mcpField
B
BioHarbor

BioHarbor

Local
github.com/danielLuo2Science & Education0Updated 3w ago

About BioHarbor

BioHarbor is an MCP server for AI agents that run bioinformatics analyses, aimed at researchers using local or lab GPUs. It validates inputs before scheduling, records run details, and returns job IDs for long-running work.

Key features

  1. 01Validate sequences and calculate basic statistics
  2. 02Translate sequences and find ORFs
  3. 03Search homologs with MMseqs2
  4. 04Predict protein structures with ESMFold
  5. 05Schedule jobs based on GPU availability
  6. 06Record provenance and output files

Use cases

  1. 01Analyze sequences and locate ORFs
  2. 02Search local databases for homologs
  3. 03Predict protein structures on a GPU

MCP support

The MCP server exposes sequence analysis, homology search, structure prediction, and job-management tools to clients. It supports stdio or Streamable HTTP, and long-running tasks return a `job_id`.

Configuration

Local server config is the same for every client. Copy it into your client’s MCP config file.

mcp.json · Universal config
{
"mcpServers": {
"danielluo2-bioharbor": {
"command": "uvx",
"args": [
"bioharbor"
]
}
}
}
Run commanduvx bioharbor

Local servers need a runtime on your machine (e.g. Node.js 18+). Config file locations differ by client; see your client’s docs.

Packages
pypibioharbor0.1.6

Tools

12

Saved tool list · updated 2w ago

ParameterTypeRequiredDescription
sequencestringYesA raw sequence or FASTA text (one or more records).

Details

From the project README

BioHarbor

Run real bioinformatics from your AI agent. Reliable, reproducible, on your own GPUs.

CI PyPI License BioHarbor MCP server – quality and maintenance score on Glama

🧪 Alpha (v0.1). Sequence tools, homology search (MMseqs2) and structure prediction (ESMFold, validated on RTX 5090) work. Feedback welcome — see the roadmap.

BioHarbor is an MCP server that lets AI agents such as Claude, Cursor and Codex execute bioinformatics tools — not just look things up. Agents ask for an analysis; BioHarbor validates the input, schedules it on a GPU with room, records exactly how it ran, and hands back a compact, agent-readable summary.

BioHarbor demo

Why another bio MCP server?

Most bio MCP servers wrap databases (UniProt, PDB, PubMed…). Use them — BioHarbor complements them by running the compute:

Database MCP serversBioHarbor
Runs real analyses (search, fold, cluster)❌✅
Validates inputs before burning GPU time❌✅
GPU-aware queue, polite on shared GPUs❌✅
Long jobs return a job_id instead of timing out❌✅
Compact summaries + files on disk (saves tokens)❌✅
Provenance for every run, export to a pipeline❌✅ (export: planned)

Quick start

pip install bioharbor
bioharbor doctor             # checks Python, GPUs, workspace, tools
bioharbor setup-db swissprot # reference database for search_homologs (needs MMseqs2)
bioharbor install            # shows how to connect Claude, Cursor or Codex

For structure prediction on a GPU: pip install "bioharbor[esmfold]" — see docs/gpu-setup.md (RTX 50xx needs a CUDA 12.8+ PyTorch).

Connect your agent

BioHarbor is a standard MCP server, so it works with any MCP client. One command sets up the popular ones (it writes an absolute path, so GUI apps find it even outside your venv):

ClientSet up
Claude Codeclaude mcp add bioharbor -- bioharbor serve
Claude Desktopbioharbor install claude-desktop --write, then restart the app
Cursorbioharbor install cursor --write, or Add to Cursor
Codex (CLI, IDE extension, app)codex mcp add bioharbor -- bioharbor serve, or bioharbor install codex --write
Biomni (Stanford's biomedical agent)agent.add_mcp(...); see docs/use-with-biomni.md
Anything elserun bioharbor serve (stdio) or bioharbor serve --http (Streamable HTTP)

Long-running tools return a job_id within ~20 s instead of blocking, so they stay within every client's tool-call timeout.

