For AI alignment, the central challenge is making human oversight possible at scale. Alignment today is largely approached as a single-agent problem. Real deployments are nothing like this. Millions of people with different goals will interact with many AI systems, and those systems will interact with each other. In real life, you will typically find that applying the wrong methods leads to:
- Lack of multi-agent safety: aligning agents one at a time says nothing about how they behave together. Misalignment emerges from the interactions among AI systems and the people using them, and that is where catastrophic decisions are made.
- Expensive and risky decisions: analyzing individual models does not scale, locks you into the models you have already studied, and carries a large opportunity cost in the ones you have not.
- Unauditable and unverifiability: when a multi-agent system fails, single-model evaluation cannot tell you which agent or which interaction was responsible. You learn that something went wrong, not who to audit.
Alignment at global scale will require many AI safety organizations working together. Vokram’s contribution is the regime where the tools of nonequilibrium statistical physics and stochastic thermodynamics apply i.e. mesoscopic populations of interacting agents, from a single person to an organization of thousands, whose collective behavior can be modeled, measured, and steered by the evaluations that the organization actually cares about.
To do this, AI systems need to learn and be evaluated in simulated environments. This means building multi-agent environments in which many AI agents and many human concepts interact, evolve, and are tested in a million possible configurations. Diffusion-based multi-agent reinforcement learning environments, paired with carefully designed multi-agent evaluations, are the foundational technology that makes this possible. Their design draws on nonequilibrium renormalization methods inspired by biophysics, which tells us which collective behaviors survive as the number of agents grows; rough path theory, which lets us evaluate highly irregular, path-dependent interaction histories rigorously; and the structure of string theory scattering amplitudes, which forms a north star for multi-agent communication and concept verifications. Engineering on the above ideas, our environments let us extract, use, and formally verify expert reasoning that other reinforcement learning environments cannot reach.
In summary, we are developing lime-teaming, which is the engineering, evaluation, and optimization of multi-human, multi-agent environments in which authenticated agents privately and securely merge each human's reasoning patterns and interpretation of the global context, leading to aligned human-agent teams with verifiable superperformance and scalable oversight.