Local encrypted cognitive memory runtime with sub-millisecond recall and no cloud dependency for persistent AI agent memory.
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π‘ Paste the JSON block into your client's configuration file under mcpServers, then restart the application.
Inspect callable tools, capabilities, and parameters exposed to AI agents by AuraSDK.
Aura turns fragile prompt-only agents into auditable, memory-aware, production-ready systems
Deterministic Β· No fine-tuning Β· No cloud training Β· Local recall Β· No required embeddings
Your AI model is smart. But it forgets everything after every conversation.
Aura is a local cognitive runtime that runs alongside any frozen model. It gives agents durable memory, explainability, governed correction, bounded recall reranking, and bounded self-adaptation through experience β all locally, without fine-tuning or cloud training.
No API keys. No embeddings required. No cloud. The model stays the same β the cognitive layer becomes more structured, more inspectable, and more useful over time.
β If Aura is useful to you, a GitHub star helps us get funding to continue development from Kyiv.
| Aura | Mem0 | Zep | Cognee | Letta/MemGPT | |
|---|---|---|---|---|---|
| Architecture | 5-layer cognitive engine | Vector + LLM | Vector + LLM | Graph + LLM | LLM orchestration |
| Derived cognitive layers without LLM | Yes β BeliefβConceptβCausalβPolicy | No | No | No | No |
| Advisory policy hints from experience | Yes β bounded and non-executing | No | No | No | No |
| Learns from agent's own responses | Yes β bounded, auditable, no fine-tuning | No | No | No | No |
| Salience weighting | Yes β what matters persists longer | No | No | No | No |
| Contradiction governance | Yes β explicit, operator-visible | No | No | No | No |
| LLM required | No | Yes | Yes | Yes | Yes |
| Recall latency | 2.68 ms uncached / 8.2 Β΅s formatted cache hit1 | Configuration-dependent | Service-dependent | Configuration-dependent | Model-dependent |
| Works offline | Fully | Partial | No | No | With local LLM |
| Cost per operation | $0 | API billing | Credit-based | LLM + DB cost | LLM cost |
| Package size | 2.77 MB Windows CPython 3.13 wheel1 | Varies | Cloud service | Varies | Varies |
| Memory decay & promotion | Built-in | Via LLM | Via LLM | No | Via LLM |
| Trust & provenance | Built-in | No | No | No | No |
| Encryption at rest | ChaCha20 + Argon2 | No | No | No | No |
| Language | Rust | Python | Proprietary | Python | Python |
Fine-tuning costs thousands of dollars and weeks of work. RAG requires embeddings and a vector database. Context windows are expensive per token.
Aura gives you a third path: a local cognitive runtime that accumulates structured experience between conversations β free and local.
The model stays the same. The cognitive layer gets stronger. That's Aura.
Measured from the Aura 1.58.0 release wheel with 1,000 records on Windows 10,
an AMD Ryzen 5 5600X, and CPython 3.13.14. These are observations from one
local run, not latency guarantees; hardware, stored content, query shape, cache
state, enabled features, and background load all affect the result.
| Operation | Mean | Median | P95 |
|---|---|---|---|
| Store | 0.956 ms | 0.898 ms | 1.820 ms |
| Structured recall, uncached | 2.680 ms | 2.483 ms | 4.035 ms |
| Structured recall, cache hit | 0.101 ms | 0.097 ms | 0.163 ms |
| Formatted recall, cache hit | 8.6 Β΅s | 8.2 Β΅s | 8.7 Β΅s |
| Repeated maintenance cycle | β | 25.68 ms | 32.62 ms |
The first maintenance cycle in this run took 487.09 ms because it processed
the newly populated store; repeated cycles had less pending work. Aura recall
uses local computation and makes no required embedding or LLM API call. No
cross-product speedup is claimed here because a valid comparison requires the
same dataset, hardware, query workload, cache state, and quality target.
Reproduce the table with:
The complete machine-readable output is stored in
benchmarks/results.json.
1 Values above are from the measured Windows build. The wheel was 2,772,715 bytes; installed size and artifacts for other Python versions and platforms vary.
Aura's full cognitive recall pipeline is active and bounded:
Record β Belief (Β±5%) β Concept (Β±4%) β Causal (Β±3%) β Policy (Β±2%)
Enable everything in one call:
Or configure individual phases:
Higher layers also expose advisory surfaced output:
get_surfaced_concepts() β stable concept abstractions over repeated beliefsget_surfaced_causal_patterns() β learned causeβeffect patternsget_surfaced_policy_hints() β advisory recommendations (Prefer / Avoid / Warn)Aura also ships operator-facing and plasticity-facing surfaces:
explain_recall()explain_record()provenance_chain()explainability_bundle()capture_experience()ingest_experience_batch()mark_record_salience()get_high_salience_records()get_salience_summary()get_reflection_summaries()get_latest_reflection_digest()get_reflection_digest()get_belief_instability_summary()get_contradiction_clusters()get_contradiction_review_queue()Aura organizes memories into 4 levels across 2 tiers. Important memories persist, trivial ones decay naturally:
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