How AI Infrastructure Accelerates Scientific Discovery

Scientific discovery in material science has historically been a costly game of trial and error. More companies like Radical AI are realizing they can use high performance compute to level the playing field, skip months of back-and-forth internal iterating and remove the barriers that for decades have held back exploration in quantum physics, nuclear fusion and applied material sciences.
The transistor: 25 years and billions of dollars
To appreciate how transformative AI will be in the material sciences, let’s quickly study one of the greatest innovations of the 20th century: the semiconductor transistor.
- 1925: Patents were first filed for a transistor-like device.
- 1947: Bell Labs built their prototype.
- 1970s: Mass-produced units available publicly.
From 1925 to the early 1970’s, the cumulative cost between Bell Labs, IBM and others likely ran into the billions in today’s money.
AI switches the equation
Artificial intelligence compresses timelines and lowers barriers to entry in materials discovery. Instead of building billion-dollar labs over decades, smaller companies or labs can rent high-performance GPUs for their smaller research teams, and explore volumes of historical datasets at lightning speed. AI is democratizing these discoveries - putting research labs and startups in the same playing field as established enterprises.
Why trial-and-error models fail
Scientific discovery in materials has long been a fragmented and expensive game of trial and error due to various bottlenecks:
- Research silos meant little cross-pollination of ideas, even among internal teams.
- Long timelines for research and development were common as most of it was done manually until the later part of the 20th century.
- Financial resources limited the number of companies able to underwrite massive scientific endeavours.
The result: industries from aerospace to semiconductors waited years for incremental progress while the world’s demand for innovation continued to accelerate.
The Radical AI Approach
Radical AI is rethinking the scientific method. They are embedding machine learning and automation into the heart of discovery in a shift towards processes designed for scale.
[WATCH] The full conversation at this link.
Machine learning for design & discovery
The chemical landscape where materials can be discovered is expansive. The Journal of Chemical Information and Modeling puts the number of possible chemical compound space in the range of 1018−10200. Navigation through traditional means is impossible. Machine learning compresses this exploration, for faster design and prediction of material properties.
The result: more efficient routes to promising outcomes that previously would have been lost in the data overload or misinterpreted by across teams.
The self-driving lab for experimentation
Discovery does not stop at design. Radical AI’s self-driving lab automates experimentation at throughput levels humans cannot match.
- 50–100x faster than human-driven labs.
- Real-time feedback loops, where data is instantly fed back into the design cycle.
- Scalable experimentation, allowing patterns and correlations to emerge from massive datasets far beyond human analysis.
This combination of design and automated testing creates a feedback-rich pipeline where materials can be designed, built, and validated at unprecedented speed.
Usability Powered by Voltage Park Infrastructure
GPUs making discovery usable at scale
Even the most advanced AI models and autonomous labs depend on reliable, high-performance infrastructure. For Radical AI, partnering with Voltage Park as their GPU provider allows them to transform theories into usable workflows.
- NVIDIA HGX H100 GPUs deliver compute at scale, making it possible to explore vast chemical spaces without bottlenecks.
- AI infrastructure powers high-throughput experimentation, turning Radical AI’s vision into practical, usable systems for their internal teams.
- With scalable GPU clusters, discoveries move from concept to validated results, accelerating innovation.
Models and a mission alone won’t pull off scientific discoveries. The right infrastructure for the job, layered with the software that transforms raw data into adoptable intelligence, is the difference between succeeding and stalling.
Let one of our experts help you determine how AI infrastructure can advance your discoveries.