Artificial General Intelligence (AGI) aims to create dynamically adaptive systems that evolve recursively without relying on extensive training data or predefined architectures.
The Fractal Flux AGI prototype explores recursive learning, fractal-driven decision-making, and time-spiral cognition to model intelligence as a constantly evolving structure.
Five core principles of the Fractal Flux AGI model include recursive learning, fractal feedback loops, bootstrap adaptation, chaos regulation, and time-spiral evolution.
A Python implementation of the Fractal Flux AGI model is provided to simulate knowledge evolution, fractal complexity, and memory retention over multiple time steps.
The model's recursive learning loop updates itself based on past and predicted future states, promoting dynamic knowledge refinement without external datasets.
Fractal flux function introduces self-similar complexity to ensure structured adaptation, chaos regulation for stability, and time-spiral evolution for continuous learning cycles.
The prototype demonstrates self-improving intelligence, fractal-driven adaptation, long-term memory stability, and nonlinear knowledge evolution.
Applications of the Fractal Flux AGI model include multi-agent learning, decision-making systems, cognitive modeling, and AI alignment.
Future developments could integrate multi-agent interactions, refine chaos regulation mechanisms, and compare performance with traditional AI models.
The Fractal Flux AGI model represents a step towards exploring self-referential intelligence structures that go beyond traditional training paradigms in the pursuit of AGI.