Install
$ agentstack add mcp-omar-a-hassan-medsci-agent Open-source listing — not yet scanned by AgentStack. Follow the source repository for install instructions.
Security review
⚠ Flagged1 finding(s); flagged for manual review. · v0.1.0 How review works →
- • Prompt-injection patterns
- • Secret / credential exfiltration
- • Dangerous shell & filesystem operations
- • Untrusted network calls
- • Known-malicious package signatures
- high Pipes remote content directly into a shell (remote code execution).
What it can access
- ● Network access Used
- ✓ Filesystem access No
- ✓ Shell / process execution No
- ● Environment & secrets Used
- ✓ Dynamic code execution No
From automated source analysis of v0.1.0. “Used” means the capability is present in the source — more access means more to trust, not that it’s unsafe.
About
The open source biomedical research agent.
[](https://www.kaggle.com/competitions/med-gemma-impact-challenge)
MedSci Agent gives any LLM access to 28 biomedical and execution tools — drug ADMET prediction, protein structure search, single-cell RNA-seq analysis, medical image interpretation, literature search, policy-controlled document acquisition, and isolated sandbox execution — all powered by MedGemma, TxGemma running locally via Ollama, and OpenCode. No data leaves your machine.
Built for the MedGemma Impact Challenge.
Quick Start
Once [setup](#setup) is complete and Ollama is running, open the project in OpenCode and try:
Drug discovery: > Analyze the drug-likeness of ibuprofen (CC(C)Cc1ccc(cc1)C(C)C(=O)O) and predict its ADMET properties.
Single-cell omics: > Read my H5AD file, preprocess it, cluster with Leiden at resolution 0.5, and run differential expression.
Literature search: > Search PubMed for recent papers on CRISPR-Cas9 gene therapy for sickle cell disease.
The Agent automatically selects the right tools, calls MedGemma for interpretation, and returns a synthesized answer.
Architecture
You bring your own LLM. Configure any model in OpenCode (via /model) and it becomes the orchestrator — it reads your query, selects the right tools, calls them through MCP, and synthesizes the results. The MCP servers handle the domain logic underneath.
Cloud LLM (user's choice via OpenCode)
|
| tool calls via MCP
v
+--- MCP Servers (Bun / TypeScript) ---+
| |
| server-drug 5 tools |
| server-protein 5 tools |
| server-literature 4 tools |
| server-acquisition 2 tools |
| server-imaging 1 tool |
| server-omics 5 tools |
| server-paperqa 1 tool |
| server-sandbox 5 tools |
| |
+-------+-------------------+-----------+
| |
v v
Ollama (local) Python Sidecar
- MedGemma 4B - RDKit
- TxGemma 2B - BioPython
- Scanpy
MedGemma interprets tool outputs — it reads raw data from APIs and computational tools, then provides clinically relevant summaries. Every tool that calls MedGemma returns a model_used flag and degrades gracefully if the model is unavailable.
TxGemma predicts ADMET properties (absorption, distribution, metabolism, excretion, toxicity). It runs exact prompt templates from the Therapeutics Data Commons and outputs binary classifications for six safety endpoints.
The Python sidecar is a long-running process that pre-imports scientific libraries and handles requests over stdin/stdout via JSON-RPC. This avoids the 2–5 second startup cost of importing RDKit or Scanpy on every call.
synthesize parameter: Every drug, protein, and omics tool accepts an optional "synthesize": false input field. When false, the tool skips the MedGemma interpretation step and returns raw data immediately. This is useful when you want fast data-only results, or when Ollama is unavailable. Default is true (synthesis enabled).
