Ensuring narrow ASI systems reliably pursue human-beneficial goals through mathematical frameworks and measurable safety metrics.
We take a multi-layered approach: mathematical value learning, scalable oversight, and formal verification bounds.
Mathematical formalization of beneficial AI. Using inverse reinforcement learning to extrapolate latent human preferences across distribution shifts.
Scalable oversight protocols. Implementing recursive reward modeling and principle-based training to reduce reliance on direct human labels.
Hard constraints on action spaces. Utilizing mathematical proofs to guarantee system behavior remains within safety envelopes during runtime.
Fail-safe architectures. Developing tripwire mechanisms and rapid-shutdown protocols for detecting sudden alignment failures.
Formal publications detailing our progress in alignment theory and architectural safety.
We welcome collaboration with academic institutions and safety researchers to advance shared goals.