Copilot Memory MCP
# Copilot Memory MCP
Give GitHub Copilot CLI (or any MCP-compatible agent) **persistent memory across sessions**.
Without this, Copilot CLI starts every session as a blank slate. With this MCP server running, it can save and recall knowledge — learning from experience just like you do.
## What It Does
- **Saves memories** — fixes, preferences, lessons, code snippets, project context
- **Recalls memories** — full-text search across everything it's ever learned
- **Categorizes knowledge** — preference, lesson, fix, context, convention, environment, snippet
- **Tracks usage** — knows which memories are accessed most often
- **Persists in SQLite** — lightweight, no external services, survives restarts
## Tools Provided
### Memory Tools
| Tool | Description |
|------|-------------|
| `save_memory` | Store a new piece of knowledge with category and tags |
| `recall_memories` | Search or browse past memories (full-text search) |
| `update_memory` | Update an existing memory when things change |
| `forget_memory` | Delete a memory that's no longer relevant |
| `memory_stats` | See what's in the knowledge base |
### Monitoring Tools
These solve the "Copilot stops and asks should I continue?" problem. Each tool runs a long-running polling loop internally, so Copilot uses **one tool call** instead of burning through its iteration limit.
| Tool | Description |
|------|-------------|
| `monitor_command` | Run a command repeatedly, collect output, stop on pattern/change/exit code |
| `watch_file` | Watch a file for changes or a regex pattern match |
| `poll_url` | Poll a URL until expected HTTP status or body pattern |
| `run_long_command` | Run a single long command, stream output, stop on pattern |
## Quick Start
### 1. Clone and install
```bash
git clone <this-repo> ~/projects/copilot-memory-mcp
cd ~/projects/copilot-memory-mcp
uv sync
```
Or if you don't have `uv`:
```bash
cd ~/projects/copilot-memory-mcp
python3 -m venv .venv
source .venv/bin/activate
pip install "mcp[cli]>=1.20"
```
### 2. Test it works
```bash
# Quick test — should print tool list
uv run mcp dev server.py
```
This opens the MCP Inspector in your browser where you can test the tools interactively.
### 3. Add to GitHub Copilot CLI
Edit (or create) your Copilot MCP config file:
**Linux/macOS:**
```bash
mkdir -p ~/.config/github-copilot
nano ~/.config/github-copilot/mcp.json
```
**Windows:**
```
%LOCALAPPDATA%\github-copilot\mcp.json
```
Add this content:
```json
{
"mcpServers": {
"copilot-memory": {
"command": "uv",
"args": ["run", "--directory", "/FULL/PATH/TO/copilot-memory-mcp", "server.py"],
"env": {}
}
}
}
```
**Important:** Replace `/FULL/PATH/TO/copilot-memory-mcp` with the actual absolute path.
If you don't have `uv`, use the venv Python directly:
```json
{
"mcpServers": {
"copilot-memory": {
"command": "/FULL/PATH/TO/copilot-memory-mcp/.venv/bin/python",
"args": ["/FULL/PATH/TO/copilot-memory-mcp/server.py"],
"env": {}
}
}
}
```
### 4. Add the instructions file (recommended)
Copy the included template to your global Copilot instructions so it knows to USE the memory:
```bash
mkdir -p ~/.github
cp copilot-instructions-template.md ~/.github/copilot-instructions.md
```
Or for a specific repo:
```bash
cp copilot-instructions-template.md YOUR_REPO/.github/copilot-instructions.md
```
### 5. Use it
Start Copilot CLI normally. It will now have access to memory tools. The instructions file tells it to check memory at session start and save important learnings.
```
$ copilot
> Hey, can you check what you remember about this project?
# Copilot calls recall_memories() automatically
# and loads any past context
```
## How the Learning Loop Works
```
Session 1:
You: "Always use pytest, never unittest"
Copilot saves: {category: "preference", content: "User prefers pytest over unittest"}
Session 2:
Copilot starts → calls recall_memories() → loads preference
Copilot: "I'll set up the tests with pytest as you prefer."
You debug a tricky async issue together
Copilot saves: {category: "fix", content: "asyncio.gather swallows exceptions — use return_exceptions=True"}
Session 3:
Copilot starts → recalls all memories → knows your preferences AND past fixes
You hit a similar async bug
Copilot: "This looks like the asyncio.gather issue we fixed before — need return_exceptions=True"
```
**Each session makes the next one smarter.**
## Monitoring — No More "Should I Continue?"
The monitoring tools solve Copilot CLI's biggest limitation: it stops and asks
for confirmation during long-running tasks. These tools do the looping internally.
