Wellness Planner
# Wellness Planner
A local MCP agent that queries personal health data and provides energy-aware task scheduling.
## Data Note
**This project uses simulated data.** Health data is seeded from `data/seed_db.py` into a SQLite database. There is **no Apple Health integration** — real health data is not imported or synced.
## Running the Code
### Prerequisites
- Python 3.14+
- [uv](https://docs.astral.sh/uv/) for dependency management
### Standalone Agent (no MCP server required)
Run the Plan-and-Execute agent loop locally:
```bash
uv run python mcp_server/agent.py [YYYY-MM-DD]
```
- Uses yesterday's date if no date is given.
- Reads from `data/health.db` and `data/todo.json`.
- Prints a daily brief: sleep, activity, heart rate, readiness score, and proposed schedule.
### MCP Server (for Cursor)
The MCP server is spawned by Cursor when needed — you do not start it manually in a separate terminal.
1. Configure Cursor to use the local MCP server (e.g. `.cursor/mcp.json`):
```json
{
"mcpServers": {
"wellness-planner": {
"command": "uv",
"args": ["run", "--directory", "/path/to/wellness_planner", "python", "mcp_server/server.py"]
}
}
}
```
2. Replace `/path/to/wellness_planner` with your actual project path.
3. Cursor will spawn the server and communicate over stdio.
### Other Commands
| Command | Purpose |
|---------|---------|
| `uv run python main.py` | Placeholder entry point |
| `uv run python data/seed_db.py` | Seed `data/health.db` with simulated data |
## MCP Tools
When the server is connected, these tools are available:
- `get_health_summary` — Aggregated sleep, activity, and heart rate for a date
- `calculate_readiness_score` — 1–10 readiness score for task timing
- `query_raw_logs` — Run read-only SQL against the health DB
- `get_tasks` — Load tasks from `todo.json`
- `propose_schedule` — Energy-aware schedule based on readiness and tasks
- `get_data_dictionary` — Schema introspection: column names, types, and sample values
- `run_analysis` — Execute a pandas/sqlite analysis script locally; returns stdout
- `generate_chart` — Produce a self-contained Observable Plot HTML chart
- `get_insights` — Retrieve previously saved findings from the Fact Store
- `save_insight` — Persist a discovered insight so it isn't re-computed next session
## Testing
There are two layers to test: the skills directly, and the MCP tools through Cursor chat.
### 1. Test skills directly (fast, no Cursor needed)
**Phase 1 — Sandbox execution:**
```bash
uv run python -c "
from skills.sandbox import run_python_analysis
r = run_python_analysis('''
df = pd.read_sql('SELECT date, total_hours FROM sleep_logs ORDER BY date DESC LIMIT 7', __import__('sqlite3').connect(DB_PATH))
print(df.to_string(index=False))
''')
print(r['output'])
"
```
**Phase 2 — Schema discovery:**
```bash
uv run python -c "
from skills.schema import get_data_dictionary
import json
print(json.dumps(get_data_dictionary(), indent=2))
"
```
**Phase 3 — Chart generation:**
```bash
uv run python -c "
import sqlite3
from skills.visualization import generate_chart
rows = sqlite3.connect('data/health.db').execute('SELECT date, total_hours FROM sleep_logs ORDER BY date').fetchall()
r = generate_chart([{'date': r[0], 'total_hours': r[1]} for r in rows], 'Sleep Trend', 'date', 'total_hours')
print(r)
"
```
Then open the `url` value in a browser to see the chart.
**Phase 4 — Fact Store:**
```bash
uv run python -c "
from skills.memory import save_insight, get_insights, clear_insights
save_insight('test_key', 'test value', 'manual test')
print(get_insights())
clear_insights()
"
```
### 2. Test end-to-end through Cursor (the real agentic loop)
Ask the agent questions in chat and watch the MCP tool calls fire in sequence:
- **Schema discovery:** *"What tables and columns are in the health database?"*
- **Analysis:** *"What's the correlation between my step count and sleep quality over the last 30 days?"*
- Should trigger: `get_insights` → `get_data_dictionary` → `run_analysis` → `save_insight`
- **Chart:** *"Show me my resting heart rate trend as a chart."*
- Should trigger: `run_analysis` → `generate_chart` → returns a file path
- **Memory:** *"What do you already know about my health patterns?"*
- Should trigger: `get_insights` and return stored findings without re-running anything
### 3. Standalone agent CLI
```bash
uv run python mcp_server/agent.py 2026-02-18
```
Tests the non-MCP path (summarizer + readiness + scheduling) and confirms nothing broke during the Phase 1–4 additions.
TDQS
Scored across 5 tools
Each tool has a clearly distinct purpose with no overlap: calculate_readiness_score computes a score, get_health_summary aggregates data, get_tasks retrieves tasks, propose_schedule creates a schedule, and query_raw_logs runs SQL queries. The descriptions make it easy to differentiate them, preventing misselection.
The naming is mostly consistent with a verb_noun pattern (e.g., calculate_readiness_score, get_health_summary, get_tasks, propose_schedule), but query_raw_logs deviates slightly by using 'query' as a verb instead of a more standard action like 'get' or 'fetch'. However, the pattern is still readable and coherent overall.
With 5 tools, the server is well-scoped for a wellness planner domain. Each tool serves a specific function in the workflow—from data retrieval and calculation to scheduling and querying—without being too sparse or bloated, making it efficient for agents to use.
The tool set covers core wellness planning operations: calculating readiness, summarizing health data, managing tasks, proposing schedules, and querying raw logs. A minor gap is the lack of tools for updating or modifying tasks or health data (e.g., add_task, update_health_log), but agents can work around this using the existing tools for read and propose operations.