# semantic-memory-mcp
An MCP (Model Context Protocol) server that gives your AI agent a
local-first knowledge base with hybrid search, evidence-scored
retrieval, contradiction detection, and autonomous memory lifecycle
management.
All data stays on your machine. SQLite for storage, in-process Candle
embedder (pure Rust, CPU-only), no cloud, no API keys, no telemetry.
**No Ollama required.** The default embedder is Candle — a pure-Rust ML
framework that runs nomic-embed-text-v1.5 in-process on CPU. The model
downloads automatically from HuggingFace on first use (cached after).
No external process, no model server, no GPU needed.
**No cloud dependencies.** Every component runs locally: the SQLite
database, the usearch vector index, the Candle embedding model, the
MCP server process. There are no calls to OpenAI, Anthropic, Pinecone,
Weaviase, Supabase, or any hosted service. The only network call is
the one-time model download from HuggingFace (cached after). Your
knowledge base never leaves your machine.
**Ollama still supported.** If you prefer using an external Ollama
instance, pass `--embedder ollama --embedding-url http://localhost:11434`.
[](docs/architecture.svg)
## What this gives your agent
Your agent gets a persistent knowledge base that:
- **Searches by meaning, not just keywords** — hybrid BM25 + vector
similarity + Reciprocal Rank Fusion, with the full score breakdown
returned directly by `sm_search`.
- **Tracks evidence confidence** — every item can carry algebraic
provenance (semiring confidence scores with support counts).
- **Detects and corrects contradictions** — syndrome detection and
belief propagation on conflict graphs. The decoder identifies
inconsistent items and computes minimal corrections.
- **Decays old knowledge** — temporal weight factors in age,
supersession, support, and contradiction signals.
- **Discovers related knowledge** — second-order retrieval through
graph neighbors (discord search surfaces items related to your
direct hits but not themselves direct hits).
- **Adapts search strategy per query** — adaptive routing profiles
each query and decides which retrieval stages to activate.
- **Garbage-collects safely** — lawful subtraction with invariant
verification. The lifecycle pass identifies items safe to forget,
compress, or quarantine.
- **Audits every operation** — blake3-digested receipts for every
mutation, replayable.
- **Tracks causal history** — typed graph edges (semantic, temporal,
causal, entity) link items into a queryable knowledge graph.
- **Reasons over the graph** — factor graph belief propagation
unifies all four edge types into a single probabilistic framework.
- **Finds structural gaps** — topological analysis computes Betti
numbers and identifies voids in the knowledge graph.
- **Detects communities** — Leiden-inspired community detection with
within-community contradiction scanning and compression-aware
recommendations.
- **Self-edits memory** — `sm_update_fact` modifies facts in-place
with re-embedding. `sm_consolidate_facts` merges duplicates with
automatic supersession edges.
- **Learns from outcomes** — `sm_record_outcome` feeds good/bad/neutral
signals to the RL routing policy, improving retrieval decisions over
time.
- **Reranks with LLM** — optional `POST /rerank` endpoint uses an LLM
(granite4.1:3b via Ollama) to rate query-document relevance 1-5 and
reorder results for higher precision.
- **Extracts entities** — when `extract_entities: true` is passed to
`sm_add_fact`, an LLM extracts named entities and auto-creates
`entity:{name}` graph edges.
- **Generates community summaries** — when `summarize: true` is passed
to `sm_community`, each community gets an LLM-generated summary
paragraph.
- **Groups by community** — `group_by_community: true` in
`sm_search_with_routing` clusters results by knowledge community for
synthesis queries.
- **Routes adaptively** — `POST /search-routed` endpoint adjusts
top_k and exactness profile based on query complexity class
(A/B/C/D/E classification).
- **Serves via HTTP** — `--http-port 1738` starts a warm HTTP server
alongside stdio MCP. Hooks, benchmarks, and scripts query it
directly without spawning new processes (4.9x faster).
- **Compresses result content** — `compress_results` in SearchConfig
shortens search result content to first sentence + key terms,
reducing token cost by 30-50%.
- **Does 2-stage search** — Matryoshka multi-resolution: 64d truncated
embeddings for fast candidate generation, 768d exact rerank.
The combination of hybrid retrieval, provenance-weighted belief
propagation, typed graph edges, and autonomous lifecycle management
in a single local-first Rust substrate is uncommon. This is
knowledge management, not just vector search.
