
Comprehensive guide to simulating airfoils using Ansys Fluent, covering essential steps from setup to analysis for aerodynamic design and optimization.

Explore marine hydrodynamics, from basic principles to advanced concepts. Learn about fluid dynamics, wave motion, and boundary layer theory applied to marine environments.

Interactive screencasts on fluid mechanics concepts with quizzes and personalized responses. Covers topics from pressure and buoyancy to flow regimes and shear stress, enhancing understanding through hands-on engagement.

Explore advanced simulation features in Creo, including fluid dynamics, topology optimization, and improved analysis tools for enhanced product design and engineering workflows.

Explore the science behind New African Cuisine with chef Selassie Atadika, covering food ways, trade, lifestyle changes, and innovative ingredients like ancient grains and wild foraged foods.

Explore atmospheric stability, lapse rates, inversions, and moisture. Learn how these factors influence weather patterns, pollution trapping, and air saturation processes.

Comprehensive review of atmospheric and oceanic processes, covering properties, balances, equilibrium states, transport mechanisms, and hemispheric differences in Earth's environmental systems.

Explore material properties, elasticity, and viscosity in biomedical engineering. Learn experimental setups, stress-strain relationships, and modeling techniques for biomaterials using springs and dashpots.

Explore hydrostatic balance in the atmosphere and ocean, including calculations, experiments, and real-world applications of the hydrostatic law.

Explore the Perfect Gas Law's impact on atmospheric dynamics, including buoyancy, pressure variations, and gas behavior, with applications to weather patterns and environmental phenomena.

Explore fluid dynamics, statics, and Bernoulli's equation through key concepts like pressure, density, and Archimedes' Principle. Learn practical applications and problem-solving techniques in physics.

This course provides an introduction to Computational Fluid Dynamics (CFD) with an emphasis on the fundamental principles that govern the implementation of CFD in practical applications.

The course concentrates primarily on the understanding of the physical concepts of compressible flow and keeps a reference to various numerical methods for solving the governing equations to a minimum.

Comprehensive exploration of computational fluid dynamics, covering mathematical foundations, discretization methods, and numerical techniques for solving fluid flow problems.

This course looks at all the aspects theoretical, numerical, and application aspects of computational fluid dynamics. Computational fluid dynamics (CFD) has become an essential tool in the analysis and design of thermal and fluid flow systems in a wide r…

The course deals with the numerical solution of equations governing fluid flow and would be of interest to engineers and scientists. The course deals with the basic techniques that enable the numerical solution of these equations.

Comprehensive exploration of computational fluid dynamics fundamentals, covering essential concepts and techniques over 8 weeks through structured modules and practical applications.

This course discusses topics in gas dynamics. Review of fundamentals: concepts from fluid mechanics, basic thermodynamic relations. Compressible flow: the concept of waves in a fluid, mach waves, compression waves, expansion waves.

Explore the fascinating physics of droplet formation, breakup, and splashing, revealing surprising insights into fluid dynamics and their importance in nature and everyday life.

Explore cardiovascular fluid mechanics, its impact on health, and challenges in modeling complex systems. Discover research on cell responses, oxygen transport, and nanoparticle dynamics in blood vessels.

Explore how choanoflagellates provide insights into the evolution of multicellularity in animal ancestors, examining hydrodynamic performance and selective factors affecting colony formation and survival.