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gi-expression

Predict tissue / cell-type expression (log TPM + TPM) from 9,198–500,000 bp of DNA around a TSS, at least 4,599 bp each side (anything but exactly 9,198 bp needs --tss-index) using the Genomic Intelligence G0 Expression model, via the hosted /v1/tasks/expression/predict API. The model is conditioned on a free-text cell-type / assay description.

Published by ClawBio ↗ClawBio/ClawBio

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gi-expression

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Use gi-expression to With my explicit consent to upload the sequence to the hosted Genomic Intelligence API, use gi-expression to predict tissue/cell-type expression for [gene-sense FASTA file], providing a [cell-type/assay description] and an optional [0-based TSS offset for sequences not exactly 9,198 bp], to return a Markdown report of predicted log TPM and TPM, the full JSON result, and reproducibility files. For research use only; not for clinical or diagnostic decisions.

Required inputs

  • [gene-sense FASTA file]
  • [cell-type/assay description]
  • [0-based TSS offset for sequences not exactly 9,198 bp]

User-approved starter prompt based on a pinned source version; check current skill requirements before running. Task evidence ↗

SKILL.md

name: gi-expressiondescription: Predict tissue / cell-type expression (log TPM + TPM) from 9,198–500,000 bp of DNA around a TSS, at least 4,599 bp each side (anything but exactly 9,198 bp needs --tss-index) using the Genomic Intelligence G0 Expression model, via the hosted /v1/tasks/expression/predict  API. The model is conditioned on a free-text cell-type / assay description.license: MITmetadata:   openclaw:     requires:       bins:       - python3      env: null      config: null    always: false    emoji: 🧪    homepage: https://docs.genomicintelligence.ai    os:     - darwin    - linux    install:     - kind: pip      package: requests      bins: null    trigger_keywords:     - expression prediction    - predict expression    - sequence to expression    - TPM prediction    - cell type expression    - tissue expression    - RNA-seq prediction    - gi expression    - G0 expression    - genomic intelligence expression  author: ClawBio + Genomic Intelligence  demo_data:   - path: example_data/expression_hbb_k562.fa    description: HBB (β-globin), 9,198 bp centred on the TSS, reverse-complemented to gene-sense. K562 is the demo cell context — HBB is highly expressed in K562 erythroleukemia.  dependencies:     python: '>=3.10'    packages:     - requests>=2.31  domain: genomics  endpoints:     cli: python skills/gi-expression/gi_expression.py --input {input_file} --output {output_dir}  inputs:   - name: input_file    type: file    format:     - fa    - fasta    - fna    description: Single-record FASTA, gene-sense (RC minus-strand genes). Either exactly 9,198 bp centered on the TSS, or up to 500,000 bp with --tss-index giving the 0-based TSS offset, at least 4,599 bp from each end.    required: false  outputs:   - name: report    type: file    format: md    description: Markdown report — predicted log(TPM+1), TPM, model + timing.  - name: result    type: file    format: json    description: Full `{data, meta}` response.  - name: reproducibility    type: directory    description: command.sh + environment.json.  tags:   - genomics  - expression  - RNA-seq  - TPM  - sequence-to-expression  - dna-lm  - gi-api  version: 0.1.0

🧪 gi-expression

You are gi-expression, a ClawBio agent that calls the Genomic Intelligence sequence-to-expression model. Given at least 9,198 bp around a TSS (--tss-index unless it is exactly 9,198 bp) and a cell-type description, it returns predicted expression (log TPM + TPM).

⚠️ Remote inference — opt-in required. Unlike most ClawBio skills, this skill uploads your FASTA sequence to the hosted Genomic Intelligence API at https://api.genomicintelligence.ai. The same models also run interactively at https://genomicintelligence.ai. Do not submit identifiable patient data without an appropriate data-use agreement. Key setup: see Authentication below.

Trigger

Fire this skill when the user says any of:

  • "predict expression for this gene / sequence"
  • "what's the expression of this region in [cell type]?"
  • "sequence-to-expression prediction"
  • "TPM prediction", "log TPM prediction"
  • "gi-expression", "G0 expression"

Do NOT fire when:

  • The user has counts / RNA-seq output and wants differential expression → rnaseq-de
  • The user wants tissue annotation / GTEx lookup → use external resources

Why This Exists

  • Without it: Sequence-to-expression models (Enformer / Borzoi / G0 Expression) need GPU + private weights + careful 9-kbp windowing.
  • With it: One CLI call → expression prediction conditioned on free-text cell-type description, in <1 s.
  • Why ClawBio: Private weights, hosted. ClawBio's reproducibility bundle + chaining (gi-promoter → gi-expression → rnaseq-de interpretation).

API Backed

POST https://api.genomicintelligence.ai/v1/tasks/expression/predict. Omit model and the API resolves the default; GET /v1/tasks/expression/models is the current list.

Contract note. The Genomic Intelligence API publishes one operation per task, each with its own request schema: per-task minLength/maxLength on sequence, and a typed, closed options object (an unknown option key is a 422 validation_failed, not a silent ignore). The bounds quoted in this file are the published ones, but the authority is always the served schema: GET https://api.genomicintelligence.ai/v1/openapi.json.

Workflow

  1. Parse: single-record FASTA, gene-sense. Either exactly 9,198 bp TSS-centered, or 9,198–500,000 bp with --tss-index at least 4,599 bp from each end. Anything else is rejected locally before the request is sent.
  2. Build options: {"description": "assay term name is polyA plus RNA-seq. biosample summary is Homo sapiens K562."} by default; override via --description "...".
  3. POST to /v1/tasks/expression/predict, which is its own operation with its own request schema — each of the six tasks has one, so there is no shared predict body.
  4. Render: report.md (headline log TPM plus the scored window the API actually used) + result.json + reproducibility/.

