Powering Innovation in Sustainable Motorsport
How ClusterVision, AMD, and Giga Computing enable hydrogen and electric race car development for HyDriven and Formula Student Team Delft.
Introduction:
In motorsport, sustainability and innovation are no longer optional but essential. Two ambitious student teams, HyDriven and Formula Student Team Delft lead this transformation by designing next-generation race cars powered by hydrogen and electricity for the international Formula Student competition.
These projects are feats of engineering, but behind every high-performance vehicle is a high-performance computing (HPC) environment. To push the boundaries of aerodynamic efficiency, the teams rely on advanced simulation techniques, which were made possible through strategic collaboration with ClusterVision, and technology partners AMD and Giga Computing (A subsidiary of GIGABYTE).
Together, they delivered the infrastructure and operational capabilities that enable these teams to design, simulate, and optimise their cars faster, more efficiently and more sustainably than ever before.
Challenge:
Whether at a student or a professional level, modern race car development hinges on one fundamental principle: extracting maximum performance within strict time and resource constraints. For HyDriven and Formula Student Team Delft, aerodynamics is at the heart of their competitive edge.
The teams turn to Computational Fluid Dynamics (CFD) to perfect airflow around intricate bodywork and fine-tune designs. However, CFD comes at a cost: significant computational demand, often beyond the reach of conventional on-premise systems.
Without access to high-fidelity simulations, the teams would have to rely on physical prototyping, a process that consumes time and materials while limiting the number of design iterations, in a competitive environment where speed and precision matter, this is a significant disadvantage.
To meet these demands, ClusterVision, in partnership with Giga Computing and AMD, provided a complete high-performance computing environment tailored to the iterative workflows of the student engineering teams.
"CFD is the cornerstone of our aerodynamic innovation. By running some of the highest-fidelity simulations on the grid, we push the boundaries of performance to develop our most advanced aero package yet."
Driven by the pursuit of greater performance, GIGABYTE servers are purpose-built to support the latest and best processor technologies. We engineer our systems to stay ahead of the ever-increasing compute demands and changing landscape of resource utilisation, so we build systems that our customers can expand within, such as adding more storage drives.
Solution:
At its core is the GIGABYTE G482-Z54 platform, a powerful GPU solution equipped with:
- 2x AMD EPYC™ processors
- 8x NVIDIA GPUs
- 512 GB RAM
- 4 TB SATA SSD + 3.84 TB NVMe SSD
This hardware delivers the compute density, parallelism, and throughput required to run high-resolution CFD simulations — from early design exploration to final-stage optimisation. Yet performance alone isn’t enough. A system is only as valuable as its usability and maintainability. That’s where ClusterVision added critical value.
By deploying TrinityX, ClusterVision’s open-source HPC management platform, the teams gained a user-friendly interface for managing resources, running simulations, and monitoring workflows. TrinityX enabled them to focus on engineering, not system configuration or software compatibility.
In addition, ClusterVision’s Remote System Administration (RSA) provided continuous support and optimisation. With expert engineers, the teams benefited from sustained uptime, proactive troubleshooting, and system stability — even as new students joined and responsibilities shifted.
TrinityX was a key enabler in this collaboration — not just managing the complexity of a high-performance environment but making it accessible and reliable for engineering teams under real-world pressure. By simplifying cluster operations and integrating seamlessly with simulation tools, TrinityX allowed these students to focus entirely on innovation, not infrastructure.
You can't win today's race with yesterday's tools — and thanks to this HPC solution, we didn't have to. Access to powerful compute allowed us to simulate, refine, and innovate faster and more efficiently than ever. It enabled us to push boundaries and develop our hydrogen-powered race car as a competitor
Results
The impact of the combined solution was both immediate and measurable:
- Design cycles were significantly shortened, enabling more iterations in less time
- Reliance on physical prototyping was reduced, saving materials and cost
- Design flexibility increased, allowing bold aerodynamic innovations to be tested with confidence
For HyDriven, this capability culminated in a significant milestone: becoming the first hydrogen-powered entry to complete all Formula Student events — a powerful demonstration of sustainable performance.
For Formula Student Team Delft, the HPC platform enabled their most advanced aerodynamic package, reinforcing their standing as one of the world’s top-performing Formula Student teams.
Why It Matters:
Both teams embraced a more sustainable development process that reduced waste, minimised unnecessary manufacturing, and placed simulation at the heart of decision-making.
This success story highlights the transformative potential of HPC in the hands of young innovators. It demonstrates how the right combination of hardware, software, and support can unlock world-class engineering, even outside the enterprise sphere.
With Giga Computing’s performance-driven platforms, the power of AMD EPYC™ processors, and ClusterVision’s orchestration and operational expertise, the next generation of engineers isn’t just learning—they’re leading.
Their story is a blueprint for how industry, academia, and technology providers can collaborate to accelerate sustainable innovation — not in theory, but in practice.
