Meet Rumi

Rumi handles
the hustle.

Your organization is constantly producing new information. Agents discover things. Documents change. Projects evolve. Decisions are made. APIs send updates. People correct earlier assumptions. Rumi works through that incoming stream and helps turn it into organized, reusable memory.

See Rumi in Action
How Rumi Works

Six steps from
noise to knowledge

Rumi is not a general purpose chatbot. Rumi's responsibility is to help process incoming information into usable memory. Each step is deterministic, auditable, and configurable.

01

Understand

Rumi examines incoming information and identifies what it is about. Entity extraction, topic classification, and intent recognition happen at ingest time.

02

Summarize

Important context can be condensed into useful memory without losing the original source. Configurable summary lengths preserve fidelity for critical details.

03

Categorize

Rumi helps organize knowledge into meaningful categories and metadata. Automatic tagging, namespace assignment, and taxonomy alignment.

04

Connect

Related memories can be associated so future Recall is not limited to exact words. Semantic similarity, entity co-occurrence, and temporal proximity create graph edges.

05

Prepare

Information is prepared for semantic retrieval and future use by connected systems. Embedding generation, index updates, and cache warming happen automatically.

06

Organize

The Stash becomes more than stored content. It becomes an organized memory layer with lifecycle governance, decay scheduling, and audit trails.

Recall Racoon - Rumi

Rumi works in the background so your people and AI systems do not have to become memory librarians.

Rumi does not replace your AI tools. Rumi helps them remember.

Rummage Governance

Multi-probe validation
at every write

Every memory entering Recall Racoon passes through Rumi's probe pipeline. Probes are configurable per namespace and can be extended with custom validators.

πŸ”Format Probe

Validates structure against expected schemas. JSON, Markdown, YAML, and custom formats. Rejects malformed input before it enters the pipeline.

πŸ”Citation Probe

Verifies source attribution. Every claim must reference a document, ticket, commit, or API response. Configurable minimum citation count per namespace.

πŸ”Semantic Probe

Checks for semantic coherence. Detects hallucinations, contradictions, and low-confidence extractions using local embedding comparison.

πŸ”Contradiction Probe

Compares new claims against existing Stash. Semantic similarity threshold (default 0.85) triggers conflict detection. 5-tier auto-resolution: supersede, merge, flag, archive, or reject.

πŸ”Decay Probe

Time-based confidence decay. Configurable half-life per namespace. Stale claims (confidence < 0.80, age > 90 days) flagged for review or auto-archive.

Lifecycle

Claim lifecycle
governance

Every memory is a lifecycle-managed claim. State transitions are explicit, auditable, and governed by policyβ€”not probabilistic drift.

StateDescriptionTransition TriggersRecall Eligible
candidateNewly ingested, awaiting probe validationIngestion completeNo
confirmedPassed all probes, active in StashAll probes passYes
staleConfidence decayed below thresholdDecay probe, age > 90dFlagged
supersededReplaced by higher-confidence claimNew evidence, contradiction resolutionNo (ref only)
conflictedSemantic contradiction detectedContradiction probe, similarity > 0.85No
archivedRetained for audit, excluded from RecallManual, policy, or age-basedNo
Ready to See Rumi

Watch Rummage
in the demo