The Next AI Race: World Models

@sorhan.hq

3.8K followers · usually 553 views a post

Views

5.2K

Likes

166

Comments

16

Shares

15

SoundTikTok sound · original sound - sorhan.hq

Promoted product

ELUelu.dev

Elu watches real user sessions, catches the bugs they run into, and has the fix ready to ship.

6 videos

Why it worked

The video effectively explains a complex AI concept (world models and differential equations) in an accessible way, highlighting the practical benefits and potential impact of the technology. The use of visual aids and a clear, concise explanation makes it engaging and informative, driving interest in the underlying product.

Summary

The video explains how AI, specifically neural networks, can be used to solve complex differential equations and simulate real-world physical processes. This approach is presented as a faster, cheaper, and more efficient alternative to traditional methods, potentially revolutionizing engineering simulations.

Structure

1Introduction to AI and world models
2Training neural networks for differential equations
3Limitations of traditional methods

Original caption

Researcher name: Guangting Yu, Dailey Labs The next wave of AI isn’t just chat. It’s simulation. As models get better at learning dynamics, differential equations, and world models, AI moves closer to running experiments, testing ideas in simulated environments, and helping engineer real systems before they’re built. Simulation engineering may be one of the biggest frontiers in AI. 🌊 #startuplife #founder #Tech #machinelearning #ai

More from @sorhan.hq

Product placement

The creator is showcasing a phone with what appears to be the ELU product interface, and the video's caption mentions 'ELU — Your product, evolving from real usage.'

On-screen text

The Next AI Race: World Models San Francisco, California Laplace eigenfunction on a Koch snowflake Laplace eigenfunction on a five-pointed star

Transcript

Alright, so you're training neural networks to solve differential equations, which currently cannot be done. With traditional methods, it's very difficult to do them on a very complicated domain. What's the impact with that? The impact is that we can simulate the real-world physical process within a very short time and very low computational cost and very low physical experiments cost. Also, traditional methods will cost you a lot of time to code this process into the machine. And machine learning saves you both money and time so that you can speed up the engineering simulation.