
In a groundbreaking move, Beyond Math, a startup based in the heart of Silicon Valley, has developed a advanced technology that promises to revolutionize the way Formula 1 teams design their cars. Their innovative “digital wind tunnel” utilizes physics-based AI simulation to optimize airflow over complex surfaces, saving teams valuable time and resources in the highly competitive world of F1 racing.
The traditional design process in F1 involves running simulations, waiting for results, and then testing in a physical wind tunnel. However, this method is time-consuming and often yields inconsistent results. Beyond Math's solution aims to streamline the process by providing near-real-time simulation results with a high level of accuracy.
The startup's approach involves training their AI model on a combination of theoretical knowledge and observed data, allowing it to understand how a system behaves in the real world. This unique method sets Beyond Math apart from traditional simulation techniques.

The potential impact of Beyond Math's technology on F1 racing is significant. With the ability to run millions of design changes in a matter of months, teams can explore more possibilities and make their cars faster than ever before.
Machine Learning Enhances Physics-Based Simulations for F1 Teams
If make this design change, will it make car more fuel efficient? Imagine you've got six months to design a part for a plane. Given that a simulation takes so long, you might get 20 attempts to try things out. But if a designer thinks of an idea and gets results within seconds or a couple of minutes, in that same six months you might be able to run a million changes.
Beyond Math's success in the F1 market has caught the attention of investors, with the company recently raising an $8.5 million seed round led by UP. Partners, Insight Partners, and In Motion Ventures. The funding will help the startup expand its team and scale up its compute power, further enhancing the capabilities of their digital wind tunnel.
Beyond Math exploring ways to apply their technology to other industries, such as aerospace and automotive design. The startup believes that their AI-driven simulation approach can be adapted to understand different types of objects, from cars to planes to blood vessels.