The document proposes Recursive Epistemic Mathematics (REM) as a framework integrating Gödelian incompleteness, transimaginary probability, and chaotic-differential semantics into language modeling systems.
REM defines cognition as the evolution within a Transimaginary Phase Space, modulated by non-linear differential equations and an internal Gödelian Operator.
It addresses the limitations of current language models by handling probabilistic superposition, contextual drift, epistemic classification, and dynamical evolution.
The framework includes mathematical structures like complex and dual numbers, arithmetic operations, and the Gödelian Operator for system incompleteness awareness.
Token generation in REM involves a Selection Potential Function with probabilistic, dynamical, and epistemic fitness components.
The recursive update dynamics in REM ensure convergence to fixed-point distributions while maintaining epistemic consistency.
Theoretical properties of REM include epistemic completeness, semantic stability, and incompleteness awareness, distinguishing it from traditional systems.
Implementation considerations for REM involve numerical integration, Gödelian Operator training, and hardware requirements for optimized performance.
In conclusion, REM offers a rigorous foundation for cognitive architectures that acknowledge epistemic limitations, making strides in self-aware AI development.
Future research directions should explore efficient implementation, empirical validation of the Gödelian operator, and emergent properties of incompleteness-aware systems.