## Installation
### Option 1: Install from crates.io (recommended)
```bash
cargo install semantic-memory-mcp
```
This pulls semantic-memory 0.5.8 and all dependencies from crates.io
automatically. No need to clone any repos.
### Option 2: Build from source
The source checkout is meant for full-stack development with sibling
path dependencies. Clone `semantic-memory-mcp` alongside
`semantic-memory` and the supporting RecursiveIntell crates, then build
from the MCP repo.
```bash
mkdir semantic-memory-stack && cd semantic-memory-stack
git clone https://github.com/RecursiveIntell/semantic-memory.git
git clone https://github.com/RecursiveIntell/semantic-memory-mcp.git
git clone https://github.com/RecursiveIntell/stack-ids.git
git clone https://github.com/RecursiveIntell/bitemporal-runtime.git
git clone https://github.com/RecursiveIntell/boundary-compiler.git
git clone https://github.com/RecursiveIntell/forge-memory-bridge.git
cd semantic-memory-mcp
cargo build --release
# Binary: target/release/semantic-memory-mcp
```
For normal users, `cargo install semantic-memory-mcp` is simpler because
it resolves published registry crates automatically.
### Dependencies
The MCP server depends on one crate: `semantic-memory`. That crate
in turn depends on several stack crates. All are on both crates.io
and GitHub:
| [semantic-memory](https://github.com/RecursiveIntell/semantic-memory) | [0.5.8](https://crates.io/crates/semantic-memory) | [GitHub](https://github.com/RecursiveIntell/semantic-memory) | Core search engine, storage, graph, reasoning |
| [stack-ids](https://github.com/RecursiveIntell/stack-ids) | [0.1.1](https://crates.io/crates/stack-ids) | [GitHub](https://github.com/RecursiveIntell/stack-ids) | Typed IDs, scopes, trace context, BLAKE3 digests |
| [bitemporal-runtime](https://github.com/RecursiveIntell/bitemporal-runtime) | [0.1.0](https://crates.io/crates/bitemporal-runtime) | [GitHub](https://github.com/RecursiveIntell/bitemporal-runtime) | Bitemporal truth (valid_time / recorded_time) |
| [boundary-compiler](https://github.com/RecursiveIntell/boundary-compiler) | [0.1.0](https://crates.io/crates/boundary-compiler) | [GitHub](https://github.com/RecursiveIntell/boundary-compiler) | RFC 8785 JSON Canonicalization (JCS) |
| [forge-memory-bridge](https://github.com/RecursiveIntell/forge-memory-bridge) | [0.1.1](https://crates.io/crates/forge-memory-bridge) | [GitHub](https://github.com/RecursiveIntell/forge-memory-bridge) | Projection import transforms |
All of these are published on crates.io. If you install via
`cargo install semantic-memory-mcp`, cargo resolves registry versions
automatically — you do not need to clone anything. A source checkout
uses sibling `path` dependencies when they are present, which is the
recommended layout for full-stack development.
### Building the full stack from source
The `semantic-memory-mcp/Cargo.toml` and `semantic-memory/Cargo.toml`
use sibling `path` dependencies for active development. Keep the stack
repos cloned side-by-side so those paths resolve. If you only want to
run the published server, prefer `cargo install semantic-memory-mcp`.
## Prerequisites
**Default (Candle embedder — no Ollama needed):**
No prerequisites. The model (nomic-embed-text-v1.5) downloads
automatically from HuggingFace on first use and is cached in
`~/.cache/huggingface/hub`. Subsequent runs load from cache with no
network access.
**Ollama alternative:**
If you prefer using Ollama, install it and pull an embedding model:
```bash
ollama pull nomic-embed-text
```
Then pass `--embedder ollama` when starting the server.
