Multi-agentic ecosystems are becoming commonplace, but how can we trust them? We propose Pact, a formal coordination language that unifies ideas from game theory, distributed systems and cryptography to enable trustworthy multi-agent coordination.

We introduce ExoPredicator, a system that learns abstract world models for robot planning. By abstracting state, time, and both endogenous and exogenous causal processes, ExoPredicator enables robots to quickly learn how dynamic environments work and plan efficiently in them.

Four agents spent 14 days and 93,000 lines of Lean building a verified JS-to-WASM compiler from scratch. The compiler ran; the proofs didn’t close.

We’re releasing a new version of Autumn with human baseline results, AI performance comparisons, and an interactive benchmark for world model discovery. This release includes the MARA protocol and provides a public platform for testing causal reasoning capabilities.

Written in 2022, this founding document defines Basis’ vision and thesis of how to build a new kind of research organization.

Project MARA aims to develop AI systems capable of performing everyday scientific discovery through active experimentation and abstract reasoning. The project will create systems that can discover and apply causal models across diverse domains, from physical robotics to digital interfaces.

Basis contributed to a new technical roadmap, “NeuroAI for AI Safety,” from Amaranth Foundation. The roadmap aims to make AI systems safer by understanding and implementing the brain’s approach to intelligent behavior.

In a new paper, we combined cognitive neuroscience with statistical methods to model group foraging behavior. Our ongoing work aims to construct a unifying framework that allows researchers to analyze complex group behaviors across different species and environments.

In collaboration with Marlene Berke and the Computational Social Cognition Lab at Yale, we’re introducing MetaCOG, a probabilistic model that can learn a metacognitive model of a neural object detector and use it to improve the detector’s accuracy without feedback. This represents a step towards building AI systems that can go beyond representing their inputs and also represent their own thought processes.

In a new paper, we demonstrate biologically-plausible neural network models that can compute important features of predictive learning and memory systems. Our results suggest that these features are more accessible in neural circuits than previously thought, and can support a broad range of cognitive functions. The work achieves something that has proved difficult in AI research: bridging a well-defined computational function with its neural mechanism.

We’re introducing AutumnSynth, an algorithm that synthesizes the source code of simple 2D video games from a small amount of observed video data. This represents a step forward toward systems that can perform causal theory discovery in real-world environments.