Grokers: Bottom-Up Inductive Comprehension and Write-Time Intelligence over Typed Knowledge Graphs
Quick Answer
Grokers introduces a novel architecture for enhancing typed knowledge graphs through bottom-up inductive comprehension, enabling autonomous agents to enrich attributes at write time, thus eliminating additional comprehension costs during queries.
Quick Take
Grokers introduces a novel architecture for enhancing typed knowledge graphs through bottom-up inductive comprehension, enabling autonomous agents to enrich attributes at write time, thus eliminating additional comprehension costs during queries. It proves three key theorems related to efficiency and traversal order, and offers a deterministic alternative to embedding-based semantic search with a synonym caching protocol.
Key Points
- Grokers uses autonomous agents to analyze and enrich typed knowledge graphs at write time.
- The Byte-Identity Theorem ensures high KV-cache hit rates near 100%.
- Accumulation Monotonicity Theorem guarantees increasing efficiency with more interactions.
- The architecture provides a deterministic alternative to embedding-based semantic search.
- A reference implementation is available in the open-source Qbix/Safebox/Safebots stack.
Paper Resources
Article Content
From source RSS / original summaryarXiv:2606. 00050v1 Announce Type: new Abstract: We present Grokers, an architecture for building persistent, structured comprehension of typed knowledge graphs through bottom-up inductive traversal of dependency subgraphs.
Unlike (RAG), which pays full comprehension cost at every query, Grokers pushes intelligence to write time: autonomous Groker agents analyze nodes in a typed stream graph, extract structured attributes via governed language model (LM) calls, and inductively compose that understanding upward through dependency relations, writing enriched typed attributes that serve all future queries at zero additional LM cost.
We prove three formal properties: (1) the Byte-Identity Theorem, establishing that context blocks assembled from a transactionally-maintained denormalization index are byte-identical across LM turns between semantic changes, enabling KV-cache hit rates approaching 100%; (2) the Accumulation Monotonicity Theorem, establishing that the fraction of interactions resolved without LM calls is non-decreasing in the number of completed interactions under a governed wisdom library growth protocol; and (3) the Dual-Traversal Ordering Theorem, establishing that top-down generation and bottom-up comprehension are the unique correct traversal orderings for their respective tasks over a dependency DAG, and that their composition closes into a complete generation-comprehension cycle.
We further present a deterministic alternative to embedding-based semantic search, with a synonym caching protocol whose LM fallback rate converges to zero for finite-vocabulary domains. A reference implementation is provided in the open-source Qbix / Safebox / Safebots stack.
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