## Configuration
### Hermes Agent
Add to `~/.hermes/config.yaml`:
```yaml
mcp_servers:
semantic_memory:
command: "semantic-memory-mcp"
args: ["--memory-dir", "/home/user/.local/share/semantic-memory"]
```
### Claude Desktop
Add to `claude_desktop_config.json` (usually at
`~/Library/Application Support/Claude/claude_desktop_config.json`
on macOS or `%APPDATA%\Claude\claude_desktop_config.json` on Windows):
```json
{
"mcpServers": {
"semantic_memory": {
"command": "semantic-memory-mcp",
"args": ["--memory-dir", "/home/user/.local/share/semantic-memory"]
}
}
}
```
### Cursor / Windsurf
Add to your MCP settings (Settings → MCP):
```json
{
"mcpServers": {
"semantic_memory": {
"command": "semantic-memory-mcp",
"args": ["--memory-dir", "/home/user/.local/share/semantic-memory"]
}
}
}
```
### Remote Ollama
If you prefer Ollama on a different machine:
```json
{
"mcpServers": {
"semantic_memory": {
"command": "semantic-memory-mcp",
"args": [
"--memory-dir", "/home/user/.local/share/semantic-memory",
"--embedder", "ollama",
"--embedding-url", "http://192.168.1.50:11434",
"--embedding-model", "nomic-embed-text",
"--embedding-dims", "768"
]
}
}
}
```
## CLI options
```
semantic-memory-mcp --memory-dir <DIR> [OPTIONS]
Options:
--memory-dir <DIR> Path to the memory store directory (required, created if absent)
--embedder <BACKEND> Embedding backend: candle (default), ollama, or mock
--embedding-url <URL> Ollama server URL (only used with --embedder ollama, default: http://localhost:11434)
--embedding-model <NAME> Embedding model name (default: nomic-embed-text)
--embedding-dims <N> Embedding dimensions (default: 768)
```
`--memory-dir` is a directory path, not a SQLite file path. The
SQLite database is created as `memory.db` inside this directory,
alongside the usearch sidecar files (`.hnsw.data`, `.hnsw.graph`,
`.hnsw.manifest.json`).
### Embedder backends
| `candle` (default) | In-process pure-Rust ML (CPU-only). Downloads nomic-embed-text-v1.5 from HuggingFace on first use, cached after. | Nothing — just `cargo install` |
| `ollama` | External Ollama server. Use if you already run Ollama or want GPU acceleration. | Ollama installed + model pulled |
| `mock` | Deterministic hash-based embeddings for testing. | Nothing |
## How search works
[](docs/search-pipeline.svg)
When the agent calls `sm_search`, the query flows through:
1. **Embedding** — the query text is embedded by the configured backend
(Candle in-process by default, or Ollama if specified), producing a
768-dimensional vector.
2. **Parallel retrieval** — two searches run simultaneously:
- **BM25 (FTS5)** — SQLite's full-text search ranks results by
keyword relevance using BM25 scoring.
- **Vector (usearch)** — the HNSW index finds the nearest neighbors
by cosine similarity to the query embedding.
3. **Reciprocal Rank Fusion** — the two ranked lists are merged using
RRF: `score = 1/(k + bm25_rank) + 1/(k + vector_rank)`. This
doesn't require score calibration — it works off ranks alone,
which is why it's robust across different embedding models and
corpus sizes.
4. **Optional advanced stages** — when `sm_search_with_routing` is
used, the query is profiled and additional stages may activate:
- **Routing** — decides whether to run the decoder, discord, or
graph expansion based on query characteristics.
- **Decoder** — detects contradictions in the results and computes
corrections via belief propagation.
- **Factor graph** — runs belief propagation over stored graph
edges to refine confidence scores using the knowledge graph's
structure.
5. **Results + receipt** — returns ranked results with scores, source
types, and (optionally) a content-addressed receipt for audit.
## Tools
The server exposes 33 MCP tools in the default `lean` profile, 39 in
`standard`, and 48 in `full`. Use `tools/list` as the source of
truth for the available tool surface on your build.
### Core tools (always available)
#### sm_search
Hybrid BM25 + vector + RRF semantic search over the knowledge base.
By default, results targeted by `supersedes` graph edges are filtered
when non-superseded alternatives exist. Queries that explicitly ask for
stale, old, historical, or superseded facts keep those results available.
```json
{
"query": "rust async runtime tokio",
"top_k": 5,
"namespaces": ["general", "coding"]
}
```
Returns ranked results with content, scores, and stable result IDs
(`result_id` field) for downstream tool chaining (e.g., passing to
`sm_graph_path` or `sm_set_provenance`).
#### Search scoring
`sm_search` returns the score fields needed to debug ranking: BM25,
vector, recency, RRF, weights, and contribution percentages where the
underlying store provides them. Superseded-result filtering is applied
unless the query explicitly asks for stale, old, historical, or
superseded facts.
