Files
bttoxin-pipeline/README.md
zly e44692600c Fix(pipeline): optimize docker build, fix zip structure, and update UI
- Docker:
  - Explicitly install pixi environments (digger, pipeline, webbackend) during build to prevent runtime network/DNS failures.
  - Optimize pnpm config (copy method) to fix EAGAIN errors.
- Backend:
  - Refactor ZIP bundling: use flat semantic directories (1_Toxin_Mining, etc.).
  - Fix "nested zip" issue by cleaning existing archives before bundling.
  - Exclude raw 'context' directory from final download.
- Frontend:
  - Update TutorialView documentation to match new result structure.
  - Improve TaskMonitor progress bar precision (1 decimal place).
  - Update i18n (en/zh) for new file descriptions.

Co-Authored-By: Claude <noreply@anthropic.com>
2026-01-21 20:43:28 +08:00

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# BtToxin Pipeline
Automated Bacillus thuringiensis toxin mining system using pixi-managed environments.
## Quick Start
### Prerequisites
- [pixi](https://pixi.sh) - Modern package manager for conda environments
- Linux x86_64 (linux-64 platform)
### Installation
1. Install pixi (if not already installed):
```bash
# Linux/macOS
curl -fsSL https://pixi.sh/install.sh | bash
# Or via Homebrew
brew install pixi
```
2. Clone and setup the project:
```bash
git clone <your-repo>
cd bttoxin-pipeline
# Install all environments (digger + pipeline)
pixi install
```
This creates two isolated environments:
- `digger`: BtToxin_Digger with bioconda dependencies (perl, blast, etc.)
- `pipeline`: Python analysis tools (pandas, matplotlib, seaborn)
### Running the Pipeline
#### Full Pipeline (Recommended)
Run the complete analysis pipeline with a single command:
```bash
pixi run pipeline --fna tests/test_data/HAN055.fna
```
This executes three stages:
1. **Digger**: BtToxin_Digger toxin mining
2. **Shotter**: Toxin scoring and target prediction
3. **Plot**: Heatmap generation and report creation
#### CLI Options
```bash
pixi run pipeline --fna <file> [options]
Options:
--fna PATH Input .fna file (required)
--out_root PATH Output directory (default: runs/<stem>_run)
--toxicity_csv PATH Toxicity data CSV (default: Data/toxicity-data.csv)
--min_identity FLOAT Minimum identity threshold 0-1 (default: 0.0)
--min_coverage FLOAT Minimum coverage threshold 0-1 (default: 0.0)
--disallow_unknown_families Exclude unknown toxin families
--require_index_hit Keep only hits with known specificity
--lang {zh,en} Report language (default: zh)
--bttoxin_db_dir PATH Custom bt_toxin database directory
--threads INT Number of threads (default: 4)
```
#### Examples
```bash
# Basic run with default settings
pixi run pipeline --fna tests/test_data/C15.fna
# Strict filtering for high-confidence results
pixi run pipeline --fna tests/test_data/HAN055.fna \
--min_identity 0.50 --min_coverage 0.60 \
--disallow_unknown_families --require_index_hit
# English report with custom output directory
pixi run pipeline --fna tests/test_data/HAN055.fna \
--out_root runs/HAN055_strict --lang en
# Use custom database
pixi run pipeline --fna tests/test_data/HAN055.fna \
--bttoxin_db_dir /path/to/custom/bt_toxin
```
### Individual Stage Commands
Run stages separately when needed:
#### Digger Only
```bash
pixi run digger-only --fna <file> [options]
Options:
--fna PATH Input .fna file (required)
--out_dir PATH Output directory (default: runs/<stem>_digger_only)
--bttoxin_db_dir PATH Custom database directory
--threads INT Number of threads (default: 4)
--sequence_type Sequence type: nucl/orfs/prot/reads (default: nucl)
```
Example:
```bash
pixi run digger-only --fna tests/test_data/C15.fna --threads 8
```
#### Shotter (Scoring)
```bash
pixi run shotter [options]
Options:
--toxicity_csv PATH Toxicity data CSV
--all_toxins PATH All_Toxins.txt from Digger
--output_dir PATH Output directory
--min_identity FLOAT Minimum identity threshold
--min_coverage FLOAT Minimum coverage threshold
