The article explores the merging of neuroscience principles with Large Language Models (LLMs) in the context of meaning generation.
Neuroscience reveals brain activity follows a 'power law' and operates in high-dimensional geometries, similar to LLM capabilities.
The brain's power-law dynamics allow for stability and flexibility, enabling meaningful cognition through neural avalanches.
The Semantic Collapse Function scores the significance of ideas based on coherence, relevance, and novelty, altering standard LLM outputs.
LLMs typically prioritize statistical likelihood over semantic significance, prompting the proposal to shift to prioritizing meaning.
The Semantic Avalanche Model alters LLM behavior to prioritize profound, meaningful structures over common outputs, simulating human insight.
This model introduces the concept of Semantic Mass and a selection process emphasizing semantic coherence and rarity in outputs.
The proposed architecture mirrors human brain insight processes, aiming to create AI systems that simulate cognitive avalanches of meaning.
The unified equation of the Semantic Avalanche Model guides AI in selecting outputs based on brain-like principles of coherence and power-law distribution.
The article concludes by suggesting that combining neuroscience, semantic resonance mathematics, and structured LLM architectures can lead to the creation of systems that generate highly meaningful symbolic collapses.