#### sm_add_fact
Add a fact to the knowledge base. The fact is embedded by the configured
backend (Candle by default) and indexed for both BM25 and vector search.
```json
{
"content": "Rust 1.75 stabilized async fn in traits",
"namespace": "rust-facts",
"source": "https://blog.rust-lang.org/2023/12/21/async-fn-rpit-in-traits.html"
}
```
#### sm_supersede_fact
Create a replacement fact and link it to an older stale fact with a
durable entity edge using `relation: "supersedes"`. Use this for verified
corrections so old facts remain auditable but no longer stand alone as
unmarked stale context.
```json
{
"old_fact_id": "fact:a1b2c3d4-...",
"content": "The current verified fact as of 2026-06-21 is ...",
"namespace": "codex",
"source": "repo:/path/or/url",
"reason": "verified against current repository state"
}
```
#### sm_ingest_document
Ingest a longer document with automatic text chunking. Each chunk
is embedded and indexed independently. Returns the document ID and
chunk count.
```json
{
"title": "Tokio Tutorial",
"content": "Tokio is an asynchronous runtime for the Rust programming language...",
"namespace": "docs"
}
```
#### sm_stats
Get knowledge base statistics: fact count, chunk count, document
count, session count, message count, graph edge count, database size,
embedding model and dimensions.
#### sm_graph_path
Find the shortest path between two items in the knowledge graph.
Traverses semantic, temporal, causal, entity, and stored graph
edges. Returns the path as a list of node IDs with per-hop edge
evidence (edge type, weight, metadata).
```json
{
"from_id": "fact:a1b2c3d4-...",
"to_id": "fact:e5f6g7h8-...",
"max_depth": 5
}
```
#### sm_set_provenance
Set evidence confidence for an item using the ConfidenceSemiring:
confidence in [0.0, 1.0] with a support count of independent
observations. Returns a provenance receipt.
```json
{
"item_id": "fact:a1b2c3d4-...",
"confidence": 0.92,
"support_count": 3
}
```
#### sm_add_graph_edge
Add a durable, typed graph edge between two nodes. Nodes use
prefixed IDs (`fact:<uuid>`, `namespace:<name>`, `document:<id>`).
Edge types: `semantic` (cosine_similarity), `temporal` (delta_secs),
`causal` (confidence + evidence_ids), `entity` (relation name).
Insertion is idempotent — same edge returns existing ID.
```json
{
"source": "fact:a1b2c3d4-...",
"target": "fact:e5f6g7h8-...",
"edge_type": "causal",
"confidence": 0.85,
"evidence_ids": ["fact:ev1-...", "fact:ev2-..."],
"weight": 1.0
}
```
```json
{
"source": "fact:a1b2c3d4-...",
"target": "namespace:rust-facts",
"edge_type": "entity",
"relation": "belongs_to",
"weight": 1.0
}
```
#### sm_list_graph_edges
List graph edges for a specific node (as source or target), or all
stored graph edges if no node_id is provided. Returns non-invalidated
edges only.
```json
{ "node_id": "fact:a1b2c3d4-..." }
```
#### sm_invalidate_graph_edge
Invalidate a stored graph edge by ID. Append-only — the edge row is
never deleted, only marked invalidated with a reason.
```json
{
"edge_id": "edge:abc123-...",
"reason": "superseded by newer evidence"
}
```
### Advanced tools (full feature)
#### sm_route_query
Profile a query and get an adaptive routing decision. Determines
which retrieval stages (BM25, vector, rerank, graph, decoder,
discord) should be activated for this query. Useful for
understanding why certain stages fire or don't.
```json
{ "query": "what changed between v0.4 and v0.5" }
```
#### sm_search_with_routing
Adaptive search: profiles the query, routes to appropriate stages,
and applies factor graph belief propagation if the decoder stage is
activated. Returns results with routing decision, decoder status,
factor graph analysis, and matryoshka multi-resolution routing
payload.
```json
{
"query": "what changed between v0.4 and v0.5",
"top_k": 10,
"contradictions": [["fact:old-claim-...", "fact:new-claim-..."]]
}
```
#### sm_decoder_analyze
Detect contradictions and inconsistencies in search results. Runs
syndrome detection, computes corrections, and applies belief
propagation to refine confidence scores. Operates on caller-supplied
results — does not require graph edges from the store.
