The concept of an inductive-deductive loop is compelling for moving beyond pure pattern matching toward true conceptual understanding. The primary challenge in practical implementation lies in designing the interface between the structural induction layer (H-Net) and the reasoning layer (Transformer).
For efficient communication, the output of H-Net—the discovered semantic chunks and hierarchical abstractions—must be represented in a format that the Transformer’s attention mechanism can effectively utilize. Simply feeding raw text chunks might lead the Transformer to focus on surface features rather than the induced conceptual structure. I suggest exploring methods where H-Net generates a compressed, structured latent representation of the input, perhaps using these chunks as explicit context vectors or attention keys. For instance, H-Net could output a set of hierarchical nodes that serve as high-level semantic anchors. The Transformer would then use these anchors not just for generating the next token, but to guide its attention over the entire context, forcing the deductive process to operate on established conceptual boundaries.
Another approach involves using the induced hierarchies to modulate the Transformer’s internal state. This could be implemented via cross-modal attention or by injecting the H-Net derived structure into the input embeddings as structural priors. This transforms the feedback from a sequential process into a structured, self-referential reasoning process, allowing the system to verify deductions against its inductively learned conceptual map.
This bridging mechanism is where the novelty of the system will reside: ensuring that the inductive knowledge is not merely appended, but actively constrains the deductive reasoning.