Differentiable Causal Graphs Learn Cognitive Maps from Images

Arash Nikzad, Sasan Sarbishegi, Ali Dasmeh, Muhammad Asif, Parsa Gharavi, Erik Husom, Sagar Sen, Andrew B. Lehr, Olivier Penacchio, Ana Clemente, Tristan M. St\"ober· July 15, 2026 View original

Summary

A new differentiable algorithm, gradCSCG, enables end-to-end learning of interpretable cognitive maps from raw image sequences. It combines a normative hippocampus model with a VQ-VAE, successfully recovering underlying graph topologies in aliased environments.

Agents typically struggle to build structured world maps from raw, non-repeating sensory input and movements, especially when exact patterns are rare. The original Clone-Structured Causal Graph (CSCG) algorithm offered a solution for learning interpretable maps but required predefined discrete inputs and wasn't easily integrated with neural networks for end-to-end processing of raw data like images.Researchers have now addressed this by reformulating CSCG into a fully differentiable module called gradCSCG. This new module is coupled with a learned vector-quantized variational autoencoder (VQ-VAE) for perceptual input. This allows the map-learning objective to flow back into the perception module, enabling joint training and robust map recovery from visual input.The gradCSCG pipeline successfully reproduces original CSCG results on symbolic grid worlds and demonstrates robust map recovery on MNIST image sequences, even in heavily aliased environments. This work provides a foundational proof that CSCG can serve as a composable building block within deep learning architectures for cognitive map learning.

Why it matters

This breakthrough could lead to more robust and interpretable AI agents capable of understanding and navigating complex environments directly from raw sensory data, crucial for robotics and autonomous systems.

How to implement this in your domain

  1. 1Investigate gradCSCG for developing AI agents that build internal representations of their environment.
  2. 2Apply the end-to-end learning pipeline to robotic navigation or autonomous vehicle perception systems.
  3. 3Explore integrating this differentiable module into existing deep learning architectures for enhanced spatial reasoning.
  4. 4Consider using this approach for tasks requiring an agent to learn from ambiguous or aliased sensory inputs.

Who benefits

RoboticsAutonomous VehiclesGamingVirtual RealityLogistics

Key takeaways

  • gradCSCG allows end-to-end learning of cognitive maps from raw image sequences.
  • It integrates a normative hippocampus model with a VQ-VAE for perception.
  • The differentiable nature enables joint training and robust map recovery.
  • This work is a step towards more interpretable and robust AI agents.

Original post by Arash Nikzad, Sasan Sarbishegi, Ali Dasmeh, Muhammad Asif, Parsa Gharavi, Erik Husom, Sagar Sen, Andrew B. Lehr, Olivier Penacchio, Ana Clemente, Tristan M. St\"ober

"arXiv:2607.12382v1 Announce Type: new Abstract: How can an agent build a structured map of its world from nothing but an ongoing sequence of raw sensory input and its own movements, especially when natural variation means exact sensory patterns rarely repeat? The Clone-Structured…"

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Originally posted by Arash Nikzad, Sasan Sarbishegi, Ali Dasmeh, Muhammad Asif, Parsa Gharavi, Erik Husom, Sagar Sen, Andrew B. Lehr, Olivier Penacchio, Ana Clemente, Tristan M. St\"ober on X · view source

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