Applied Aerodynamics & Cfd For F1 , Motorsport & Automotives

Learn the best Aerodynamics and CFD practices within the F1 , Motorsports and Automotive Industry.

What you'll learn

Gain insight into the role of CFD in driving innovation and performance optimization in racing car design.

Familiarize with the structure and functions of an Aero and CFD department in a Formula 1 team.

Learn the key considerations in geometric modeling of race cars and its influence on aerodynamic performance

Explore the setup of a virtual wind tunnel environment and its importance in aerodynamic analysis.

Understand the mechanical setup of a racing car and its implications on aerodynamics.

Learn about the preprocessing steps specific to motorsports applications, such as tire modeling and track behavior simulation.

Apply pre-processing techniques to prepare geometry and set up simulations for a detailed case study.

Explore different turbulence modeling techniques and their applications in motorsports CFD simulations.

Understand the significance of surface pressure distribution and other flow field variables in aerodynamic analysis.

Explore advanced concepts such as front tire squirt control and wing loading.

Learn how the 3 Pillar of CFD i.e. Pre-Processing , Solver and Post-Processing are applied in the Motorsports Industry

Requirements

Basic Proficiency in Computational Fluid Dynamics and Aerodynamics

Understanding for the variables in Motorsports , i.e a Motorsport Fan

Description

Course Introduction:This course is designed such that , students will explore and apply the fundamental principles of CFD  in motorsports, gaining practical insights into its application in aerodynamic simulation and analysis, vehicle performance optimization, and design validation. Each section of the course is crafted to provide a balance of theoretical knowledge and hands-on experience, ensuring that students are exposed to the hidden realities of CFD application in the world of motorsports. Key Topics Covered:Fundamentals of Computational Fluid Dynamics (CFD): Understand the core principles and equations governing fluid flow simulations, including discretization methods and numerical techniques used in CFD.Application of CFD in Motorsports: Explore how CFD is applied specifically in the context of motorsports engineering, including aerodynamic analysis, vehicle performance optimization, and design validation.Geometry Preparation and Mesh Generation: Learn how to prepare geometry for simulation, generate high-quality meshes, and optimize mesh resolution for accurate and efficient CFD simulations.Aerodynamic Modeling and Analysis: Dive into advanced aerodynamic modeling techniques, such as boundary layer modeling, turbulence modeling, and vortex analysis, to gain insights into flow behavior around racing vehicles.Solver Methods and Boundary Conditions: Understand different solver methods used in CFD simulations, set up appropriate boundary conditions, and validate simulation setups to ensure reliable results.Post-Processing and Data Analysis: Master post-processing techniques to analyze simulation results, including visualization of flow fields, calculation of aerodynamic forces and moments, and interpretation of key performance metrics.Case Studies and Practical Applications: Apply theoretical knowledge to real-world case studies, such as analyzing the aerodynamics of specific vehicle components, optimizing designs for performance improvements, and troubleshooting simulation issues.Professional Skills and Career Development: Develop critical thinking, problem-solving, and communication skills essential for success in motorsports engineering careers, and gain insights into industry best practices and trends.Once you complete the course , at the end you can bookAccess to OpenFOAM Files for your own simulationsAccess to Post Processing of multiple CFD Case StudiesAccess to  2023 F1 CAD model for you to design your own parts. Access to Recommended readings and articles for an Aerodynamics Interview at an F1 Team.Course Completion Certificate from an Aerodynamicist.

Overview

Section 1: Introduction to Applied Motorsports CFD

Lecture 1 Who should attend this course ? What should you expect ?

Lecture 2 Introduction to Module 1: Introduction to Applied Motorsports CFD

Lecture 3 About the Speakers: Shubham Sangodkar and Punith Gowda

Lecture 4 Introduction | Aero Departments | How is CFD Used in F1

Lecture 5 CFD Workflow

Lecture 6 Summary and Reflection

Section 2: Aerodynamic Model and Simulation Environment

Lecture 7 Introduction to Module 2 : Aerodynamic Model and Simulation Environment