--allow_unknown_families / --disallow_unknown_families
--require_index_hit Keep only indexed hits
```
Example:
```bash
pixi run shotter \
--all_toxins runs/C15_run/digger/Results/Toxins/All_Toxins.txt \
--output_dir runs/C15_run/shotter
```
#### Plot (Visualization)
```bash
pixi run plot [options]
Options:
--strain_scores PATH strain_target_scores.tsv from Shotter
--toxin_support PATH toxin_support.tsv (optional)
--species_scores PATH strain_target_species_scores.tsv (optional)
--out_dir PATH Output directory
--cmap STRING Colormap (default: viridis)
--per_hit_strain NAME Generate per-hit heatmap for specific strain
--merge_unresolved Merge other/unknown into unresolved
--report_mode {summary,paper} Report style (default: paper)
--lang {zh,en} Report language (default: zh)
```
Example:
```bash
pixi run plot \
--strain_scores runs/C15_run/shotter/strain_target_scores.tsv \
--toxin_support runs/C15_run/shotter/toxin_support.tsv \
--out_dir runs/C15_run/shotter \
--per_hit_strain C15 --lang en
```
## Output Structure
After running the pipeline:
```
runs/<strain>_run/
├── stage/ # Staged input file
│ └── <strain>.fna
├── digger/ # BtToxin_Digger outputs
│ ├── Results/
│ │ └── Toxins/
│ │ ├── All_Toxins.txt
│ │ ├── <strain>.list
│ │ ├── <strain>.gbk
│ │ └── Bt_all_genes.table
│ └── BtToxin_Digger.log
├── shotter/ # Shotter outputs
│ ├── strain_target_scores.tsv
│ ├── strain_scores.json
│ ├── toxin_support.tsv
│ ├── strain_target_species_scores.tsv
│ ├── strain_species_scores.json
│ ├── strain_target_scores.png
│ ├── strain_target_species_scores.png
│ ├── per_hit_<strain>.png
│ └── shotter_report_paper.md
├── logs/
│ └── digger_execution.log
└── pipeline_results.tar.gz # Bundled results
```
## Database Update
BtToxin_Digger's built-in database may be outdated. Use the latest from GitHub:
### Update Steps
```bash
mkdir -p external_dbs
rm -rf external_dbs/bt_toxin tmp_bttoxin_repo
git clone --filter=blob:none --no-checkout https://github.com/liaochenlanruo/BtToxin_Digger.git tmp_bttoxin_repo
cd tmp_bttoxin_repo
git sparse-checkout init --cone
git sparse-checkout set BTTCMP_db/bt_toxin
git checkout master
cd ..
cp -a tmp_bttoxin_repo/BTTCMP_db/bt_toxin external_dbs/bt_toxin
rm -rf tmp_bttoxin_repo
```
The pipeline automatically detects `external_dbs/bt_toxin` if present.
### Database Structure
```
external_dbs/bt_toxin/
├── db/ # BLAST index files (required)
│ ├── bt_toxin.phr
│ ├── bt_toxin.pin
│ ├── bt_toxin.ps
│ └── ...
└── seq/ # Source sequences (optional, for reference)
└── bt_toxin*.fas
```
## Input File Format
`.fna` files are FASTA-format nucleotide sequence files containing bacterial genome sequences:
```
>NZ_CP010088.1 Bacillus thuringiensis strain 97-27 chromosome, complete genome
TAATGTAACACCAGTAAATATTTCATTCATATATTCTTTTAACTGTATTTTATATTCTTTCTACTCTACAATTTCTTTTA
ACTGCCAATATGCATCTTCTAGCCAAGGGTGTAAAACTTTCAACGTGTCTTTTCTATCCCACAAATATGAAATATATGCA
...
```
## Result Interpretation
### Key Output Files
**All_Toxins.txt** - Complete toxin predictions with:
- Strain, Protein ID, coordinates
- SVM/BLAST/HMM predictions
- Hit ID, alignment length, identity, E-value
**strain_target_scores.tsv** - Strain-level target predictions:
- TopOrder: Most likely target insect order
- TopScore: Confidence score (0-1)
- Per-order scores for all target orders
**toxin_support.tsv** - Per-hit contribution details:
- Individual toxin weights and contributions
- Family classification and partner status
### Toxin Rankings
- **Rank1**: Highest confidence (identity ≥78%, coverage ≥80%)
- **Rank2-3**: Moderate confidence
- **Rank4**:
Lowest confidence predictions
### Target Orders
Common insect orders in predictions:
- **Lepidoptera**: Moths and butterflies
- **Coleoptera**: Beetles
- **Diptera**: Flies and mosquitoes
- **Hemiptera**: True bugs
- **Nematoda**: Roundworms
## Web Interface (Optional)
BtToxin Pipeline provides an optional web interface for easy task submission and monitoring.