```json
{
"results": [
["fact:item-a-...", 0.9],
["fact:item-b-...", 0.7]
],
"contradictions": [["fact:item-a-...", "fact:item-b-..."]]
}
```
#### sm_discord_search
Second-order retrieval: find items related to your search results
through the knowledge graph, but NOT themselves direct hits. Loads
graph edges from the store automatically — caller supplies only the
direct result IDs.
```json
{
"direct_result_ids": [
"fact:a1b2c3d4-...",
"fact:e5f6g7h8-..."
]
}
```
Returns items connected to your direct hits via graph edges, scored by
relationship strength. Useful for discovering adjacent knowledge you
didn't think to search for.
#### sm_run_lifecycle
Autonomous memory health check. Runs in one call:
- Syndrome detection on the supplied items
- Correction computation
- Subtraction candidate identification (items safe to forget/compress)
- Compression recompression trigger check
- Topological analysis (Betti numbers + voids)
- Community detection with contradiction scanning
- Subgraph pruning assessment
- Compression governor quantization assessment
```json
{
"item_ids": [
"fact:a1b2c3d4-...",
"fact:e5f6g7h8-...",
"fact:i9j0k1l2-..."
]
}
```
#### sm_factor_graph
Run factor graph belief propagation on heterogeneous graph edges
stored in the knowledge base. Models all 4 edge types (semantic,
temporal, causal, entity) as factors in a single probabilistic
reasoning framework. Loads edges from the store automatically — caller
supplies only node initial beliefs and optional config overrides.
```json
{
"nodes": [
{ "item_id": "fact:a1b2-...", "initial_belief": 0.8 },
{ "item_id": "fact:e5f6-...", "initial_belief": 0.6 },
{ "item_id": "fact:i9j0-...", "initial_belief": 0.3 }
],
"semantic_weight": 0.35,
"causal_weight": 0.30,
"max_iterations": 100
}
```
Returns unified confidence scores after message propagation
converges, with per-edge-type factor counts and convergence metadata.
#### sm_topology
Find topological voids in the knowledge graph. Computes Betti numbers
(connected components and independent cycles) and detects structural
gaps. Loads edges from the store automatically.
Returns Betti numbers, void descriptions with nearby items and
suggested connections, and a gap report summary.
#### sm_community
Detect communities in the knowledge graph using a Leiden-inspired
algorithm. Loads edges from the store automatically. Returns community
assignments with member lists, optional within-community contradiction
scans, and community-aware compression recommendations.
```json
{
"resolution": 1.0,
"seed": 42,
"contradictions": [["fact:a1b2-...", "fact:e5f6-..."]]
}
```
## Tool chaining
The tools are designed to chain. The `result_id` field returned by
`sm_search` is a stable prefixed node ID (`fact:<uuid>`,
`chunk:<uuid>`, etc.) that can be passed directly to downstream tools:
```
sm_search("tokio async runtime")
→ results[0].result_id = "fact:abc123-..."
sm_graph_path("fact:abc123-...", "fact:def456-...")
→ path through the knowledge graph
sm_set_provenance("fact:abc123-...", confidence=0.9, support_count=2)
→ confidence recorded
sm_add_graph_edge("fact:abc123-...", "namespace:rust", "entity", relation="belongs_to")
→ edge added
sm_discord_search(["fact:abc123-...", "fact:def456-..."])
→ second-order neighbors discovered
```
## Feature flags
| `full` | yes | All features — the full 48-tool surface + Candle embedder + late-interaction + TurboQuant codec. This is the default build. |
| `search` | no | Core search only (BM25 + vector + RRF, add facts, stats, graph path, graph edges, provenance) + Candle embedder. Minimal build with no external codec deps. |
| `candle-embedder` | yes (via full/search) | In-process pure-Rust Candle embedder (CPU-only, no Ollama required). |
Build with `--no-default-features --features search` for the minimal
profile. The `full` feature enables all semantic-memory sub-features
(provenance, temporal, decoder, discord, routing, subtraction,
compression governor, integration, topology, community) plus the
Candle embedder.
The `full` feature does NOT pull in the `turbo-quant-codec` or
`poly-kv-pool` features — those are experimental codec integrations
that remain opt-in in the underlying library and are not needed for
the MCP server's functionality.
