Enterprise Crypto MCP Gateway
Enables MCP-compatible AI clients to access live crypto market data and AI-driven quantitative analysis, with structured outputs and full observability.
README
Enterprise Crypto MCP Gateway
About
Enterprise Crypto MCP Gateway is a dual-server MCP system that gives any MCP-compatible AI client (Claude Desktop, Cursor, etc.) direct, structured access to live crypto market data and quantitative signals. A master gateway composes two specialized sub-servers — one handling raw data retrieval and local filtering, the other running a full AI-backed quant pipeline with structured Pydantic output and a rich rendered UI — all wired with OpenTelemetry spans for end-to-end observability.
System Architecture
MCP Client (Claude Desktop / Cursor / etc.)
│
▼
┌───────────────────────────────────┐
│ EnterpriseMasterGateway │ ← server.py
│ FastMCP Router │
│ │
│ namespace: "market" │ namespace: "quant"
│ ┌───────────────────────┐ │ ┌───────────────────────┐
│ │ CryptoData Server │ │ │ CryptoQuant Server │
│ │ data_server.py │ │ │ quant_server.py │
│ │ │ │ │ │
│ │ Resource: │ │ │ Tool (app=True): │
│ │ data://trending │ │ │ quant_pipeline │
│ │ │ │ │ → Gemini 2.5 Flash │
│ │ Tools: │ │ │ → MarketSignal │
│ │ get_crypto_price │ │ │ (Pydantic) │
│ │ query_and_filter │ │ │ → PrefabApp UI │
│ └───────────────────────┘ │ └───────────────────────┘
└───────────────────────────────────┘
│
▼
otel_launcher.py
OpenTelemetry Auto-Instrumentation
(OTLP export if configured, silent otherwise)
All tools and resources under the market namespace are accessible as market_* and those under quant as quant_* from the client's perspective.
Project Structure
enterprise-crypto-mcp/
│
├── server.py # Master gateway — mounts both sub-servers with namespacing
├── data_server.py # CryptoData sub-server — prices, trending, filtering
├── quant_server.py # CryptoQuant sub-server — AI quant pipeline + UI rendering
├── otel_launcher.py # OpenTelemetry configuration and auto-instrumentation launcher
│
├── .env # Environment variables (gitignored)
├── .gitignore
└── requirements.txt
---
## Sub-Servers — Detailed Breakdown
### `CryptoData` — `data_server.py`
Handles all raw market data retrieval from the CoinGecko public API. Exposes one MCP Resource and two Tools.
---
#### Resource — `data://trending`
market_get_trending_markets()
Returns a formatted snapshot of the top 5 trending cryptocurrencies on CoinGecko, including coin ID, ticker symbol, and market cap rank.
| Property | Value |
|---------------|--------------------|
| Source API | CoinGecko `/search/trending` |
| Cache TTL | **300 seconds** (5 minutes) |
| Cache strategy| In-memory dict with expiry timestamp |
| OTel span | `get_trending_markets_resource` with `cache.status` attribute |
---
#### Tool — `get_crypto_price`
market_get_crypto_price(coin_id: str) → float
Fetches the current USD price of a single token by CoinGecko coin ID (e.g. `bitcoin`, `ethereum`). Returns a clean `float` value optimized for downstream arithmetic operations without any formatting overhead.
| Property | Value |
|---------------|--------------------|
| Source API | CoinGecko `/simple/price` |
| Cache TTL | **60 seconds** (1 minute) |
| OTel span | `get_crypto_price_execution` with `target.coin` and `cache.status` attributes |
---
#### Tool — `query_and_filter_market_data`
market_query_and_filter_market_data(coin_ids: str, threshold_price: float) → str
Accepts a comma-separated list of coin IDs and a USD threshold. Evaluates all price lookups **locally in code** and passes only coins that cross the specified threshold back to the LLM — discarding the rest entirely.
This is a deliberate **context window optimization pattern**: for large watchlists, sending every token's price to the LLM is wasteful. By filtering on the server side, only the signal-bearing subset reaches the model.
| Property | Value |
|------------------|-------|
| Input | `"bitcoin,ethereum,solana,cardano"`, threshold `50.0` |
| Output | Only coins with price ≥ threshold, formatted as `COIN: $price USD` |
| OTel span | `code_api_data_filtering` with `filter.input_count` and `filter.output_count` attributes |
---
### `CryptoQuant` — `quant_server.py`
Runs a full AI-backed quantitative analysis pipeline on a set of target tokens. Returns a structured `PrefabApp` UI object rendered directly in the MCP client.
---
#### Tool (UI) — `advanced_crypto_quant_pipeline`
quant_advanced_crypto_quant_pipeline(coin_ids: str, apply_mitigation: bool = False) → PrefabApp
**Pipeline stages:**
| Stage | Action |
|-------|--------|
| 1 | Fetches live prices for all target coins via `get_crypto_price` (reuses CryptoData tool directly, preserving its internal telemetry spans) |
| 2 | Assembles a price matrix string and applies optional risk mitigation flag |
| 3 | Calls **Gemini 2.5 Flash** with `responseMimeType: application/json` to generate a structured market signal |
| 4 | Validates the raw JSON response against the `MarketSignal` Pydantic model |
| 5 | Builds and returns a `PrefabApp` UI layout using `prefab_ui` components |
Progress is reported at each stage via `ctx.report_progress(current, total, message)`, giving MCP clients real-time execution feedback.