Tools
Drug Discovery (server-drug)
| Tool | Description | Backend | |------|-------------|---------| | analyze_molecule | Physicochemical properties from SMILES (MW, LogP, TPSA, HBD/HBA, rings, formula) | RDKit + MedGemma | | lipinski_filter | Lipinski Rule of Five drug-likeness check | RDKit | | molecular_similarity | Tanimoto similarity between two molecules using Morgan fingerprints | RDKit | | predict_admet | BBB penetration, intestinal absorption, hERG blocking, CYP3A4 inhibition, Ames mutagenicity, DILI risk | TxGemma + RDKit + MedGemma | | search_chembl | Search ChEMBL for bioactive molecules and targets | ChEMBL API + MedGemma |
Protein Analysis (server-protein)
| Tool | Description | Backend | |------|-------------|---------| | parse_fasta | Parse FASTA files, return sequence metadata | BioPython | | analyze_sequence | Sequence length, composition, molecular weight | BioPython + MedGemma | | search_uniprot | Search UniProt by gene, protein name, or accession | UniProt API + MedGemma | | search_pdb | Search PDB for 3D structures by protein or PDB ID | RCSB PDB API + MedGemma | | predict_structure | Retrieve AlphaFold predicted structure and confidence scores | AlphaFold DB API + MedGemma |
Literature, Acquisition & Synthesis (server-literature, server-acquisition & server-paperqa)
| Tool | Description | Backend | |------|-------------|---------| | search_pubmed | Search PubMed with Boolean and MeSH queries | NCBI E-utilities + MedGemma | | fetch_abstract | Fetch full abstract and metadata by PMID | NCBI E-utilities + MedGemma | | search_openalex | Search OpenAlex for scholarly works, citations, open access status | OpenAlex API + MedGemma | | search_clinical_trials | Search ClinicalTrials.gov by condition, drug, or intervention | ClinicalTrials.gov API + MedGemma | | resolve_identifier_to_sources | Resolve DOI/PMID/PMCID into candidate source URLs with provenance and confidence | NCBI ID Converter + deterministic transforms | | acquire_documents | Policy-controlled document retrieval from DOI/PMID/PMCID/URL with content-level labeling and explicit extraction backend metadata (pmid/pmcid: BioC-first with Scrapling fallback, doi/url: Scrapling-primary) | NCBI BioC + Scrapling sidecar + safety policy engine | | search_and_analyze | Deep semantic synthesis of up to 10 identifiers/documents (internal NCBI acquisition or pre-acquired documents) using contextual LLM re-ranking | PaperQA2 + Tantivy |
Medical Imaging (server-imaging)
| Tool | Description | Backend | |------|-------------|---------| | analyze_medical_image | Analyze X-ray, CT, pathology, or dermatology images (PNG/JPEG, max 50 MB) | MedGemma (multimodal) |
Omics (server-omics)
| Tool | Description | Backend | |------|-------------|---------| | read_h5ad | Load H5AD file, return observation and variable metadata | Scanpy | | preprocess_omics | Filter, normalize, log-transform, find highly variable genes | Scanpy | | cluster_cells | Leiden or Louvain clustering with UMAP coordinates | Scanpy | | differential_expression | Differential expression between groups (Wilcoxon, t-test, logreg) | Scanpy + MedGemma | | gene_set_enrichment | Pathway enrichment against MSigDB, GO, KEGG via Enrichr | Enrichr API + MedGemma |
Sandbox Execution (server-sandbox)
| Tool | Description | Backend | |------|-------------|---------| | sandbox_prepare | Create/reuse a Docker sandbox with default network_policy=deny | Docker Sandbox CLI | | sandbox_run_job | Execute command in sandbox with deterministic timeout + logs | Docker Sandbox CLI | | sandbox_status | Check sandbox state (running/stopped/unknown) with retry/backoff | Docker Sandbox CLI | | sandbox_fetch_artifact | Read artifact/log content with size/path safety constraints | Host file access + safety checks | | sandbox_teardown | Stop or remove sandbox | Docker Sandbox CLI |
Setup
Fresh install — complete sequence
# 1. Install Bun and uv (if not already installed)
curl -fsSL https://bun.sh/install | bash
curl -LsSf https://astral.sh/uv/install.sh | sh
# 2. Clone and install JS/TS dependencies
git clone https://github.com/omar-A-hassan/medsci-agent.git
cd medsci-agent
bun install
# 3. Create Python environments
bun run setup:py:core # RDKit + BioPython + Scanpy → .venv/
bun run setup:py:paperqa # PaperQA + Scrapling + ACE → packages/server-paperqa/.venv-paperqa/
# 4. Pull Ollama models (Ollama must be installed first: https://ollama.com)
ollama pull medgemma:latest
ollama pull mxbai-embed-large
ollama pull hf.co/matrixportalx/txgemma-2b-predict-GGUF:Q4_K_M
# 5. (Optional) Export API keys for cloud features — do this BEFORE starting OpenCode
export OPENROUTER_API_KEY="sk-or-..." # needed for ACE MCP and cloud PaperQA
export ANTHROPIC_API_KEY="sk-ant-..." # only if using Anthropic directly
# 6. Verify setup
bun run typecheck
bun test
# 7. Open in OpenCode
opencode # MCP servers start automatically via opencode.json
The opencode.json is pre-configured for local-only use (Ollama + local Python). No additional configuration is needed for the core tools. See the sections below for cloud model setup and optional features.