## Architecture
[](docs/architecture.svg)
```
semantic-memory-mcp (MCP stdio server, rmcp SDK)
└── semantic-memory (Rust library, 0.5.8)
├── Candle embedder (pure-Rust, CPU-only, default — no Ollama required)
├── SQLite (authoritative storage, FTS5, WAL)
├── usearch 2.25 (vector sidecar, default backend)
├── Provenance (Boolean, Tropical, Probability, Confidence semirings)
├── Temporal weight (age + supersession + support + contradiction)
├── Decoder (syndromes + corrections + belief propagation)
├── Subtraction (lawful forgetting + invariant verification)
├── Compression governor (importance-driven quantization level decisions)
├── Routing (query profiling + adaptive stage selection)
├── Discord (second-order graph-neighbor retrieval)
├── Stored graph edges (durable, typed, append-only with invalidation)
├── Factor graph (unified probabilistic reasoning over all edge types)
├── Topology (Betti numbers, void detection)
├── Community detection (Leiden-inspired, contradiction-aware)
└── Integration (cross-feature wiring: routing → decoder → subtraction → compression → discord → provenance)
```
The server uses rmcp's `#[tool_router]` macro to auto-generate JSON
Schema for each tool's parameters. All tool handlers return
`Result<String, ErrorData>` — errors are protocol-level MCP errors,
not string-encoded error messages.
Graph edges and factor inputs are loaded from the store automatically
— the caller never needs to supply edge arrays. This is a design
decision: the store is the single source of truth for graph state.
## Underlying crate
This server wraps the [semantic-memory](https://crates.io/crates/semantic-memory)
crate (0.5.8), which provides the storage engine, search pipeline,
and all feature modules. See the
[semantic-memory crate documentation](https://github.com/RecursiveIntell/Libraries/tree/main/semantic-memory)
for the full library API, including direct usage without an MCP
server.
### Dependency crates
The underlying library depends on several crates from the same
stack, all published on crates.io:
- [stack-ids](https://crates.io/crates/stack-ids) — typed IDs, scopes,
trace context, BLAKE3 content digests.
- [bitemporal-runtime](https://crates.io/crates/bitemporal-runtime) —
bitemporal truth primitives (valid_time / recorded_time tracking,
append-supersede, as-of queries).
- [boundary-compiler](https://crates.io/crates/boundary-compiler) —
RFC 8785 JSON Canonicalization (JCS) with strict duplicate-key
rejection.
- [forge-memory-bridge](https://crates.io/crates/forge-memory-bridge)
— transformation layer from Forge export envelopes to memory import
batches.
## Scope and limits
- The default embedder (Candle) downloads nomic-embed-text-v1.5 from
HuggingFace on first use (~550MB, cached after). No Ollama required.
If you prefer Ollama, pass `--embedder ollama`.
- The Candle embedder is CPU-only and pure-Rust (no C++ runtime, no
heap corruption risk). It processes embeddings one at a time to keep
memory bounded. First-run latency is higher (model download + load);
subsequent runs load from cache in ~1-2 seconds.
- The `search`-only build (no `full` feature) does not expose advanced
tools (routing, decoder, discord, lifecycle, factor graph, topology,
community). The `full` feature is the default.
- Graph-based tools (discord, factor graph, topology, community) load
edges from the store. With zero stored edges, these tools return
empty results — they are not broken, they have no graph to work
with. Add edges with `sm_add_graph_edge` to give them something to
traverse.
- The `decoder_executed` field in `sm_search_with_routing` is
currently always `false` — the routing decision is computed and
reported, but the decoder does not yet re-rank search results in the
live search path. The factor graph analysis runs independently when
the decoder stage is planned. This is a known gap, not a bug.
- All state is local. There is no sync, no federation, no network
calls beyond the one-time HuggingFace model download (cached after).
This is a feature, not a limitation — local-first is the design goal.
## License
Apache-2.0
## Links
- [semantic-memory crate](https://crates.io/crates/semantic-memory)
- [GitHub repository](https://github.com/RecursiveIntell/Libraries/tree/main/semantic-memory-mcp)
- [MCP Protocol](https://modelcontextprotocol.io/)
- [rmcp Rust SDK](https://github.com/modelcontextprotocol/rust-sdk)
- [Ollama](https://ollama.ai/)