In this introductory module of our ANSYS Fluent CFD course, we focus on simulating orifice flow, a fundamental concept in fluid dynamics with wide-ranging industrial applications. Key aspects covered: Introduction to orifice flow principles Importing the pre-made mesh of an orifice into ANSYS Fluent Familiarizing with Fluent’s user interface and workflow Setting up boundary conditions for fluid flow in Fluent Configuring ANSYS Fluent for incompressible flow simulation Selecting appropriate turbulence models for orifice flow Running the simulation and monitoring convergence Post-processing results to analyze pressure drop and velocity changes Visualizing flow patterns using Fluent’s post-processing tools Interpreting simulation results and their practical implications This module serves as an excellent starting point for beginners, introducing essential CFD concepts and ANSYS Fluent workflows. By simulating orifice flow using a pre-made mesh, students will gain hands-on experience with Fluent’s interface and simulation setup, building a foundation for more complex simulations in later modules. The focus is entirely on using ANSYS Fluent, allowing learners to concentrate on the simulation process without the complexities of geometry creation or meshing.

This module introduces mechanical engineering students to Computational Fluid Dynamics (CFD) analysis of a firehose using ANSYS Fluent, focusing on fluid flow characteristics in firefighting applications. Key aspects covered: Introduction to fluid dynamics principles relevant to firefighting equipment Importing a pre-made mesh of a firehose into ANSYS Fluent Setting up boundary conditions to simulate water flow through the firehose Configuring ANSYS Fluent for internal flow simulation in a flexible hose Running the simulation to analyze water flow behavior Visualizing flow patterns within the firehose, including velocity streamlines and pressure contours Analyzing pressure distribution and velocity profiles along the hose length Examining the water jet characteristics at the hose exit Introduction to concepts such as pressure loss in flexible pipes and jet formation Basic interpretation of results to understand firehose performance This tutorial provides practical experience in using ANSYS Fluent for fluid flow analysis in firefighting equipment. Learners will gain insights into how water behaves as it flows through a firehose, including factors affecting flow rate, pressure, and jet characteristics. The module emphasizes the application of CFD in analyzing real-world mechanical engineering problems, particularly in the context of firefighting technology. This knowledge can be applied to improve the efficiency and effectiveness of firefighting equipment and techniques.

This module introduces mechanical engineering students to the aerodynamic analysis of wing designs using ANSYS Fluent, with a focus on understanding the effect of slots on wing performance. Key aspects covered: Introduction to basic wing aerodynamics and the concept of high-lift devices Importing pre-made meshes of a standard wing and a slotted wing into ANSYS Fluent Setting up boundary conditions to simulate airflow around wings Configuring ANSYS Fluent for external aerodynamics simulation Running simulations for both wing configurations Visualizing airflow patterns around the wings, particularly near the slot region Analyzing pressure distribution and velocity fields on wing surfaces Comparing lift and drag coefficients between standard and slotted wing designs Introduction to flow separation and how slots affect it Basic interpretation of results to understand the impact of slots on wing performance This tutorial provides hands-on experience in using ANSYS Fluent for aerodynamic analysis, a crucial skill in mechanical engineering. Learners will gain insights into how small design changes, like adding slots, can significantly affect a wing’s aerodynamic characteristics. The module emphasizes practical application of CFD in analyzing and comparing different mechanical designs, building a foundation for more complex aerodynamic studies in mechanical engineering.

This introductory module focuses on simulating the intake of a jet engine using ANSYS Fluent, introducing beginners to aerospace applications in CFD. Key aspects covered: Basic introduction to jet engine intake design and its importance Importing the pre-made mesh of a simplified jet engine intake into ANSYS Fluent Setting up basic boundary conditions for the intake simulation Running the simulation in ANSYS Fluent Visualizing basic flow features within the intake Observing pressure and velocity distributions in the intake Introduction to flow uniformity at the engine face Basic post-processing of results in ANSYS Fluent Understanding the fundamental behavior of air flow in a jet engine intake Interpreting basic simulation results to understand intake performance This beginner-friendly tutorial provides an initial experience in using ANSYS Fluent for aerospace applications. Learners will gain a basic understanding of how CFD can be used to study jet engine intakes. The module focuses on essential ANSYS Fluent operations and simple aerospace concepts, laying a foundation for more advanced studies in the future.