**`MarketSignal` Schema (Pydantic):**
```python
class MarketSignal(BaseModel):
sentiment: str # "Bullish" | "Bearish" | "Neutral"
entry_target: str # Optimized entry zone description
stop_loss: str # Defensive stop condition description
risk_score: int # 1–10 integer risk rating
synthesis: str # Exactly one sentence of analytical summary
Rendered UI Components:
Heading— Dashboard titleBadge— Active coin targetsRow/Column— Layout gridText— Sentiment, risk profile, entry/stop targetsSeparator— Visual section dividers
| Property | Value |
|---|---|
| LLM | Gemini 2.5 Flash (generativelanguage.googleapis.com) |
| Output format | application/json via generationConfig |
| OTel span | orchestration_pipeline_root (root orchestration span) |
Getting Started
Prerequisites
- Python 3.10+
- A Google AI Studio API key (Gemini 2.5 Flash)
- An MCP-compatible client (Claude Desktop, Cursor, or any MCP host)
- (Optional) An OpenTelemetry OTLP-compatible collector (Jaeger, Grafana Tempo, etc.)
1. Clone and Install
git clone https://github.com/your-username/enterprise-crypto-mcp.git
cd enterprise-crypto-mcp
python -m venv venv
source venv/bin/activate # Windows: venv\Scripts\activate
pip install fastmcp httpx python-dotenv opentelemetry-distro prefab-ui pydantic
2. Configure Environment
Create a .env file at the project root:
# Required
GEMINI_API_KEY=your_google_ai_studio_key_here
# Optional — OpenTelemetry export (omit to disable silently)
OTEL_EXPORTER_OTLP_ENDPOINT=http://localhost:4317
OTEL_SERVICE_NAME=EnterpriseMasterGateway
If
OTEL_EXPORTER_OTLP_ENDPOINTis not set, the launcher defaults all exporters tonone, keeping MCP's stdio transport completely clean.
3. Run the Server
Standard mode (direct stdio):
python server.py
With OpenTelemetry auto-instrumentation:
python otel_launcher.py
Use otel_launcher.py when you have an OTLP collector running and want full distributed tracing. Both entry points expose the same MCP interface.
4. Connect to an MCP Client
Claude Desktop — add to claude_desktop_config.json:
{
"mcpServers": {
"enterprise-crypto": {
"command": "python",
"args": ["/absolute/path/to/otel_launcher.py"],
"env": {
"GEMINI_API_KEY": "your_key_here"
}
}
}
}
Available MCP Capabilities (Client View)
Once connected, the following capabilities are exposed to the MCP client:
| Type | Name | Description |
|---|---|---|
| Resource | data://trending |
Live top-5 trending crypto markets |
| Tool | market_get_crypto_price |
Fetch USD price for a single token |
| Tool | market_query_and_filter_market_data |
Batch filter tokens by price threshold |
| Tool | quant_advanced_crypto_quant_pipeline |
Full AI quant analysis with rendered UI |
Observability — OpenTelemetry Integration
Every significant operation is instrumented with named spans:
| Span Name | Location | Key Attributes |
|---|---|---|
get_trending_markets_resource |
data_server.py |
cache.status |
get_crypto_price_execution |
data_server.py |
target.coin, cache.status |
code_api_data_filtering |
data_server.py |
filter.input_count, filter.output_count |
orchestration_pipeline_root |
quant_server.py |
(root span) |
otel_launcher.py applies opentelemetry-instrumentation auto-instrumentation on top, covering httpx client calls and any other auto-instrumented libraries without manual decoration.
When no OTLP endpoint is configured, all exporters are silently set to none — there is no console noise that would pollute the MCP stdio transport.
Caching Strategy
The CryptoData server uses a simple but effective two-tier in-memory cache:
| Data Type | TTL | Rationale |
|---|---|---|
| Trending markets | 5 minutes | Changes infrequently; reduces CoinGecko rate limit pressure |
| Token prices | 1 minute | Balance between freshness and API call volume |
Each cache entry stores both the value and an expiry timestamp. Cache hits and misses are both recorded as OTel span attributes for monitoring.
Note: The cache is process-scoped. Restarting the server clears it. For persistent caching across restarts, replace the
_CACHEdict with Redis.
Limitations & Known Constraints
- CoinGecko free tier — The public API has rate limits (~30 calls/min). Heavy concurrent usage may result in 429 errors. Consider using the paid API for production.
- In-process cache — Cache does not survive restarts and is not shared across multiple server instances.
- Gemini dependency — The quant pipeline is tightly coupled to Gemini's REST API. Gemini outages will cause
advanced_crypto_quant_pipelineto fail. - No input validation on coin IDs — Invalid CoinGecko coin IDs silently return
0.0fromget_crypto_price.
Potential Extensions
- WebSocket price streaming — Replace polling with CoinGecko or Binance WebSocket feeds for sub-second price updates
- Redis cache layer — Swap the in-memory
_CACHEdict for Redis to support multi-instance deployments and cache persistence - Model-agnostic quant backend — Abstract the Gemini call behind an LLM provider interface to support OpenAI, Groq, or Anthropic interchangeably
- Historical data resource — Add OHLCV (Open/High/Low/Close/Volume) endpoints for backtesting context
- Portfolio tool — Extend the quant server with a multi-asset portfolio risk calculator using the existing price tools
License
This project is released for academic and educational purposes.
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