Our Moonshot

Our goal is to build an AI Physicist capable of developing a new theoretical framework that unifies (or transcends) quantum mechanics and general relativity by the end of 2035.

Theo Collaborator

Sign up for early access to Theo Collaborator, a domain-specialized scientific workflow system. Plan, execute, and revise research without starting over.

Theo
Conjecture

Theo Conjecture, for automated conjecturing, is currently in Research Preview. Sign up to request early access.

Theo, the AI Physicist

A modular system built to reason like a physicist for AI-enabled discovery in fundamental science.

Our Mission

Our mission is to understand the nature of reality by advancing AI-driven discovery in fundamental science.

Science is bottlenecked.

We now have more scientific knowledge than any individual, or even teams, can meaningfully use. It is scattered across subdomains and specialties, and as it grows, the burden of learning and applying it increases. At the same time, the questions themselves are becoming more complex. Together, these factors are turning scientific progress into a problem of reasoning capacity.

Why physics?

Physics is the foundation of how we understand the world around us, and progress in the field has historically driven breakthroughs across energy, infrastructure, medicine, and technology.

It is also a highly complex domain, requiring deep specialization and integration across vast domains of knowledge. This makes it a natural place to explore new ways of doing science with a large potential for impact.

What changes when reasoning scales

When we expand the ways in which discovery can happen:

  • Hypotheses can be explored in new ways
  • Hidden connections across enormous datasets can become visible
  • Intuition is supported in complex spaces
  • Testing becomes dramatically faster
  • Dead ends may be abandoned sooner
  • Ambitious questions become more tractable

Why now?

We are at an inflection point. Scientific questions have grown vastly more complex and data-rich, while AI capabilities have advanced to the point where they can meaningfully participate in the scientific process.

However, a structural gap is emerging. Academic institutions are not structured to build frontier AI models at scale, while advances in AI are largely developed outside of systems designed specifically for scientific discovery.

FirstPrinciples exists to bridge this gap by building specialized AI systems for science, designed around real research workflows.

How this gets built matters.

How we build new scientific infrastructure influences how research is conducted. Decisions about interoperability and design affect how findings are communicated and how broadly tools are shared.

We aim to build responsible scientific infrastructure:

  • Grounded in the scientific method
  • Guided by clear design principles
  • Developed in collaboration with the scientific community

Who it’s built for matters just as much.

Systems that are designed for researchers and encourage collaboration are more likely to contribute to shared scientific progress.

  • Built for global collaboration
  • Informed by research needs and practices
  • Designed for use by researchers globally

Our path to 2035

2026

Foundations

Build the infrastructure for machine-verifiable scientific reasoning, starting with 1 specific domain of physics.

2028

AI Scientists

Systems that can generate hypotheses, reason scientifically, and verify results in well-defined areas of physics.

2032

Theory Discovery

Machine-assisted discovery of new theoretical structures and physical principles.

2035

Toward Unification

AI-driven outcomes in fundamental physics - uncovering deeper unifying frameworks.