Lecture 8 Geometric model of a race car | Modeling Tyres

Lecture 9 Virtual Wind Tunnel | Replicating Vehicle Setup

Lecture 10 Vehicle Aero Map | Vehicle Ride Heights

Lecture 11 Modeling Track Behaviors |Summary and Discussion Session

Lecture 12 Aero Jargon

Section 3: CFD Pre-Processing

Lecture 13 Introduction to Module 3

Lecture 14 Overview of Surface Mesh Generation| Key Parameters | PIDs

Lecture 15 Detailed Mesh Generation | Radiators & Tyres | Mesh Automation

Lecture 16 Volume Mesh Generation | Structured vs Unstructured | Best Practises

Lecture 17 Volume Mesh Refinement Zones

Lecture 18 Summary and Discussion Session

Section 4: Front Wheel and Front Wing Case Study - Part 1

Lecture 19 F1 Car Vehicle Design Walkover

Lecture 20 Isolated Wheel Case Study Walkover

Lecture 21 Discussion Session on the Famous Y250 Vortex and QnA

Section 5: CFD Solver

Lecture 22 Introduction to Module 5 -CFD Solver

Lecture 23 Some important CFD interview worthy questions

Lecture 24 Turbulence Modeling | Types of Models and Use case

Lecture 25 Boundary Layer | Wall Resolution & Modelling | Prism Layers

Lecture 26 LES vs RANS ,What do F1 teams use ?

Lecture 27 Boundary Conditions and Initial Conditions

Lecture 28 Reflection and Discussion

Section 6: Front Wheel and Front Wing Case Study - Part 2

Lecture 29 Deep Dive into the Case Study

Lecture 30 Discussion Session on the case study

Section 7: CFD Post Processing

Lecture 31 Introduction to Module 7 - CFD Post Processing

Lecture 32 Introduction and Simulation Convergence | Quantitative vs Qualitative Data

Lecture 33 Flow Field Data & Post Processing Strategies | Surface vs Volume Data

Lecture 34 Surface Scalars Analysis | Yplus | Pressure Coefficient | Wall Shear Stress

Lecture 35 CP Profile Analysis | The most important tool in Aero Analysis

Lecture 36 Reflection and Discussion Part 1

Lecture 37 Discussion Part 2

Section 8: Front Wheel and Front Wing Case Study - Part 3

Lecture 38 Post Processing Deep Dive - Isolated Wheel

Lecture 39 Post Processing Deep Dive - Front Wing + Front Wheel

Section 9: Additional Module 1 : Your career plan to get into F1

Lecture 40 Reviewing my RedBull Racing CV

Lecture 41 How to apply and crack Student Placements at an F1 Team

Lecture 42 How to get a Job in F1 - Your Aerodynamicist Interview

Lecture 43 Reviewing my RedBull Racing Cover Letter

Lecture 44 Career Discussion with Punith and Shub

Lecture 45 Life of an Aero at Redbull

Lecture 46 Life of an Aero - Being an AirBender

Lecture 47 My Journey Into F1

Section 10: Additional Module 2 : Getting your basics right

Lecture 48 Visualizing Airflow Around an F1 Car

Lecture 49 Why Downforce - Part 1

Lecture 50 Why Downforce - Part 2

Lecture 51 Why Downforce - Part 3

Lecture 52 Why Downforce - Part 4

Lecture 53 The best resource for Aero Basics

Section 11: Successfully completed the course ? Don't miss out on this !

Lecture 54 How Aerodynamics Adds Performance to Race Car by Willem Toet

Lecture 55 OpenFOAM Files for your own simulations

Lecture 56 CFD Post Processing Cases

Lecture 57 2024 F1 Car Geometric Model for Practice

Lecture 58 MUST READ: Links to some of the best references for an F1 Aerodynamics Interview

Lecture 59 F1 Aerodynamics Course with Basics and Case studies from Front to Rear

Motorsports Engineers: Professionals working in the motorsports industry who want to deepen their understanding of Computational Fluid Dynamics (CFD) and enhance their skills in aerodynamic analysis, vehicle performance optimization, and design validation.,Automotive Engineers: Engineers working in the automotive sector who are interested in applying CFD techniques to improve the aerodynamic performance of vehicles, including race cars, high-performance road cars, and electric vehicles.,Students and Researchers: Undergraduate and graduate students studying mechanical engineering, aerospace engineering, or related fields who want to specialize in motorsports engineering or pursue research in CFD applications.,Enthusiasts and Hobbyists: Individuals passionate about motorsports and aerodynamics who want to gain a deeper understanding of the technical aspects behind racing car design and performance optimization.,Professionals in Related Industries: Professionals in industries such as aerospace, defense, and renewable energy who can benefit from learning CFD techniques and applying them to their specific engineering challenges.,Engineering Educators: Educators teaching courses in fluid dynamics, aerodynamics, or motorsports engineering who want to enhance their curriculum with practical insights and hands-on experience in CFD simulation and analysis.