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Use Genomic Intelligence inside Claude, ChatGPT, or your AI agent

Ask natural-language questions over DNA sequences. Genomic Intelligence can fetch genomic regions, run the promoter, splice, enhancer, chromatin, expression, and annotation models, and return structured biological predictions — all from an AI assistant. You type "fetch TP53 and scan it for promoters"; the model calls the right tools and shows you ranked hits with coordinates and scores.

Under the hood this rides the Model Context Protocol (MCP): a thin translator that turns each task into a tool your AI host can call, forwarding to the same REST API documented in the REST API guide.

Choose how you want to try it

Both options below connect your AI chat to the same Genomic Intelligence MCP server — the same six models, the same tools. They differ only in where that server runs and whether you bring a key:

  • Option A — a hosted server we run for you. You paste one URL into an AI chat that supports custom connectors. Nothing to install, no key, no account with us. This is the fastest way to see a real biology result.
  • Option B — a local server you run on your own machine. You install a small program and give it your own API key. This unlocks your full rate limits, keeps private sequences on your machine, and records your job history.
PathBest forSetup
A. Hosted MCP server (no setup)Seeing a biology result in your existing Claude or ChatGPT, right nowPaste one URL. No key, no install.
B. Local MCP server (your own key)Scientists and developers doing real work — higher caps, private sequences, all toolsuvx gi-mcp + a gi_... key
C. REST APIProduction integrations and pipelinesAuth + HTTP

Start with Option A to see what GI can do, then move to Option B for sustained work. You don't need to know any MCP terminology — pick a path and paste a prompt.

Option A — Hosted MCP server (no setup)

Best for: first-time users who want to understand what GI can do before installing anything or getting a key. This path is for web AI chats that support custom MCP connectors (ChatGPT, Claude, and others below).

We run a Genomic Intelligence MCP server at https://mcp.genomicintelligence.ai/mcp. Any AI chat that can add a custom (remote) MCP server by URL can reach it. Because our hosted server carries a shared demo key, it answers anonymously — you add the URL, leave authentication blank, and start asking questions. No install, no account, no API key.

What the demo mode is for

The shared demo key has shared rate limits and is for evaluation, not production. Job history is disabled in demo mode, and you're sharing quota with other evaluators. For real work — your own caps, private sequences, the full tool surface — use Option B.

Which apps can connect

To use Option A, your AI chat needs to support custom (remote) MCP connectors — a setting that lets you add an MCP server by URL. Whether it's available, and on which plan, varies by platform. The apps below are confirmed to support it. In every case the server URL is https://mcp.genomicintelligence.ai/mcp and authentication is left empty.

AppPlan requiredWhere to add a connector
ChatGPT (web and desktop)Plus, Pro, Team, Enterprise, or Edu (not the free tier)Settings → Apps & Connectors → Developer mode
Claude (claude.ai web and Claude Desktop)Pro, Max, Team, or EnterpriseSettings → Connectors → Add custom connector
Mistral Le ChatAll plans (including free)Settings → Connectors → Add custom connector
PerplexityPro, Max, or EnterpriseSettings → Connectors → Add custom connector

Two detailed walkthroughs follow — ChatGPT and Claude, the two most common paths — then a general note for everything else.

Set it up in ChatGPT

Custom connectors in ChatGPT live behind Developer mode, available on paid plans (Plus, Pro, Team, Enterprise, and Edu — not the free tier). There's no dedicated Genomic Intelligence GPT yet; instead you add our hosted server as a custom connector.

  1. Open Settings → Apps & Connectors → Advanced settings and turn on Developer mode.
  2. Back in Settings → Apps & Connectors, choose Create (also shown as "Add custom connector").
  3. Fill in:
    • Name: Genomic Intelligence
    • MCP server URL: https://mcp.genomicintelligence.ai/mcp
    • Authentication: No authentication
  4. Acknowledge ChatGPT's custom-connector risk notice and save.
  5. Start a new chat. Open the tools/apps menu (Tools → Use apps) and toggle Genomic Intelligence on.
  6. Paste a prompt from Your first prompts.
note

On individual Plus and Pro plans, ChatGPT may limit custom connectors to read-only tools; Team, Enterprise, and Edu workspaces get the full surface. GI's tools return data rather than change anything, so the core fetch-and-predict flow works.

