MIU: Unified Multi-Omics Microbiome Analysis Platform
From amplicon to multi-omics integration — one reproducible, AI-assisted workflow for microbiome research.
- Reproducibility
- >80%
- Taxonomy F1
- >90%
- Omics layers
- 6
Fragmentation in Microbiome Analysis
Researchers stitch together disjoint tools across omics layers — sacrificing reproducibility, speed, and confidence.
| Problem | Impact |
|---|---|
| Single-omics tools | DNA, RNA, protein, metabolites analyzed separately |
| Poor reproducibility | Only 30% protein overlap across tools |
| High false positives | Only 8% metabolite overlap across platforms |
| Steep learning curve | QIIME2 takes months to master |
| No multi-omics integration | MOFA2 exists but disconnected |
Project MIU
MIU unifies microbiome workflows into a single platform with consensus-based and AI-assisted decision making.
Comparison to Existing Software
Specialized tools each cover a slice. MIU covers the whole stack.
| Feature | QIIME2 | VEBA2 | FragPipe | XCMS | MOFA2 | MIU |
|---|---|---|---|---|---|---|
| Amplicon (16S) | ||||||
| Shotgun Metagenomics | ||||||
| Metatranscriptomics | ||||||
| Metaproteomics | ||||||
| Metabolomics | ||||||
| Multi-Omics Integration | ||||||
| Long-read support | ||||||
| Web Full-featured |
The Gaps MIU Closes
| Category | Key Gaps | MIU Solution |
|---|---|---|
| Input & Preprocessing | Host contamination, mixed formats | Universal Parser + MIU-HostClean |
| Taxonomic Classification | False positives, domain-specific | MIU-DomainMaster + Consensus (Kraken2 + Centrifuge + MetaPhlAn4) |
| Metaproteomics | 30% tool overlap | Consensus across 3+ engines (FragPipe, MaxQuant, MetaMorpheus) |
| Metametabolomics | 8% feature overlap | Consensus across 4 platforms (XCMS, MS-DIAL, MZmine, iMet-Q) |
| Multi-Omics | No MOFA/DIABLO integration | MIU-INTEGRATE suite |
| Reproducibility | No built-in containerization | MIU-Capsule one-command |
Consensus and AI-Based Approach
MIU uses consensus methods and AI-assisted decision logic to reduce false positives, improve reproducibility, and automatically select the best analysis strategy based on the user's dataset.
| Domain | Problem | MIU Solution | Target Improvement |
|---|---|---|---|
| Metaproteomics | 30% overlap | FragPipe + MaxQuant + MetaMorpheus | >80% reproducibility |
| Metametabolomics | 8% overlap | XCMS + MS-DIAL + MZmine + iMet-Q | >50% reproducibility |
| Taxonomy | Domain-specific | Kraken2 + Centrifuge + MetaPhlAn4 | >90% F1 score |
A Full Bioinformatics Workbench, Built for Microbiomes
MIU brings the breadth of a modern molecular biology workbench — alignment, assembly, primers, BLAST, phylogenetics, annotation — into one reproducible, AI-assisted platform purpose-built for microbiome research.
Multiple sequence alignment for 16S, ITS, and full-length amplicons with MAFFT, MUSCLE, and Clustal consensus.
- Pairwise & MSA
- Codon-aware mode
- Alignment quality scoring
Hybrid short- and long-read metagenomic assembly using SPAdes, Flye, and metaMDBG with auto-binning.
- Hybrid assembly
- MAG binning
- Contig QC reports
Design and validate amplicon and qPCR primers with built-in in-silico PCR against SILVA and GTDB.
- Tm / GC / hairpin checks
- In-silico PCR
- Coverage estimation
Federated BLAST and DIAMOND search across NCBI, SILVA, UNITE, GTDB, and custom reference databases.
- BLASTn / BLASTp / DIAMOND
- Custom DB upload
- Hit ranking & taxonomy
Build maximum-likelihood, neighbor-joining, and Bayesian phylogenies with one-click iTOL and Newick export.
- IQ-TREE / RAxML / FastTree
- Bootstrapping
- iTOL & Newick export
Functional and taxonomic annotation with Prokka, eggNOG-mapper, KEGG, COG, CAZy, and Pfam.
- Gene calling
- Pathway mapping
- Custom annotation tracks
Consensus read mapping across Bowtie2, BWA-MEM, and minimap2 with coverage and strain-resolved profiling.
- Short & long reads
- Coverage heatmaps
- Strain inference
Strain-level SNP and indel calling with bcftools, FreeBayes, and DeepVariant in a consensus workflow.
- SNV / Indel / SV
- Strain deconvolution
- VCF & report export
Design constructs, validate restriction sites, and simulate cloning workflows for engineered microbes.
- Restriction & Gibson
- Plasmid simulation
- Codon optimization
Extend MIU with Python and Rust plugins, custom panels, and reproducible workflow steps.