CLI Reference

# Demo — HBB in K562
python skills/gi-expression/gi_expression.py --demo --output /tmp/gi-expression-demo

# Custom cell-type description
python skills/gi-expression/gi_expression.py \
  --input my_tss_window.fa \
  --description "assay term name is polyA plus RNA-seq. biosample summary is Homo sapiens liver." \
  --output report_dir

# Whole locus: the model reads around --tss-index
# (0-based offset into the sequence, counted after whitespace is stripped)
python skills/gi-expression/gi_expression.py \
  --input my_locus_50kb.fa --tss-index 24000 \
  --output report_dir

# Via ClawBio runner
python clawbio.py run gi-expression --demo

Authentication

The skill requires a Genomic Intelligence partner key in GI_API_KEY. Resolution order:

  1. --api-key <value> CLI flag (explicit override).
  2. GI_API_KEY environment variable.
  3. Otherwise: the skill raises a RuntimeError pointing here.

Quick start — ClawBio hackathon key

A shared hackathon-tier key ships in .env.example at the repo root (opt-in only). Caps are per-key and are not published as a fixed number — read RateLimit-Limit / RateLimit-Remaining on any /v1/tasks/ response for the live allowance. The runner keeps them for you: they are in result.json under rate_limit, and a 429 names them on the error line. From wherever the ClawBio files live on your machine:

# Repo root (git clone) — or ~/.claude/plugins/cache/clawbio/clawbio/<version>/ for plugin installs
cp .env.example .env
set -a && source .env && set +a

Production / heavier use

Request an individual key at contact@genomicintelligence.ai, then:

export GI_API_KEY=gi_yourkeyhere

Demo

python clawbio.py run gi-expression --demo

Bundled fixture is HBB centered on its canonical TSS, RC'd to gene-sense, scored with the skill's default K562 description.

Read the predicted value from your own run rather than from this page. Absolute predictions move when the model checkpoint changes, so any figure written here becomes a false claim. What is stable is the relative signal — gene-sense scores far above the genomic strand, and highly-expressed genes score above silent ones in the same cell context. Do not build assertions on an absolute value read from documentation.

Gotchas

  • 9,198 bp is a floor, not a fixed size. The endpoint accepts 9,198–500,000 bp (minLength / maxLength on ExpressionPredictRequest, counted after whitespace is stripped) with the TSS at least 4,599 bp from each end. Submit exactly 9,198 bp TSS-centered, or a longer locus plus --tss-index. How far the model reads is its own: bio_spec.recommended_flank_bp on GET /v1/tasks/expression/models is how much to fetch on each side of the TSS (4,599 bp for the default g0-expression, 40,960 bp for g0-expression-8192), and the response reports the part it used as scored_window, which is only 9,198 bp wide for g0-expression. Anything shorter than 9,198 bp, longer than 500,000 bp, or missing --tss-index on a non-9,198 bp sequence is a 422 validation_failed — the skill catches all of those locally first. Over-max is a 422, not a 413; 413 is the separate 16 MiB raw-body cap. A TSS closer than 4,599 bp to either end is rejected rather than padded, and there is no opt-out flag.
  • A tss_index error reports at loc: ["body"], never body.tss_index. Both TSS checks are a whole-body validator, so any client branching on the error loc will silently never match. Match on error.code (validation_failed) and use message for display only — and read error.details defensively: for a validation failure it is the declared {errors: [{loc, msg, type}, …]} object.
  • A wrong --tss-index does not error — it lies. Any offset in [4599, len-4599] is legal, so an offset computed against file characters (line-wrapped FASTA newlines) or against a chromosome coordinate instead of an offset into this sequence returns a confident number for the wrong window. Always check the "Scored window" line in report.md. The response reports the applied window as meta.task_specific_counts.scored_window; older responses also echoed it as data.input.scored_window, and this skill falls back to that echo only for them. The submitted length is a separate field, not part of the window: it is meta.sequence_length. Offsets are counted on the whitespace-stripped nucleotide string, so compute the offset against that rather than against the raw file. The parser refuses any base outside ACGTN, so the two differ only by whitespace.
  • Gene-sense is mandatory. Minus-strand genes need reverse-complementing. On the bundled HBB fixture the genomic strand scores about an order of magnitude below gene-sense, though the absolute values move with the checkpoint. The wrong strand returns a well-formed low number, not an error.
  • description wording changes the answer. It is a free-text conditioning input, not an enum, so paraphrases are not equivalent: on the same fixture and the same sequence, "K562", "K562 cells" and the canonical assay-format string give three different predictions, spanning roughly a factor of two in TPM. Pick one phrasing and keep it fixed across anything you intend to compare, and prefer the canonical "assay term name is … biosample summary is …" format the model was trained on.
  • description is required — in the published schema as well as at runtime, and it is the only key accepted inside expression options. The model is conditioned on it; "assay term name is polyA plus RNA-seq. biosample summary is Homo sapiens [tissue]." is the canonical format.
  • TPM scale is not absolute across tissues — useful as a relative ranking within a cell type, not as a precise count prediction.
  • Hackathon key is shared — GI_API_KEY for heavier use.

Output Structure

output_dir/
├── report.md
├── result.json
└── reproducibility/
    ├── command.sh
    └── environment.json

Integration with Bio Orchestrator

Routes here on: "predict expression", "sequence to expression", "TPM prediction", "cell-type expression".

Chains with: gi-promoter → gi-expression (validate predicted promoters by predicting downstream expression), rnaseq-de (compare predicted expression to measured DE results), variant-annotation (compare ref/alt sequence expression for promoter / 5'UTR variants).

Safety

Research and development use. Not for clinical or diagnostic decisions. Predictions are model outputs, not measurements.