How memory is structured as a navigable world — graphs, hypergraphs, and representations that scale.
11 articles
Six agent-memory systems, read at pinned commits: hardcoded similarity thresholds, no published error rate, and no way to undo a merge.
Is memory hyperbolic? Cognitive maps are real, but one narrow CA1 result and indirect odor evidence do not establish a universal memory geometry.
AI agent consensus can be weak evidence when agents share models, sources, prompts, or memory. Count independent provenance chains instead.
When voting, reputation, and consensus can fail for multi-agent memory — and the published alternatives: outcomes, meta-knowledge, independence, reasons.
Bitemporal memory tracks valid time and transaction time — settled engineering. One reviewed agent system ships it; none of seven benchmarks tests it.
Provenance in agent memory is who asserted a fact, on what evidence, by what derivation. Timestamps keep the when and drop the who — what to record instead.
Graph memory MCP comparison of Graphiti, Cognee, Neo4j, and server-memory across traversal, temporal support, provenance, and STOP gaps.
GraphRAG vs RAG decision guide: when a knowledge graph's build, query, and latency cost pays off for multi-hop retrieval — and when it doesn't.
AI agent knowledge graph traversal depends on navigation policy, read-side tools, resolution, provenance, and stopping budget — not just graph size.
Hypergraph vs hyperbolic graph for AI memory: one grows the edge to many vertices (n-ary); the other curves the space for hierarchy. Where Mnemoverse bets.
Building memory that scales: a memory engine from 0.116 to 0.862 on LoCoMo over seven versions, quality held at 14x growth, with a 3D graph to watch it grow.