Set it up in Claude (web or Desktop)

Custom connectors are available on Claude's paid plans (Pro, Max, Team, and Enterprise). The same steps work on claude.ai in a browser and in the Claude Desktop app.

  1. Open Settings → Connectors (on the web, the direct link is claude.ai/settings/connectors).
  2. Click Add custom connector (the + button).
  3. Fill in:
    • Name: Genomic Intelligence
    • Remote MCP server URL: https://mcp.genomicintelligence.ai/mcp
    • Leave the Advanced settings (OAuth) fields empty.
  4. Click Add.
  5. Start a new chat. Click the + button near the message box, choose Connectors, and toggle Genomic Intelligence on.
  6. Paste a prompt from Your first prompts.

Claude reaches your connector from Anthropic's cloud, so a public URL like ours works without any extra network setup.

Other apps and your own agent

Any client that speaks Streamable-HTTP MCP can point at the same URL — developer tools like Cursor, Windsurf, Zed, and VS Code, and any custom agent you build. Add https://mcp.genomicintelligence.ai/mcp as a remote (HTTP) MCP server and leave authentication empty to use the demo key. To use your own key instead, send it as an Authorization: Bearer gi_... header (or X-GI-Key: gi_...) — see Option B for how to get a key.

Your first prompts

Paste these into a freshly-connected client, in order — simplest first (no inference), then a real fetch-and-predict workflow.

1 — Warm up (lists models, no inference):

What Genomic Intelligence models are available for expression prediction?

2 — A real workflow (fetch, then predict):

Fetch a 100 kb window around human TP53 from Ensembl and scan it for promoter regions. Show me the strongest hits.

What "working" looks like: the assistant calls the genomic-intelligence tools, fetches the sequence from Ensembl, runs promoter prediction, and returns ranked promoter-like regions with coordinates and scores — not a text guess. If you see tool calls and coordinate/score output, the connection is live.

No external fetch needed? The server ships one curated demo sequence per task, so you can run a full prediction without touching Ensembl:

Load the bundled human demo sequence and run promoter prediction on it. Explain the strongest hits.

One prompt per task

Once connected, these exercise every task plus the composite workflow:

#TaskPrompt
0warm-up"What Genomic Intelligence models are available for the expression task?"
1promoter"Fetch a 100 kb window around human TP53 from Ensembl and scan it for promoter regions. Show me the strongest hits."
2expression"Predict HBB expression in K562 cells and explain the biological interpretation."
3splice"Fetch the human HBB gene sequence and predict its splice sites."
4enhancer"Fetch the Drosophila ftz gene and predict enhancer activity."
5annotation"Find the genes in chr8:127,680,000-127,800,000."
6composite"Find the genes in chr8:127,680,000-127,800,000 and predict each one's expression in K562."

The enhancer model is trained on Drosophila, so example 4 uses a fly gene (ftz); the other tasks are human.

Option B — Local MCP server (your own key)

Here you run the Genomic Intelligence MCP server on your own machine and give it your own API key, instead of using our shared hosted one. It's the same six models and the same tools — only the location and the key change.

Who this is for: scientists, bioinformaticians, and developers doing real work rather than a first look. If you've tried the hosted server and want to go further, this is the next step.

Why run it locally. The hosted demo is deliberately limited; a local server with your own key removes those limits:

  • Your own rate caps. You no longer share the demo key's small quota with every other evaluator — you get the throughput your key is provisioned for (see Limits).
  • Private sequences stay local. The server reads local FASTA files straight from your disk and forwards only what a prediction needs to the API under your key — nothing routes through our shared demo principal.
  • Your job history. Async jobs are scoped to your key, so you can list and poll them (job history is turned off in demo mode).
  • The full tool surface, including tools that are disabled for shared demo users.

The local server is a thin protocol translator: it owns no inference and stores no key on any server, forwarding each request to the API under your key.

Which apps can run a local server

Option A was for web chats. Option B is for hosts that can launch a local program as an MCP server — desktop apps, coding CLIs, and IDEs:

AppHow you add a local server
Claude DesktopEdit claude_desktop_config.json (or Settings → Developer → Edit Config)
Claude Code (CLI)claude mcp add … -- uvx gi-mcp
OpenAI Codex CLIcodex mcp add …, or a [mcp_servers.*] block in ~/.codex/config.toml
CursorSettings → MCP, or edit ~/.cursor/mcp.json
Windsurf / Zed / other MCP hostsPoint the host at the local command uvx gi-mcp

Detailed walkthroughs for Claude Desktop, Claude Code, and Codex follow; the pattern for any other host is the same command with GI_API_KEY set.

