Industry-Ready Mechanical Engineering Courses

Geometric Dimensioning and Tolerancing (GD&T) is not just a set of symbols; it is the essential language used by engineers, designers, and manufacturers to ensure parts fit and function correctly.

This comprehensive course bridges the gap between basic Engineering Graphics and advanced ASME Y14.5 2018 standards.

Whether you are a student, a "backbencher" looking for simplified explanations, or a professional refining your skills, this course takes you from freehand sketching to mastering the Feature Control Frame.

Learn 3D CAD, Assembly, Drafting, Sheet Metal & Surface Modeling from Zero to Advanced with Practical Projects.

This course teaches you Siemens NX from the ground up. You start with the basics like opening files, navigating the interface, and sketching. Then you move into real engineering workflows like 3D modeling, sheet metal design, drafting, large assembly handling, and freeform surfacing.

Each module focuses on skills actually used in mechanical design, product development, tooling, manufacturing, and automotive/aerospace engineering.

You’ll also learn how to use ChatGPT as a design assistant for commands, workflows, troubleshooting, and design ideas, making your work faster and smarter.

You will understand the major COMSOL modules such as AC/DC, CFD, Heat Transfer, Structural Mechanics, MEMS, and Pipe Flow. This helps you see how COMSOL is used in different engineering fields.

You will learn how to customize the COMSOL desktop, use the Model Wizard, access the main menu and toolbar, and follow the basic steps needed to build any simulation model. You will also use ChatGPT to understand sequencing in COMSOL.

You will learn global and local definitions, create variables and expressions, use operators and functions, and load parameters from external text files with AI assistance. This gives you strong control over parametric modeling.

You will work with geometry tools, selection lists, transparency settings, hiding and showing entities, rendering, and user-defined selections. This helps you build clean and accurate models.

You will learn geometry modeling, adding nodes, editing nodes, and understanding the current node. You will also use ChatGPT to assist with geometry features.

You will explore material databases, assign materials properly, work with the material browser, and use external material libraries. You will understand how materials behave in multiphysics simulations.

You will learn how to build full COMSOL models using the Model Builder, manage nodes, enable or disable physics, save files, open model libraries, and explore advanced results sections using GPT-based guidance.

Finally, you will work on multiple learning projects covering named selections, meshing, solver studies, results plotting, friction modeling, and cylindrical roller simulations. These projects help you apply COMSOL to real engineering problems.

Learn Digital Twin Concepts, Architecture, Simulation, AI Integration, PLM, Smart Manufacturing & Future Innovations.

This course gives you a complete foundation in Digital Twin technology and its role in Industry 4.0. You begin by learning the basics of Industry 4.0, core technologies, benefits, challenges, and the introduction to Digital Twins.

You will understand how digital replicas improve efficiency, decision-making, and system optimization across manufacturing and engineering.

By the end, you will have a strong understanding of Digital Twin concepts, technologies, applications, and implementation workflows used in modern engineering and manufacturing.

Learn Industry 4.0 Concepts, AM Technologies, Materials, CAD Data Prep, Quality, Post-Processing & Real Applications.

This course provides a complete introduction to 3D printing and additive manufacturing (AM), starting from the basics of Industry 4.0 and the growing role of 3D printing in modern industries.

You begin by understanding why Industry 4.0 matters, how digital transformation works, and how additive manufacturing supports innovation, customization, lightweight design, and rapid production.

You then explore 3D printing fundamentals, different additive manufacturing processes, and technologies such as vat photopolymerization, powder bed fusion, binder jetting, material extrusion, and directed energy deposition.

The course highlights real applications across aerospace, healthcare, automotive, energy, and strategic sectors.

You will learn how CAD data is prepared for AM, including input file formats, support generation, slicing, and common commercial tools used in the industry.

Learn Sketching, 3D Modeling, Advanced Tools, and Assembly Design with Real SolidWorks Projects.

This course introduces you to SolidWorks 2024 and teaches you the complete workflow of 2D sketching, 3D modeling, advanced features, and assembly design.

You begin by learning how to access SolidWorks online, navigate the interface, use the Feature Manager Design Tree, work with the Orientation Cube, and understand essential mouse gestures.

Learn IIoT, AI/ML, Robotics, Digital Twins, Cloud, Cybersecurity, 3D Printing & AR/VR with Real Case Studies.

This course provides a complete foundation in Industry 4.0 and modern smart manufacturing technologies. You begin by understanding the Industry 4.0 revolution, its key technologies, and how digital transformation is reshaping today’s factories.

You will explore IIoT, big data, AI/ML, robotics, cybersecurity, cloud computing, digital twins, AR/VR, and additive manufacturing. Each module explains the core concepts, industrial use cases, and real manufacturing applications.

Case studies help you understand how global companies implement these technologies for productivity, automation, and innovation.

Learn IC Engines, Metrology, Production Technologies, AutoCAD, and Career Preparation in One Beginner-Friendly Course.

This course provides a complete foundation for students beginning their journey in mechanical engineering. It covers the essential concepts every mechanical engineer must know.

From engines and measurement systems to manufacturing processes, CAD skills, and career preparation.

Master Computational Fluid Dynamics using Autodesk CFD and learn how to simulate real-world fluid flow and thermal problems used in mechanical, automotive, HVAC, aerospace, and industrial design applications.

This course introduces you to the world of robotics and embedded systems through simple explanations and practical projects. You will learn how microprocessors and microcontrollers work, understand communication protocols like UART and I2C, and get familiar with essential electronic components used in robots.

You will explore a wide range of sensors, actuators, input devices, and modules that power modern robotics such as IR sensors, LCD displays, fingerprint scanners, Bluetooth and Wi-Fi modules, PIR sensors, servo motors, GPS modules, and more.

The course includes multiple hands-on robotics projects, including a Line Follower Robot, Smart Parking System, Keypad Locking System, and Wi-Fi Based Home Automation. You will also practice building your own circuits, wiring components on a breadboard, and writing code to control robots.

This course teaches OpenFOAM from the ground up, starting with installation, environment setup, and fundamental concepts. You will learn how OpenFOAM works, how its directory structure is organized, how to run cases, and how to control simulations using scripts and command-line tools.

You will understand CFD preprocessing through mesh generation using blockMesh, snappyHexMesh, and mesh converters. Then you will explore modelling techniques including turbulence models, thermophysical modeling, multiphase flow, radiation models, and boundary condition setup.

The course also covers important solvers such as pimpleFoam, rhoPimpleFoam, twoPhaseEulerFoam, reacting solvers, and multiphase solvers. You will learn how solution algorithms work and how to choose the right solver for a given problem.

You will use ParaView for post-processing, learn sampling techniques, create animations, and work with case manipulation tools to extract meaningful CFD results. The course includes advanced tools like pyFoam, swak4foam, automation scripts, and using ChatGPT for debugging and understanding complex CFD concepts.

The course concludes with multiple capstone projects covering cavity flow, mixer simulations, turbulence studies, elbow flow analysis, Pitz-Daily, and dynamic meshing cases. These projects help you apply OpenFOAM to real CFD problems.

By the end of this course, you will be able to set up, run, troubleshoot, and analyze OpenFOAM CFD simulations confidently.

Learn Sketching, 3D Modeling, Constraints, Parameters, Sheet Metal, Assemblies & Rendering in Fusion 360.

This course teaches you how to use Fusion 360 from the absolute basics to real 3D design workflows. You begin by learning how to install Fusion 360, understand the interface, explore the navigation tools, and get comfortable moving around your workspace.