ساخت حل‌گرهای سیالات برای جلوه‌های ویژه و هودینی – بخش اول و دوم

عنوان دوره : CGCircuit – Building Fluid Solvers For Visual Effects and Houdini Part1-2

سطح : پیشرفته

زمان کل دوره : 14.45 ساعت

تعداد فايل ها : 8 فصل

سال آموزش : 2025

فایل تمرینی : ندارد

مربی دوره : Anas Alaa

نرم افزار : Houdini

زیرنویس انگلیسی : ندارد

فشردگی اختصاصی سافت ساز : ندارد

CGCircuit – Building Fluid Solvers For Visual Effects and Houdini Part1-2

Do you dream of building your own fluid simulation engine—like Houdini, RealFlow, or your own custom solver? You’re in
the right place.

Part 1 of this series is your entry point into the world of simulation programming. We’ll begin with the math behind the magic: the essential calculus and linear algebra required to understand and build fluid solvers from scratch.

But don’t worry—this isn’t a dry, academic math course. This is fluid simulation math made simple, even if you only remember a bit of school-level math. We’ll build up from the ground—starting from what a function is, all the way to partial derivatives, divergence, curl, and the vector calculus that powers every smoke, fire, and water sim you’ve ever seen.

By the end of this course, you’ll understand the mathematical language used by simulation professionals—and be fully prepared to move into Part 2, where we begin building a solver using pseudocode and Houdini microsolvers.
What You’ll Learn – Chapter Breakdown

In this second installment of our simulation series, we dive into the world of fluids, breaking down the complex math and simulation logic into approachable, practical concepts. If you’ve taken Part 1, you already have a solid grasp of the math foundations, and now you’ll learn how to use them to simulate fluids using step-by-step pseudocode and real Houdini examples.

Rather than attempting to build a full-featured commercial fluid solver (which takes years and a dedicated team), this course is designed as your launchpad, giving you the core ideas, math concepts, and solver techniques that form the backbone of every modern fluid simulator.

You’ll learn how to translate these techniques into simple pseudocode that can be implemented in any language you prefer. Finally, we’ll explore how a basic smoke solver in Houdini works using the microsolver-based DOP network, helping you bridge theory and practical application.

By the end of this course, you’ll have a clear path toward building your own custom fluid solvers, and you’ll be well-equipped to explore advanced topics like FLIP, fire simulations, and turbulence modeling on your own.