This module introduces mechanical engineering students to Computational Fluid Dynamics (CFD) analysis of a parabolic solar collector using ANSYS Fluent, emphasizing renewable energy applications. Key aspects covered: Introduction to parabolic solar collector principles and their role in solar thermal systems Importing a pre-made mesh of a parabolic solar collector into ANSYS Fluent Setting up boundary conditions to simulate heat transfer and fluid flow in the collector Configuring ANSYS Fluent for coupled heat transfer and fluid flow simulation Running the simulation to analyze thermal performance of the solar collector Visualizing temperature distribution and fluid flow patterns within the collector Analyzing heat transfer rates and efficiency of the solar collector Examining the effects of solar radiation on collector performance Introduction to concepts such as thermal losses and heat collection efficiency Basic interpretation of results to understand solar collector performance This tutorial provides hands-on experience in using ANSYS Fluent for thermal-fluid analysis in renewable energy systems. Learners will gain insights into how parabolic solar collectors concentrate solar energy and transfer heat to a working fluid. The module emphasizes the application of CFD in analyzing and optimizing solar thermal systems, a crucial area in sustainable energy engineering. This knowledge is valuable for designing more efficient solar collectors, improving heat transfer in renewable energy systems, and contributing to the development of clean energy technologies.

This module introduces mechanical engineering students to Computational Fluid Dynamics (CFD) analysis of a radiator heated by a solar panel using ANSYS Fluent, emphasizing thermal management and heat transfer applications. Key aspects covered: Introduction to radiator design principles and solar thermal integration in heating systems Importing a pre-made mesh of a radiator system coupled with a solar panel into ANSYS Fluent Setting up boundary conditions to simulate heat transfer from the solar panel to the radiator fluid Configuring ANSYS Fluent for heat transfer and fluid flow simulation Running the simulation to analyze thermal performance of the solar-powered radiator system Visualizing temperature distribution across the radiator and fluid flow patterns Analyzing heat transfer rates from the solar panel to the radiator and from the radiator to the environment Examining the effects of fluid flow rate and solar input on radiator performance Introduction to concepts such as thermal efficiency and heat dissipation Basic interpretation of results to understand radiator performance in a solar-powered setup This tutorial provides practical experience in using ANSYS Fluent for thermal-fluid analysis in heating systems. Learners will gain insights into how radiators distribute heat from a renewable energy source (solar panel) and how various factors affect their performance. The module emphasizes the application of CFD in analyzing and optimizing thermal management systems, a crucial area in mechanical engineering. This knowledge is valuable for designing more efficient heating systems, improving energy utilization in buildings, and contributing to sustainable thermal management solutions.

This module introduces mechanical engineering students to Computational Fluid Dynamics (CFD) analysis of a brake disk using ANSYS Fluent, emphasizing thermal management and heat transfer in automotive applications. Key aspects covered: Introduction to brake disk design principles and their importance in vehicle safety systems Importing a pre-made mesh of a brake disk into ANSYS Fluent Setting up specific boundary conditions to simulate heat generation and dissipation during braking Configuring ANSYS Fluent for heat transfer and fluid flow simulation around the brake disk Running the simulation to analyze thermal performance of the brake disk under the given conditions Visualizing temperature distribution across the brake disk and surrounding air flow patterns Analyzing heat dissipation rates from the brake disk to the surrounding environment Examining the thermal behavior of the brake disk under the specified boundary conditions Introduction to concepts such as thermal fatigue, hot spotting, and brake fade Basic interpretation of results to understand brake disk performance and cooling efficiency This tutorial provides practical experience in using ANSYS Fluent for thermal-fluid analysis in automotive systems. Learners will gain insights into how brake disks manage and dissipate heat during braking operations under specific conditions. The module emphasizes the application of CFD in analyzing critical vehicle components, a crucial area in mechanical engineering. This knowledge is valuable for designing more efficient and safer braking systems, improving thermal management in vehicles, and contributing to advancements in automotive engineering. The simulation skills acquired are applicable to various fields within mechanical engineering, including automotive design, thermal management systems, and safety engineering.