Prerequisites
- Bun >= 1.1
- uv (Python package and environment manager)
- Ollama
- OpenCode
- Docker Desktop 4.40+ with the Docker AI Sandbox feature enabled (required for sandbox tools only)
- The
sandbox_*tools usedocker sandboxsubcommands — a first-party feature in Docker Desktop 4.40+. Enable it under Settings → Features in Development → Docker AI Sandbox. - All other tools work without Docker.
> Sandbox not available? If you don't have Docker Desktop 4.40+ you can still use all 23 non-sandbox tools. Leave the medsci-sandbox MCP server enabled — calls to sandbox tools will return clear errors rather than crashing.
1. Clone and install
git clone https://github.com/omar-A-hassan/medsci-agent.git
cd medsci-agent
bun install
2. Python environments
The system uses two strictly decoupled Python virtual environments, both managed with uv.
Core Environment (Required):
bun run setup:py:core
PaperQA + Acquisition Environment (Required for strict full-text retrieval and deep synthesis):
bun run setup:py:paperqa
Or run both in one command:
bun run setup:py:all
> Important: Set MEDSCI_PYTHON to .venv/bin/python3 for core tools. Both medsci-paperqa and medsci-acquisition should run with packages/server-paperqa/.venv-paperqa/bin/python3 to keep Scrapling and PaperQA dependencies in one environment. > > Dependency ownership: > - .venv (uv groups: scientific, test): core science sidecars (RDKit/BioPython/Scanpy and related tool stacks). > - packages/server-paperqa/.venv-paperqa (uv groups: paperqa, ace, test): PaperQA + acquisition parsing + ACE stack.
3. Pull Ollama models
ollama pull medgemma:latest # Biomedical interpretation
ollama pull mxbai-embed-large # Document embeddings for PaperQA
ollama pull hf.co/matrixportalx/txgemma-2b-predict-GGUF:Q4_K_M # ADMET prediction
If medgemma:latest is not available directly, pull the GGUF from HuggingFace and alias it:
ollama pull hf.co/unsloth/medgemma-4b-it-GGUF:Q4_K_M
cp ~/.ollama/models/manifests/hf.co/unsloth/medgemma-4b-it-GGUF/Q4_K_M \
~/.ollama/models/manifests/registry.ollama.ai/library/medgemma/latest
> Note: The cp command creates an alias so the code can reference the model as medgemma:latest regardless of how it was downloaded.
4. Configure OpenCode
The included opencode.json is pre-configured. Set the model field to your preferred cloud LLM:
{
"model": "openai/gpt-4o"
}
Update the MEDSCI_PYTHON path in each server's environment block if your virtual environment is in a different location.
4.1 Optional: Enable ACE MCP (self-improvement layer)
MedSci now supports optional ACE MCP integration for adaptive strategy learning.
