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Hybrid Neural-MPM for Interactive Fluid Simulations in Real-Time

Jingxuan Xu, Hong Huang, Chuhang Zou, Manolis Savva, Yunchao Wei, Wuyang Chen

2025-05-27

Hybrid Neural-MPM for Interactive Fluid Simulations in Real-Time

Summary

This paper talks about a new way to simulate fluids, like water or smoke, on a computer so that it looks realistic and responds quickly when you interact with it. The method combines traditional physics with neural networks and uses something called diffusion-based control to make the simulation both fast and accurate.

What's the problem?

The problem is that making realistic fluid simulations on a computer usually takes a lot of time and computer power, which makes it hard to use them in real-time situations like video games or interactive apps. Most current methods are either too slow or don't look realistic enough when you try to interact with the fluid.

What's the solution?

To solve this, the authors created a hybrid system that mixes neural networks with a physics-based approach called MPM, and they added a diffusion-based control method. This combination allows the system to simulate fluids in real time, meaning you can interact with the fluid and see immediate, realistic responses on the screen.

Why it matters?

This is important because it makes it possible to have high-quality, interactive fluid effects in things like video games, virtual reality, or digital art tools, all without needing super powerful computers. It opens up new possibilities for more engaging and visually impressive interactive experiences.

Abstract

A hybrid neural physics system with diffusion-based control achieves real-time, interactive fluid simulations with low latency and high fidelity.