- Python / Rust SDK
- Custom panels
- Workflow nodes
Shared lab projects, role-based access, change history, and reproducible workflow snapshots.
- Shared projects
- Roles & audit log
- Snapshots & forks
Interactive viewers for alignments, chromatograms, trees, contigs, and abundance heatmaps.
- Alignment & trace viewer
- Tree explorer
- Abundance heatmaps
| Capability | Classic Workbench | MIU |
|---|---|---|
| Sequence Alignment | ||
| De Novo Assembly | ||
| Primer Design + in-silico PCR | ||
| BLAST / DIAMOND Search | ||
| Phylogenetics | ||
| NGS Read Mapping & Variants | ||
| Annotation (Prokka / eggNOG) | ||
| Consensus Multi-Omics Integration | ||
| AI-assisted False Positive Shield | ||
| Containerized Reproducibility (MIU-Capsule) | ||
| Web-Native, Multi-Engine Architecture |
Interactive Modules — Alignment, Assembly, BLAST, Primers & Variants
A Geneious-class workbench, adapted for microbiome science. Zoom alignments, explore assemblies and gene maps, run BLAST against SILVA / GTDB / UNITE, design PCR primers, call variants, and export sequences and reports — all in MIU.
Architecture & Licensing
| Module Type | Language | Open-Source | Commercial |
|---|---|---|---|
| Core Infrastructure | Rust + Python | MIT / BSD-3 | Yes |
| High-Performance Compute | Rust | MIT + Apache-2.0 | Yes |
| Python/R/Julia API | Multi | LGPL-3.0 | Yes |
| CLI / Pocket Apps | Rust + Python | GPL-3.0 | Yes |
| Cloud Services | Rust + TypeScript | AGPL-3.0 | Yes, SaaS |
| Enterprise Features | Rust/Python | Proprietary | Yes, enterprise only |
Multi-Engine Computational Core
MIU combines Python, AI, Rust, DUST, and Jupyter-based engines to deliver fast, reproducible, automated, and researcher-friendly microbiome analysis.
Handles bioinformatics pipelines, data preprocessing, statistical analysis, visualization, and integration with scientific Python libraries.
- Microbiome data preprocessing
- Pandas / NumPy / SciPy workflows
- Scikit-learn model integration
- Plotting and reporting
- API bridge for bioinformatics tools
Provides intelligent workflow recommendation, false-positive detection, denoiser selection, model evaluation, and adaptive analysis decisions.
- Auto-Denoiser Selection
- False Positive Shield
- Adaptive Speed-Accuracy
- F1 score optimization
- AI-assisted workflow recommendation
- Multi-omics pattern detection
Runs high-performance, memory-safe computation for large-scale microbiome datasets, long-read processing, indexing, and parallel execution.
- High-speed sequence parsing
- Long-read support
- Parallel processing
- Memory-safe computation
- CLI and pocket app backend
- Fast file format conversion
Provides workflow automation, task orchestration, agent-based pipeline execution, and reproducible analysis coordination.
- Automated workflow orchestration
- Agent-based task execution
- Pipeline scheduling
- Tool coordination
- Workflow logging
- Reproducibility tracking
Gives researchers an interactive notebook environment for exploration, reproducible analysis, custom scripts, visualization, and educational workflows.
- Interactive microbiome analysis
- Notebook-based reproducibility
- Custom Python/R workflows
- Research documentation
- Visualization sandbox
- Exportable reports
| Engine | Main Role | Strength | Used For |
|---|---|---|---|
| Python Engine | Scientific analysis | Flexible ecosystem | Data processing, statistics, ML, visualization |
| AI Engine | Decision intelligence | Adaptive automation | Denoiser selection, false-positive detection, model scoring |
| Rust Engine | High-performance compute | Speed and memory safety | Parsing, indexing, long-read processing, CLI backend |
| DUST Engine | Workflow orchestration | Automation and reproducibility | Pipeline control, task scheduling, agent execution |
| Jupyter Engine | Interactive research | Researcher-friendly notebooks | Exploration, visualization, custom analysis |
import miu
project = miu.Project("gut_microbiome_study")
project.load_data("samples.fastq")
project.run_amplicon()
project.run_consensus()
project.ai.false_positive_shield()
project.export_report("MIU_Report.pdf")miu run --input samples.fastq --omics amplicon \
--engine rust --ai-consensus true --export reportMIU is not just a microbiome platform — it is a multi-engine computational framework built for scale, speed, and reproducibility.
Project MIU Timeline
Metagenomics Foundation
Transcriptomics + Proteomics
Metabolomics + Basic Integration
Production Release
Inside the MIU Workspace
A glimpse at the unified analysis dashboard.
- Python EngineActive
- AI EngineOptimizing
- Rust EngineRunning
- DUST EngineOrchestrating
- Jupyter EngineReady