geometric thermodynamics, focusing on polysymplectic Souriau Lie group theory and coadjoint orbit structures in mathematical physics.

Explore the historical development and significance of Schützenberger-Pinsker inequalities in information theory and probability theory.

Explore statistical mechanics through a categorical lens, gaining insights into complex systems and thermodynamic principles.

Explore Hamiltonian variational formulation for complex thermodynamic systems, gaining insights into advanced mathematical approaches in physics and engineering.

Explore couplings of Brownian motions on SU2 and C, delving into advanced mathematical concepts and their applications in stochastic processes.

Model the ideal gas law with bouncing balls in Python and calculate pressure and temperature.

Explore advanced concepts of entropy, building on foundational knowledge to deepen understanding of thermodynamic principles and their applications.

Explore conservation of mass principles in fluid dynamics, covering compressible and incompressible flows, mass flow rate, and governing equations for heat transfer.

Explore data analysis and equation of state modeling for thermodynamic properties of aqueous and mixed-solvent electrolyte solutions with Ph.D. Fufang Yang.

Изучите физическую химию углеводородов в первой лекции курса по нефтегазовым технологиям от Казанского федерального университета.

Explore advanced concepts of invasion percolation, building on fundamental principles to deepen understanding of fluid flow in porous media.

Explore percolation theory, its applications, and fundamental concepts in complex systems and network analysis.

Explore invasion percolation concepts and applications in porous media flow modeling, focusing on fundamental principles and computational techniques.

Model condensation in headlamps using DPM, EWF, and VOF approaches. Learn particle absorption, film thickness, and transitions between models for accurate simulation.

Model fluidized bed reactors using DEM collision, DDPM, and combustion in Ansys Fluent. Learn to incorporate particle interactions for accurate simulations.

Explore evacuated U-tube solar collectors using DO model ANSYS Fluent simulation for efficient solar energy collection and analysis.

Master temperature conversions between Fahrenheit, Celsius, and Kelvin. Learn key concepts in thermodynamics, including boiling points, freezing points, and absolute zero.