Codex chaining BioHarbor's find_orfs and seq_stats tools on a DNA sequence

Step-by-step setup (local or on a GPU server, with troubleshooting): docs/connect-clients.md.

Then ask your agent something like:

Find the longest ORF in this contig, translate it, search Swiss-Prot for homologs and predict its structure. Which regions are low confidence?

Use it without an agent

Every tool is also a CLI command, with identical behaviour:

bioharbor tools list
bioharbor run find_orfs [email protected] min_aa=100 --brief   # human-readable
bioharbor run seq_stats sequence=MKTAYIAKQRQISFVKSHFSRQ
bioharbor jobs
Shared GPU server

GPUs on a lab server, agent on your laptop? Run BioHarbor on the server and reach it through an SSH tunnel; no extra port is opened on the server:

# on the GPU server
bioharbor serve --http --host 127.0.0.1 --port 8765
# on your laptop, then point Cursor / Codex / Claude Code at http://127.0.0.1:8765/mcp
ssh -N -L 8765:127.0.0.1:8765 you@gpu-server

⚠️ HTTP mode has no authentication yet (on the roadmap), so keep it on 127.0.0.1 and use the tunnel. Details: docs/connect-clients.md.

Tools

ToolWhat it doesRuns
seq_statsValidate sequences; type, length, GC%, molecular weightinline
translate_sequenceDNA/RNA → protein, one or all six framesinline
find_orfsLongest ORFs on both strands, with coordinatesinline
search_homologsMMseqs2 search (protein, or translated DNA) vs local DBsjob
predict_structureESMFold structure, pLDDT bands, low-confidence regions, pTMjob (GPU)
scrna_pipelinescanpy QC → clustering → markersplanned

Runtime tools: get_job, list_jobs, cancel_job, describe_tool, list_databases, gpu_status, read_file.

How it works

Agent ──MCP──▶ validate input ─▶ inline? ──yes──▶ run ─┐
                                   │ no                  ├─▶ provenance + summary ─▶ Agent
                                   ▼                     │
                     job queue (SQLite) ─▶ GPU placement ┘
                     (waits politely for a GPU with free memory)
  • Every call is a job recorded in SQLite with params, versions, timings and GPU used, plus a provenance.json next to its outputs.
  • GPU placement reads live free memory and utilisation (NVML or nvidia-smi), keeps headroom, and reserves memory for jobs it has started so two jobs never grab the same space. Other users' processes are respected.
  • Fail fast: input, binaries and databases are checked before a job is queued, so a bad request never waits behind a busy GPU.
  • Results are agent-shaped: summary, message, files, suggestions. Errors carry a hint and a retryable flag.

Details: docs/design.md.

Writing a tool

from pydantic import BaseModel, Field
from bioharbor.registry import Resources, RunContext, tool
from bioharbor.results import ToolResult


class FoldParams(BaseModel):
    sequence: str = Field(..., description="Protein sequence")


@tool(
    version="1",
    slow=True,
    resources=Resources(gpu=True, gpu_mem_gb=lambda p: 4 + len(p.sequence) / 100),
)
def predict_structure(params: FoldParams, ctx: RunContext) -> ToolResult:
    """Predict a protein structure with ESMFold."""
    ...
    return ToolResult(summary={"mean_plddt": 87.1}, files=["model.pdb"])

Plugins can ship tools in their own package via the bioharbor.tools entry-point group. See CONTRIBUTING.md.

License

Apache-2.0

Comments

Markdown supported

New to MCP?

From what the protocol is to installing your first server, these answers cover most first questions.

An open protocol that defines how AI applications connect to external tools and data in a uniform way. Clients talk to the model; MCP servers provide tools, resources and prompt templates. They exchange standard messages, so one server can be reused by many clients.