This module introduces mechanical engineering students to Computational Fluid Dynamics (CFD) analysis of the RQ-170 drone using ANSYS Fluent, emphasizing aerodynamics and fluid flow in unmanned aerial vehicle (UAV) applications. Key aspects covered: Introduction to drone aerodynamics and the unique design features of the RQ-170 Importing a pre-made mesh of the RQ-170 drone into ANSYS Fluent Setting up boundary conditions to simulate airflow around the drone Configuring ANSYS Fluent for external aerodynamics simulation Running the simulation to analyze the aerodynamic performance of the RQ-170 drone Visualizing airflow patterns and pressure distribution around the drone’s surface Analyzing lift, drag, and other aerodynamic forces acting on the drone Examining the effects of the drone’s unique shape on its aerodynamic characteristics Introduction to concepts such as boundary layer separation, vortex formation, and flow turbulence Basic interpretation of results to understand the drone’s flight performance and efficiency This tutorial provides practical experience in using ANSYS Fluent for aerodynamic analysis in UAV systems. Learners will gain insights into how the RQ-170’s design influences its flight characteristics and overall performance. The module emphasizes the application of CFD in analyzing and optimizing unmanned aerial vehicles, a rapidly growing area in mechanical and aerospace engineering. This knowledge is valuable for designing more efficient and capable drones, improving aerodynamic performance, and contributing to advancements in UAV technology. The simulation skills acquired are applicable to various fields within mechanical engineering, including aerospace design, fluid dynamics, and unmanned systems development.

This module introduces mechanical engineering students to Computational Fluid Dynamics (CFD) analysis of supersonic flow over the iconic SR-71 Blackbird using advanced simulation software. The tutorial emphasizes high-speed aerodynamics and compressible flow phenomena in aerospace applications. Key aspects covered: Introduction to supersonic aerodynamics and the unique design features of the SR-71 Blackbird Importing a pre-made mesh of the SR-71 aircraft into the CFD software Setting up boundary conditions for supersonic flow simulation Configuring the solver for high-speed, compressible flow analysis Running the simulation to analyze the aerodynamic performance of the SR-71 at supersonic speeds Visualizing shock waves, expansion fans, and other supersonic flow features around the aircraft Analyzing pressure distribution, temperature variations, and aerodynamic forces on the aircraft Examining the effects of the SR-71’s distinctive shape on its supersonic flight characteristics Introduction to concepts such as wave drag, sonic boom formation, and aerodynamic heating Basic interpretation of results to understand the aircraft’s performance in supersonic regimes This tutorial provides practical experience in using CFD for high-speed aerodynamics analysis in aerospace systems. Learners will gain insights into how the SR-71’s revolutionary design enables efficient supersonic flight and manages extreme conditions encountered at high Mach numbers. The module emphasizes the application of CFD in analyzing and optimizing supersonic aircraft, a challenging and critical area in mechanical and aerospace engineering. This knowledge is valuable for designing more efficient high-speed aircraft, improving supersonic aerodynamic performance, and contributing to advancements in aerospace technology. The simulation skills acquired are applicable to various fields within mechanical engineering, including aerospace design, propulsion systems, hypersonic vehicle development, and advanced fluid dynamics research. This tutorial also provides a foundation for understanding the complex phenomena associated with supersonic and potential hypersonic flight, which are becoming increasingly relevant in modern aerospace engineering.

This module introduces mechanical engineering students to Computational Fluid Dynamics (CFD) analysis of lubrication and friction in a piston-ring pack system using ANSYS Fluent. The tutorial focuses on the simulation of fluid dynamics in narrow gaps with a simplified moving wall approach, providing insights into internal combustion engine efficiency. Key aspects covered: Introduction to piston-ring pack design and its role in engine lubrication and sealing Importing a pre-made mesh of a simplified piston-ring pack geometry into ANSYS Fluent Setting up moving wall boundary conditions to represent piston motion Configuring ANSYS Fluent for thin-film lubrication analysis Defining appropriate velocity for the moving wall using built-in ANSYS Fluent features Running the simulation to analyze oil flow and pressure distribution in the piston-ring pack Visualizing oil film thickness, pressure fields, and velocity profiles in the lubrication gaps Analyzing friction forces and power losses due to fluid shear in the piston-ring pack Examining the effects of wall velocity, oil viscosity, and geometry on lubrication performance Introduction to concepts such as hydrodynamic lubrication and boundary lubrication This tutorial provides practical experience in using ANSYS Fluent for moving wall problems in mechanical systems. Learners will gain insights into how lubricant behavior and wall motion influence friction and energy losses in engine-like environments. The module emphasizes the application of CFD in analyzing engine components, an important area in mechanical engineering. This knowledge is valuable for understanding engine efficiency, improving fuel economy, and exploring ways to reduce friction losses. The simulation skills acquired are applicable to various fields within mechanical engineering, including automotive engineering, tribology, and machinery design. This tutorial provides a foundation for understanding the relationship between fluid dynamics and moving surfaces, which is relevant in many engineering applications beyond internal combustion engines.