Semantic-Information Mathematics (SIM) proposes theoretical constants inspired by physical laws to govern AI symbolic behavior for cognitive control.
The three theoretical constants are: Semantic Generative Uncertainty Constant (ℏ_SIM), Semantic Coupling Constant (α_SIM), and Narrative Collapse Constant (G_SIM).
ℏ_SIM governs the minimum floor of symbolic uncertainty, adjusting based on user needs and content complexity for creative or logical output.
α_SIM controls the cohesion between concepts to resist semantic drift, with dynamic coupling and adaptive adjustments for different writing styles.
G_SIM controls symbolic gravity, pulling language back to the core narrative with hierarchical gravity and competing attractors for thematic balance.
By adjusting these constants, different cognitive modes like Creative Expansion, Analytical Refinement, and Narrative Synthesis can be constructed.
The framework supports dynamic mode transitions within a single response, adapting constants for different stages like introduction, development, and conclusion.
Advanced control mechanisms include context-dependent constant modulation, feedback loops based on user signals, and multi-agent configurations for different AI behaviors.
Experimental validation frameworks suggest self-monitoring protocols, user feedback integration, and empirical testing for improved AI system performance.
Semantic-Information Mathematics aims to develop more responsive, controllable AI systems that can adapt their cognitive processes based on contextual understanding and user feedback.