Smara MCP Server
A vendor-neutral, user-sovereign memory layer for AI agents and tools, providing persistent, cross-tool memory that users fully own and control.
README
Smara: Sovereign Universal Memory MCP
Smara (स्मर) — from the Sanskrit root smṛ, meaning "to remember." In Vedic tradition, smaraṇa is the act of remembrance that preserves knowledge across time. Smara is memory that endures.
A Vendor-Neutral, User-Sovereign Memory Layer for AI Agents and Tools
Your mind. Your tools. Your memory.
Smara is an MCP (Model Context Protocol) server that gives any AI client — Claude, Cursor, custom agents — access to a persistent, cross-tool memory system that you fully own and control.
Why This Exists
AI memory is fragmented and vendor-locked. Every AI tool maintains its own siloed memory. You cannot carry context across tools, export your accumulated knowledge, or control what each tool can access. Smara solves this by providing a single memory layer that:
- You own — data lives on your machine, not a vendor's cloud
- Works everywhere — any MCP-compatible client connects instantly
- Runs locally — zero external API dependencies by default
- Stays private — encryption at rest, scoped access, full audit trail
- Exports freely — JSON, JSONL, Markdown — no lock-in
Quick Start
Option 1: npm (recommended)
# Install globally
npm install -g smara-mcp
# Start the persistent daemon (enables hooks + HTTP API)
smara-daemon start
# Verify
smara-daemon status
# → Daemon is running (PID ...) and healthy on port 3100.
Option 2: From Source
# Clone and install
git clone https://github.com/nnaveenraju/smara-mcp.git
cd smara-mcp
npm install
# Build and run
npm run build
node dist/index.js
Option 3: Docker
# Production
docker compose -f docker/docker-compose.yml up
# Development (hot-reload)
docker compose -f docker/docker-compose.yml --profile dev up
Connect to Your AI Client
Claude Desktop
// macOS: ~/Library/Application Support/Claude/claude_desktop_config.json
// Windows: %APPDATA%\Claude\claude_desktop_config.json
{
"mcpServers": {
"smara": {
"command": "node",
"args": ["/absolute/path/to/smara-mcp/dist/index.js"]
}
}
}
Once configured, ask Claude: "Remember that this project uses Aurora PostgreSQL 15" — Claude will call smara.store automatically. Later: "What database does this project use?" — Claude will call smara.recall.
Claude Code
Create a .mcp.json at your project root (project-scoped) or ~/.claude/mcp_servers.json (global). Same schema as Claude Desktop:
{
"mcpServers": {
"smara": {
"command": "node",
"args": ["/absolute/path/to/smara-mcp/dist/index.js"]
}
}
}
Gemini CLI
// ~/.gemini/settings.json
{
"mcpServers": {
"smara": {
"command": "node",
"args": ["/absolute/path/to/smara-mcp/dist/index.js"]
}
}
}
Once configured, ask Gemini: "Remember that the go-live date is Q3 2026" — Gemini will call smara.store. Memories stored in any tool are recalled by any other tool.
Note on native binaries: On first install, native addons (
better-sqlite3,sqlite-vec,sharp) are compiled for your platform. If you hit errors at startup about missing bindings, runnpm rebuild better-sqlite3or removenode_modulesandpackage-lock.jsonthen re-runnpm install.
Daemon mode (new in v0.2.0)
Smara now runs as a persistent HTTP daemon on
127.0.0.1:3100. This enables:
- Fast hooks — shell adapters call the daemon via HTTP in ~20ms (no cold starts)
- Session context — add
source hooks/session-start.shto your shell rc to auto-load project memories oncd- Direct API —
curlthe daemon from any script or workflowMCP clients (Claude, Cursor, Gemini) still connect via stdio as before. The daemon shares the same SQLite database.
See
hooks/README.mdfor hook setup andIMPROVEMENT-PLAN.mdfor the roadmap.
MCP Tools
| Tool | Description |
|---|---|
smara.store |
Store a new memory with category, tags, and confidence |
smara.recall |
Hybrid semantic + keyword search across all memory |
smara.update |
Update an existing memory (auto-bumps version) |
smara.forget |
Soft-delete memories with full audit trail |
smara.context |
Assemble relevant context for a task (the killer feature) |
smara.export |
Export memories as JSON, JSONL, or Markdown |
Example: A Day with Smara
This walkthrough follows a realistic scenario — a morning session in Claude Code, an afternoon in Cursor, and a quick Gemini CLI check the next day. You store memories explicitly by asking your AI client; each tool calls smara.store or smara.recall on your behalf.