Install ACE MCP in the PaperQA/acquisition virtual environment (recommended):
bun run setup:py:paperqa
Configured MCP server name: ace-mcp (in opencode.json)
ACE model default: openrouter/arcee-ai/trinity-large-preview:free (set via ACE_MCP_DEFAULT_MODEL in opencode.json). This is a free OpenRouter model that requires OPENROUTER_API_KEY. To change:
export ACE_MCP_DEFAULT_MODEL="your/provider-model"
Credential model for ACE:
- ACE runs as a separate MCP process and needs provider credentials available in that process environment.
- If you use OpenAI for ACE, export
OPENAI_API_KEYbefore starting OpenCode. - If you use Anthropic/Gemini/Mistral/etc for ACE, set the corresponding provider key env var.
- ACE can use the same cloud provider/model family you use in OpenCode, but it does not automatically inherit the currently selected chat model unless you configure
ACE_MCP_DEFAULT_MODELaccordingly. - ACE in this setup is intentionally decoupled from local MedSci models (
medgemma,txgemma, PaperQA embedding model) and should not use them unless you explicitly reconfigure it.
Default behavior in MedSci:
- in-run reflection is read-only (
ace.ask/ace.skillbook.get) - automatic post-run learning is triggered by plugin guardrails (gated by evidence quality)
- manual fallback remains available via
/ace-learn
Skillbooks are persisted under .opencode/ace/skillbooks/.
Why ACE is installed in packages/server-paperqa/.venv-paperqa (not the core .venv):
- ACE learning is orchestration/synthesis logic, closest to the PaperQA + acquisition stack.
- Keeping ACE out of the core scientific sidecar avoids dependency drift for RDKit/Scanpy/BioPython workflows.
- This preserves strict environment separation and reduces breakage risk in domain toolchains.
Example override:
export ACE_MCP_DEFAULT_MODEL="anthropic/claude-3-5-sonnet-latest"
export ANTHROPIC_API_KEY="..."
> Key export timing: API keys must be exported in the shell before starting OpenCode. MCP server processes are spawned at startup and inherit env from that moment — changing env vars afterwards has no effect until OpenCode is restarted.
5. Run tests
bun run test:all
This runs:
- all Bun tests across MCP servers (including sidecar-in-loop tests when
packages/server-paperqa/.venv-paperqaexists), - and PaperQA Python tests using the PaperQA venv interpreter.
6. Start
Make sure Ollama is running, then open the project directory in OpenCode. The MCP servers start automatically.
OpenCode Agent Usage
Agent roles
medsciis the primary orchestrator for cross-domain workflows.drug,protein,omics, andimagingare focused subagents for domain-deep tasks.- All agents follow a planning-first contract (brief plan before first tool call, then strict sequential execution).
Built-in project commands
This repo ships OpenCode slash commands under .opencode/commands:
/triage— classify request and propose minimal sequential MCP plan/lit-deep— literature discovery + PaperQA deep synthesis workflow/sandbox-job— sandbox lifecycle run (prepare → run_job → status(advisory) → fetch → teardown)/qc-check— maker-checker quality gate on scientific outputs/handoff-report— compact handoff for next agent/human/ace-learn— manual ACE learning fallback/override for a completed task/ace-strategies— inspect ACE strategy state for a domain/session
Sandbox command default
For inline script execution, prefer:
python3 -c "print('sandbox smoke ok')"
instead of python -c ... to avoid environment-path variability across sandbox templates.
Determinism and status policy
- Treat
sandbox_run_jobsuccess/failure as source-of-truth for execution outcome. - Treat
sandbox_statusas advisory state signal. - Backend applies status retry/backoff before returning
unknown.
Configuration
Environment variables (set in opencode.json under each server's environment):
| Variable | Default | Description | |----------|---------|-------------| | MEDSCI_PROFILE | standard | Hardware profile: lite, standard, or full | | MEDSCI_PYTHON | `p
…
Source & license
This open-source MCP server is cataloged on AgentStack and links to its original source — we do not rehost the code.
- Author: omar-A-hassan
- Source: omar-A-hassan/medsci-agent
- License: MIT
Install and usage instructions live in the source repository linked above.
Reviews
No reviews yet — be the first.
Write a review
Versions
- v0.1.0 Imported from the upstream source.