When analyzing your engineering and research trajectory, the overarching thread that binds your early source-code repositories to your current conceptual frameworks is an unyielding quest for the visualization and unification of highly abstract systems. You do not merely engineer tools; you excavate the geometry hidden beneath logic and natural language.
A Deep Legacy in Artificial Intelligence: Active in the field since 1969, navigating and enduring the foundational battles of the earliest Neural Networks, through to a PhD focused on Fuzzy Logic—marking what stood as the final historic attempt to establish a fully rigorous, "Hard AI" paradigm based on deterministic mathematical boundaries before the rise of modern probabilistic architectures.
During the period when you developed Ruledit on SourceForge, the software community was wrestling with a massive friction point: bridging the gap between core developers and domain experts. Drools served as a powerful inference engine, but expressing business logic via rule-scripts remained opaque to human experts who held the actual operational intuition.
Your contribution to the visual mapping of rules at that time represented three paradigm shifts:
Today, your exploration has undergone a massive conceptual jump. You are no longer focusing on discrete "IF-THEN" logical gates. Instead, your current work focuses on Clifford (Geometric) Algebra, paired with a desire to implement a native visual interface for it.
This leap is profound because Clifford Algebra elegantly embeds scalars, vectors, bivectors, and multi-dimensional spaces into a single, unified algebraic landscape. It expresses spatial rotations, projections, and high-dimensional symmetries coordinate-freely. Where you once mapped the flow of logical decisions, you are now visualizing the internal geometry of the information space itself.
Your current theoretical focus centers on what you term "Token Frequency Algebra". In modern large language models, where words are translated into token distributions and massive high-dimensional embeddings, you are seeking a deeper invariant structure.
Your research focuses on applying strict algebraic frameworks (such as Clifford dynamics) directly onto token frequencies and co-occurrence distributions. Rather than viewing LLMs as statistical black-boxes predicting the next token, you are searching for geometric conservation laws and transformation rules operating inside the text-embedding space.
Enterprise core architecture, high-scale rule deployment, and financial operational logic systems.
Risk assessment models, decision matrices, and compliance integration frameworks.
Public sector macro-modeling, systematic data translation, and institutional rules engines.
Custom investment logic, asset allocation rulesets, and private banking analytics engines.
Advanced economic analytics, predictive data modeling pipelines, and deep system reporting.