Step 1 — Get a key

Email [email protected] for a gi_... key; your caps come with it (see Limits). The same key works for the REST API and the MCP server.

Step 2 — Install uv

Every setup below runs the server with uv; its uvx command fetches and runs gi-mcp with no manual install. Install uv once:

curl -LsSf https://astral.sh/uv/install.sh | sh

Step 3 — Add GI to your client

In every client the shape is identical: run the command uvx gi-mcp with GI_API_KEY set in its environment. Pick your client below.

Claude Desktop

  1. Open your config file. The quickest route is Settings → Developer → Edit Config, which opens claude_desktop_config.json (macOS: ~/Library/Application Support/Claude/, Windows: %APPDATA%\Claude\).

  2. Add the genomic-intelligence server (merge into mcpServers if the file already has other servers):

    {
    "mcpServers": {
    "genomic-intelligence": {
    "command": "uvx",
    "args": ["gi-mcp"],
    "env": { "GI_API_KEY": "gi_..." }
    }
    }
    }
  3. Fully quit and reopen Claude Desktop — closing the window is not enough; the app must restart to pick up the config.

  4. Open a new chat and click the tools (plug/hammer) icon — you should see genomic-intelligence listed. Ask "List the available promoter models" to confirm it responds.

Claude Code (CLI)

  1. Add the server in one command:

    claude mcp add genomic-intelligence --env GI_API_KEY=gi_... -- uvx gi-mcp

    Everything after -- is the command Claude Code launches. By default this is local scope (this project only). Add --scope user to make GI available in every project on your machine:

    claude mcp add --scope user genomic-intelligence --env GI_API_KEY=gi_... -- uvx gi-mcp
  2. Verify from the shell with claude mcp list, or inside a session run the /mcp slash command to see genomic-intelligence and its status.

  3. Ask a prompt from Your first prompts.

OpenAI Codex CLI

Either add it with the CLI:

codex mcp add genomic-intelligence --env GI_API_KEY=gi_... -- uvx gi-mcp

…or add a block to ~/.codex/config.toml by hand (note the key goes in a nested .env table):

[mcp_servers.genomic-intelligence]
command = "uvx"
args = ["gi-mcp"]

[mcp_servers.genomic-intelligence.env]
GI_API_KEY = "gi_..."

Confirm it registered with codex mcp list, then start Codex and ask a prompt from Your first prompts.

Any other MCP host

Cursor, Windsurf, Zed, or your own agent: add the same JSON block to the host's MCP config, or point any MCP-capable client at the stdio command uvx gi-mcp with GI_API_KEY set in its environment.

Pin a release for reproducibility with uvx gi-mcp@<version>; pick up new releases with uvx --refresh gi-mcp.

Step 4 — Verify

Whichever client you used, it should now list the genomic-intelligence server. Ask "List the available promoter models" — it runs the catalog tool and returns the registry — then work through the first prompts. Calls now count against your key's caps, not the shared demo's.

How it works

The handle pattern. Genomic sequences are large (expression wants 9,198 bp; promoter accepts up to 500,000 bp). Round-tripping those through the LLM twice would blow the context window, so acquisition and prediction are split:

  1. An acquisition tool fetches/loads a sequence, stores it server-side, and returns a short handle (seq_ab12cd34) plus light metadata, never the bases.
  2. A prediction tool takes that handle; the server resolves the bases internally.

Small sequences can still be passed inline. Either way, the bases stay out of the model's context.

What's exposed. The tools group into acquisition (fetch from Ensembl, by coordinates, by local file, inline, or bundled demos), prediction (the six tasks, sync or async-with-progress), a composite annotation-to-expression workflow, plus read-only resources (model catalog, task docs, your recent jobs) and slash-command prompts (gi-promoter-screen, gi-expression-screen). For the exact, current surface, ask your client "what tools do you have?" once connected — MCP self-describes, so the list matches your running version.

The underlying API

The MCP server is a convenience layer over the REST contract. To integrate directly, or to understand error codes, limits, and response shapes:

  • REST API guide: auth, then sync, then async, with curl and Python.
  • Errors: every error.code.
  • Limits: per-task caps, rate quotas, async TTL.

Contact

[email protected]: key issuance, raised caps, bug reports, anything else.