### Example: Watch a Kubernetes deployment
```
You: "Deploy the new version and monitor until all pods are running"
Copilot runs:
monitor_command(
command="kubectl get pods -l app=myapp",
interval_seconds=10,
timeout_seconds=300,
stop_pattern="1/1.*Running"
)
→ Tool polls every 10s for up to 5 minutes
→ Returns all snapshots when pods are Running
→ ONE tool call, no iteration limit hit
```
### Example: Watch a build log
```
You: "Start the build and tell me when it's done"
Copilot runs:
run_long_command(
command="npm run build 2>&1",
timeout_seconds=300,
stop_pattern="Build complete|ERROR"
)
→ Captures the entire build output
→ Returns immediately when it sees success or failure
```
### Example: Wait for a service to come up
```
You: "Deploy and let me know when the health check passes"
Copilot runs:
poll_url(
url="http://localhost:8080/health",
expected_status=200,
expected_body_pattern="healthy",
interval_seconds=5,
timeout_seconds=120
)
→ Polls every 5s until 200 + "healthy" in body
→ Reports back with timing and response details
```
### Max monitoring duration
Default max is 1 hour (3600 seconds). Override with env var:
```json
{
"mcpServers": {
"copilot-memory": {
"command": "uv",
"args": ["run", "--directory", "/path/to/copilot-memory-mcp", "server.py"],
"env": {
"COPILOT_MEMORY_MAX_MONITOR": "7200"
}
}
}
}
```
## Configuration
### Custom database location
By default, memories are stored in `~/.copilot-memory/memory.db`. Override with:
```json
{
"mcpServers": {
"copilot-memory": {
"command": "uv",
"args": ["run", "--directory", "/path/to/copilot-memory-mcp", "server.py"],
"env": {
"COPILOT_MEMORY_DB": "/custom/path/to/memory.db"
}
}
}
}
```
### SSE transport (for HTTP-based clients)
```bash
uv run server.py --transport sse
```
This starts an HTTP server (default port 8000) for clients that prefer SSE over stdio.
## Works With Other Agents Too
This isn't Copilot-specific. Any MCP client can use it:
- **Claude Code** — add to `.mcp.json` in your project
- **Cline (VS Code)** — add to MCP server settings
- **Hermes Agent** — add to `config.yaml` under `mcp.servers`
- **Cursor** — add to MCP configuration
- **Any MCP-compatible tool**
### Claude Code example (`.mcp.json` in project root):
```json
{
"mcpServers": {
"memory": {
"command": "uv",
"args": ["run", "--directory", "/path/to/copilot-memory-mcp", "server.py"]
}
}
}
```
## File Structure
```
copilot-memory-mcp/
├── server.py # The MCP server (all-in-one)
├── copilot-instructions-template.md # Template to tell Copilot to use memory
├── pyproject.toml # Python project config
├── uv.lock # Dependency lock file
└── README.md # You're reading it
```
## License
MIT — do whatever you want with it.
TDQS
Scored across 9 tools
The memory tools (recall, save, update, forget, stats) are clearly distinct, and the monitoring tools (monitor_command, run_long_command, watch_file, poll_url) each target a different mechanism. The only potential confusion is between monitor_command and run_long_command, but their descriptions explicitly differentiate repeated polling from single long-running execution.
Most tools follow a verb_noun convention (save_memory, update_memory, monitor_command, watch_file, poll_url, run_long_command). Minor deviations include recall_memories (plural noun) and memory_stats (noun_noun), which break the strict pattern but remain predictable and readable.
At 9 tools, the count is reasonable and not overwhelming. However, the set mixes two unrelated domains (memory persistence and process/URL monitoring), making the scope feel broader than the server name suggests. Still, no tool is redundant and the number is appropriate for its combined purpose.
The memory lifecycle is complete with recall, save, update, delete, and stats. The monitoring tools cover common asynchronous scenarios: repeated command polling, single long-running command, file watching, and HTTP polling. Minor gaps exist (e.g., no direct tag-based listing, no explicit 'wait' tool), but agents can work around these.