Developer Productivity MCP
Provides MCP tools for GitHub code search, Jira sprint status, pull request risk analysis, and project metrics, enabling agentic workflows for developer productivity.
README
Developer Productivity MCP
A FastMCP server that exposes GitHub, Jira and engineering-metrics capabilities as MCP tools, plus an OpenAI Agents SDK client that drives them as multi-step workflows.
┌──────────────────┐
│ User │
└────────┬─────────┘
│
▼
┌──────────────────┐
│ OpenAI Agent │
│ Agents SDK │
└────────┬─────────┘
│
MCP Protocol
│
▼
┌─────────────────────────┐
│ FastMCP Server │
│ │
│ search_github_code │
│ get_jira_sprint_status │
│ analyze_pull_request │
│ query_project_metrics │
└──────┬──────┬──────┬────┘
│ │ │
GitHub API Jira PostgreSQL
The model never talks to GitHub, Jira or PostgreSQL directly. The MCP server owns the credentials, pagination, error handling and response shaping, and returns facts; the agent contributes reasoning and explanation. Prose is therefore not a tool — an explanation tool would push judgement into the server, where it cannot see the other tools' results.
The four tools
| Tool | Backend | What it does beyond wrapping the API |
|---|---|---|
search_github_code |
GitHub REST | Normalizes search hits to {repository, path, name, url} |
get_jira_sprint_status |
Jira Agile | Completion %, story-point progress, blocked / high-priority / overdue / unassigned / at-risk tickets, sprint risk level |
analyze_pull_request |
GitHub REST | Static analysis of the diff: security, database, API-contract, dependency and test detection; deleted-code analysis; scored risk level; breaking-change and review recommendations |
query_project_metrics |
PostgreSQL | Six metrics behind an allow-list — the model picks a metric name, never SQL |
Layout
.
├── main.py # agent-side CLI entry point
├── .env.example
├── agent/
│ ├── developer_agent.py # agent definitions + instructions
│ └── workflows.py # multi-step agentic workflows
├── src/
│ ├── config.py # MCP server environment
│ ├── pr_analysis.py # PR static-analysis helpers
│ └── server.py # FastMCP server + the four tools
└── sql/
└── schema.sql # tables backing query_project_metrics
Setup
uv sync
cp .env.example .env # then fill in your credentials
psql "$DATABASE_URL" -f sql/schema.sql
Run
Terminal 1 — the MCP server (Streamable HTTP on http://localhost:8000/mcp):
uv run python -m src.server
Terminal 2 — an agent workflow:
# GitHub code search
uv run python main.py search --repository my-org/payments-api --query retry
# pull-request risk analysis
uv run python main.py pr --repository my-org/payments-api --number 142
# the full multi-tool sprint investigation
uv run python main.py sprint --project PAY --sprint 42
MCP_TRANSPORT=stdio runs the server over stdio instead, for clients that
launch it as a subprocess.
The agentic workflow
main.py sprint asks one natural-language question, and the agent decides which
tools to call and in what order:
1. get_jira_sprint_status()
↓
2. Agent selects the tickets worth investigating
↓
3. search_github_code()
↓
4. analyze_pull_request()
↓
5. query_project_metrics()
↓
6. Agent generates explanation
Step 2 needs no tool call. get_jira_sprint_status already has every issue in
hand, so blocked/high-priority/overdue classification happens there, and the
agent reasons over the returned blocked_tickets and high_priority_tickets to
choose what to look at next. Splitting that into a second round trip would cost
a request and add nothing.
Design notes
analyze_pull_requestscores risk from filenames, diff patches and pattern matches, not from an LLM reading the code. It is cheap, deterministic and reproducible; an LLM review stage over the highest-risk patches is the planned extension.- Jira story-point custom field IDs and board IDs differ per installation, so
JIRA_BOARD_IDandJIRA_STORY_POINTS_FIELDare configuration rather than constants. query_project_metricsreads the tables insql/schema.sql, which expect an ingestion job loading GitHub/Jira/CD history.
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