### Quick Start
```bash
# Start both frontend and backend services (recommended)
pixi run web-start
# Frontend: http://localhost:5173
# Backend: http://localhost:8000
```
Or start services separately:
```bash
# Terminal 1: Start backend
pixi run api-dev
# Terminal 2: Start frontend
pixi run fe-dev
```
### Using the Web Interface
1. Open http://localhost:5173 in your browser
2. Upload a .fna genome file
3. Configure analysis parameters (optional)
4. Click "Submit Task"
5. You'll be redirected to `/<task_id>` page
6. The page polls for status every 3 seconds
7. When complete, download your results as `.tar.gz`
### Task URL
After submission, your task URL will be:
```
http://localhost:5173/<task_id>
```
Save this URL to check results later. Results are available for **30 days**.
### Result Storage
Task results are stored in `/data/jobs/{task_id}/`:
- `input.fna` - Your uploaded file
- `params.json` - Task parameters
- `output/` - Pipeline output files
- `pipeline_results.tar.gz` - Downloadable bundle
### Result Retention
Results are automatically deleted after **30 days** to free up storage space. Download important results before they expire.
### Python Development Environment
For development work outside pixi:
```bash
uv venv --managed-python -p 3.12 --seed .venv
source .venv/bin/activate
uv pip install -e .
```
### Running Tests
```bash
# Run property-based tests for pipeline
pixi run -e pipeline python -m pytest tests/test_pixi_runner.py -v
# Run frontend tests
pixi run fe-test
# Run backend tests
pixi run api-test
```
### Project Structure
```
bttoxin-pipeline/
├── pixi.toml # Pixi environment configuration
├── pyproject.toml # Python package configuration
├── scripts/ # Core pipeline scripts
│ ├── run_single_fna_pipeline.py # Main pipeline orchestrator
│ ├── run_digger_stage.py # Digger-only stage
│ ├── bttoxin_shoter.py # Toxin scoring module
│ ├── plot_shotter.py # Visualization & reporting
│ └── pixi_runner.py # PixiRunner class
├── bttoxin/ # Python package (CLI entry point)
│ ├── __init__.py
│ ├── api.py
│ └── cli.py
├── Data/ # Reference data
│ └── toxicity-data.csv # BPPRC specificity data
├── external_dbs/ # External databases (optional)
│ └── bt_toxin/ # Updated BtToxin database
├── tools/ # Utility tools and environments
│ └── reproduction/ # BtToxin_Digger reproduction env
│ └── bttoxin_digger/
├── tests/ # Test suite
│ ├── test_pixi_runner.py # Property-based tests
│ └── test_data/ # Test input files
├── docs/ # Documentation
├── runs/ # Pipeline outputs (gitignored)
├── backend/ # FastAPI backend (optional web service)
├── frontend/ # Vue.js frontend (optional web UI)
└── crispr_cas/ # CRISPR-Cas analysis module
```
## Docker Deployment
For production deployment:
```bash
# Build and start the service with Traefik integration
docker compose -f docker/compose/docker-compose.traefik.yml -p compose up -d --build
# Access: https://bttiaw.hzau.edu.cn
```
The setup uses Traefik for SSL termination and routing. The backend API and frontend assets are served by the `bttoxin-pipeline` container.
**Available Docker configurations:**
- `docker/compose/docker-compose.traefik.yml` - Production deployment (Recommended)
- `docker/compose/docker-compose.simple.yml` - Simple deployment (No Traefik)
- `docker/compose/docker-compose.test.yml` - Test configuration
**Volume Mounts:**
- `./jobs`: Persist task data
- `./Data`: Reference data
For detailed Docker deployment information, see [DOCKER_DEPLOYMENT.md](DOCKER_DEPLOYMENT.md)
### Building the Image Manually
To build the image manually, ensure you set the correct build context so that `pixi.toml` can be found.
```bash
# Option 1: From project root (specifying context)
docker build \
--network=host \
-f web/zly/docker/dockerfiles/Dockerfile.traefik \
-t hotwa/bttoxin-app:latest \
web/zly
# Option 2: Enter directory first
cd web/zly
docker build \
--network=host \
-f docker/dockerfiles/Dockerfile.traefik \
-t hotwa/bttoxin-app:latest \
.
```
## Troubleshooting
### pixi not found
```bash
# Ensure pixi is in PATH
export PATH="$HOME/.pixi/bin:$PATH"
# Or reinstall
curl -fsSL https://pixi.sh/install.sh | bash
```
### Environment not found
```bash
# Reinstall environments
pixi install
```
### BtToxin_Digger not available
```bash
# Verify digger environment
pixi run -e digger BtToxin_Digger --help
```
### Permission errors
Ensure write permissions on output directories. The pipeline creates directories automatically.
## License
MIT License