Advances in Artificial Intelligence and Information Physics

The field of artificial intelligence is moving towards a more unified and principled approach, with a focus on formal frameworks and thermodynamic constraints. Recent developments have highlighted the importance of balancing exploitation and exploration in decision-making under uncertainty, and the need for scalable and energy-efficient solutions. The concept of active inference is being refined and unified with variational inference, enabling more efficient and effective decision-making. Additionally, the intersection of information theory and thermodynamics is providing new insights into the fundamental limits of information processing and the design of next-generation AI architectures. Notable papers in this area include:

  • Active Inference is a Subtype of Variational Inference, which presents a novel message-passing scheme for scalable active inference.
  • Information Physics of Intelligence: Unifying Logical Depth and Entropy under Thermodynamic Constraints, which introduces a novel metric, Derivation Entropy, and demonstrates the existence of a critical phase transition point in information processing.

Sources

Leibniz's Monadology as Foundation for the Artificial Age Score: A Formal Architecture for Al Memory Evaluation

Beyond the Expiry Date: Uncovering Hidden Value in Functional Drink Waste for a Circular Future

Active Inference is a Subtype of Variational Inference

Information Physics of Intelligence: Unifying Logical Depth and Entropy under Thermodynamic Constraints

Active Inference in Discrete State Spaces from First Principles

Any interior point of a finite interval on the real line can be interpreted as dual Fr\'echet means

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