
Explore ANSYS for heat transfer analysis, including finite element analysis, CFD, and multiphysics simulations, and learn steady state and transient heat transfer with applications in electronics cooling, automotive, and aerospace.
Explore the basics of heat transfer, including conduction, convection (natural and forced), and radiation, and the factors of temperature gradient, surface area, and material properties for hvac and engine cooling.
Perform a steady-state heat conduction analysis in an iron box with internal heat generation, using ANSYS Workbench to model the coil and base with 10^7 W/m^3 and 200°C.
Analyze heat conduction in a piston-rod assembly using ansys workbench. Apply 700 C at the piston crown and 250 C at the rod cap to compute net heat transfer.
Explore the fundamentals of convection, including natural and forced convection, diffusion and advection, and the governing Newton's law of cooling for convective heat transfer.
Analyze heat transfer in a single pane window via convection and conduction, compute total resistance and net heat transfer, then compare to a double pane window with an air gap.
Explore nonlinear heat transfer in a turbine blade with internal cooling holes, using temperature-dependent thermal conductivity and convection coefficient under external 900°C and internal 400°C conditions to map blade temperature.
Analyze convection on a 1 m by 1 m plate with cooling fins, compare heat transfer with and without fins, and validate fin effectiveness using ANSYS results.
Analyze convection in a steam pipe with circular cooling fins to determine heat transfer and fin effectiveness. Compare with Ansys workbench results, showing about a tenfold gain over unfinned baseline.
Analyze transient heat transfer, showing how temperature evolves over time under conduction and convection, using Biot < 0.1 lumped system analysis and the exponential relation.
Assess transient heat transfer in a brass plate under convection and radiation. Compute Biot number and characteristic length; compare theory with ANSYS Workbench results after 7 minutes.
Examine transient heat transfer in a brass cylindrical rod cooling from 150°C to 100°C in air, with Biot number ~0.0057, comparing theory t≈636 s to Ansys t≈644 s.
Explore the fundamentals of radiation heat transfer, including emissivity, absorptivity, reflectivity, and the Stefan–Boltzmann law, and apply radiosity-based radiation calculations in ANSYS Mechanical.
Demonstrates radiation heat transfer analysis in a two-block metal assembly with cooling fins, using emissivity 0.8 and convection at 5 W/m^2K in Ansys workbench, comparing 1184 W to 909 W.
Explore radiation heat transfer analysis in a heating coil. Use Nichrome with emissivity 0.8 and ambient 25 °C to compute the net heat transfer via ANSYS Workbench.
Explore heat transfer analysis with contact surfaces in ANSYS Workbench, using pinball to model closed contact, learn contact types, setup steps, and interpreting initial results.
explores coupled heat transfer analysis between thermal and structural models, detailing loose and fully coupled approaches in ANSYS Workbench, and outlines direct mapping, external data, and coupled field solver methods.
Perform a coupled thermal and structural analysis in Ansys Workbench by importing a temperature profile as external data into static structural, mapping nodes 100% and solving for deformation and stress.
Explore fluid flow modeling in Ansys thermal using the fluid 116 element. Model heat transfer and fluid transport with temperatures and pressures as working variables.
In this lecture, the convection boundary condition must be applied to both the internal cylindrical surface and the external cylindrical surface. This step was accidentally skipped in the uploaded video due to an editing error. Students are advised to download the attached Workbench file and review the two convection boundary condition definitions for clarity and better understanding.
Perform parametric heat transfer analysis in polyethylene insulation using ansys workbench, with 60 mm radius, revealing maximum heat transfer at R2 = 80 mm and critical radius k/h = 0.4/5.
Introduction: “Mastering thermal simulations with Ansys workbench” course is designed to help you gain the knowledge in heat transfer analysis using the powerful Ansys workbench software suite. This course provides the complete fundamentals of heat transfer simulations for thermal applications. In this comprehensive course, you will embark on a journey from the fundamentals of heat transfer to advanced techniques, equipping you with the skills to tackle real-world thermal engineering challenges.
Course contents are as follows:
· Introduction to Heat Transfer and ANSYS
· Steady-State Conduction Analysis
· Convection Heat Transfer Analysis
· Heat transfer analysis in cooling fins
· Transient Thermal Analysis
· Radiation Heat Transfer Analysis
· Thermal analysis with contact surfaces
· Combined Thermo-structural Analysis
· Fluid flow modelling in workbench thermal analysis
· Parametric analysis and Optimization studies
Throughout the course, you will not only grasp theoretical concepts but also gain hands-on experience through practical problem-solving exercises. By comparing your simulation results with real-world scenarios, you will develop a deeper understanding of heat transfer phenomena and the ability to apply your knowledge to diverse engineering challenges.
Join us in mastering thermal simulations with Ansys Workbench and unlock the potential to revolutionize thermal engineering in your projects and career.
What will I learn?
1. You will learn the fundamentals of heat transfer using simulations with basic theoretical explanation.
2. How to model and analyse thermal applications using Ansys Thermal and interpret the results from theoretical solutions.
3. Analysis of different modes of heat transfer like conduction, convection and radiation.
4. Simulations using steady state and transient methods.
5. Coupled analysis like thermo-structural and dynamic analysis.
6. Basic checks to be done and error handling methods in Ansys workbench.
7. By following the steps, students/professionals can quickly learn this software and use for real world problems.
Requirements
Basic understanding heat transfer and thermal applications.
Ansys 2023 R1 or higher version installed.
Computer with at least 4GB RAM