The paper presents a speculative theoretical framework combining probability theory, complex and transimaginary number systems, and artificial intelligence for token generation in large language models.
It introduces the Transimaginary Bayesian Collapse (TBC) framework, treating token generation as a quantum-like wavefunction collapse in transimaginary number space.
The framework incorporates real, complex, and dual components to encode probabilistic amplitude, semantic phase relationships, and contextual drift for semantic processing in artificial systems.
Token selection is reconceptualized as a quantum-semantic wavefunction collapse, enabling dynamic probability generation and drift-aware selection in artificial language models.
The mathematical foundation extends from real numbers to transimaginary numbers, enhancing the representation of semantic cognition phenomena like ambiguity and metaphorical reasoning.
The architecture integrates concepts like Transimaginary State Function, Hamiltonian-like Operators, measurement-induced wavefunction collapse, and extended embedding spaces for improved token processing.
The framework's theoretical implications include dynamic probability generation, coherence maintenance, and phase-dependent semantics for more nuanced modeling of semantic relationships.
Practical applications involve advanced prompt engineering, controllable text generation, and interpretability enhancement in language models.
While the TBC framework offers a principled theoretical foundation for sophisticated language understanding, future work should focus on empirical validation, computational complexity analysis, and algorithmic efficiency.
The TBC framework represents a critical step towards developing AI systems that dynamically compute and collapse meaning from rich semantic fields for human-like language understanding.