Morning — Claude Code, setting up the backend
You: "Remember that this project uses a microservices architecture on AWS EKS,
the API gateway is Kong, and the primary database is Aurora PostgreSQL 15"
Claude calls:
→ smara.store({
content: "Project uses microservices on AWS EKS. API gateway is Kong. Primary database is Aurora PostgreSQL 15.",
category: "domain",
tags: ["architecture", "aws", "eks", "kong", "aurora-postgresql"],
confidence: 0.9,
source: { tool: "claude-code", context: "UserPrompt:explicit" }
})
Later you hit a build error. Claude fixes it; you ask it to capture the fix:
→ smara.store({
content: "Kong Ingress Controller v3.1 requires annotation 'konghq.com/strip-path' instead of deprecated 'strip.path'. Fix: update all Ingress manifests.",
category: "process",
tags: ["error-fix", "kong", "kubernetes", "ingress"],
confidence: 0.85,
source: { tool: "claude-code", context: "UserPrompt:explicit" }
})
Smara links the two entries because they share the kong tag:
{ "sourceId": "019577a2-...", "targetId": "019577b1-...", "relation": "related_to", "strength": 0.75 }
Afternoon — switching to Cursor
You open Cursor and ask: "What do you know about this project?"
Cursor calls:
→ smara.recall({ query: "payments-api project architecture preferences", limit: 10 })
The response surfaces both entries from the morning — the architecture and the Kong fix — ranked by hybrid search (FTS + semantic similarity + recency). Cursor answers with full context without you re-explaining anything.
You add the timeline:
→ smara.store({
content: "Go-live date is Q3 2026. Deployment freeze starts June 15, 2026.",
category: "domain",
tags: ["timeline", "go-live", "deployment-freeze"],
confidence: 0.9,
source: { tool: "cursor", context: "UserPrompt:explicit" }
})
Next morning — quick check in Gemini CLI
You: "What's the deployment situation for this project?"
Gemini calls:
→ smara.recall({ query: "deployment timeline architecture", limit: 10 })
Ranked results — hybrid search (semantic × keyword × recency):
{
"results": [
{ "content": "Go-live Q3 2026. Freeze June 15.", "score": 0.94, "matchType": "hybrid", "source": { "tool": "cursor" } },
{ "content": "Microservices on EKS, Kong gateway, Aurora PG 15.", "score": 0.87, "matchType": "hybrid", "source": { "tool": "claude-code" } },
{ "content": "Kong v3.1: use konghq.com/strip-path annotation.", "score": 0.71, "matchType": "semantic", "source": { "tool": "claude-code" } }
],
"searchStrategy": "hybrid:rrf"
}
The timeline was stored in Cursor, the architecture and fix in Claude Code — Gemini assembled all of it from one recall call.
What makes this different
- Cross-tool continuity — memories stored in Claude are recalled in Cursor and surfaced in Gemini. No copy-paste, no re-explaining.
- Full provenance — every entry records which tool created it, when, and why.
- Memory links — related entries connect to each other; linked context surfaces together.
- Smart decay — episodic memories decay at 0.15/day, domain knowledge at 0.05. Identity preferences never decay.
- Confidence ranking — explicit stores score 0.9; higher confidence surfaces first in search.
- You own everything —
smara.export({ format: "json" })gives you a full dump. Local SQLite, no cloud, no vendor lock-in.
Architecture
See ARCHITECTURE.md for the full architecture documentation including the provider abstraction layer, interface specifications, and implementation guide.
Configuration
Create ~/.smara/config.toml:
[server]
transport = "stdio" # "stdio" for Claude Desktop, "http" for daemon, "sse" for Docker
[database]
provider = "sqlite" # Pluggable: "sqlite", "redis", "postgres"...
path = "~/.smara/memory.db"
[vector]
provider = "sqlite-vec" # Pluggable: "sqlite-vec", "pinecone", "qdrant"...
dimensions = 384
[embeddings]
provider = "local" # Pluggable: "local", "openai", "cohere"...
model = "Xenova/all-MiniLM-L6-v2"
[search]
provider = "hybrid"
fts_weight = 0.4
vector_weight = 0.6
All settings can also be set via environment variables (see docker/.env.example).
License
Dual-licensed under MIT or Apache 2.0, at your option.
Copyright 2026 Naveen Nadimpalli. See NOTICE for attribution details.
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