From raw reads to biological insights — we turn your sequencing data into scientific stories.
You generated the data. Now what? We run rigorous, reproducible bioinformatics analysis for research groups, graduate students, and industry teams — from a single 16S amplicon run to full multi-omics experiments spanning five data layers. We handle everything from quality control through publication-ready figures. Every analysis is built around your biological question, not a generic pipeline.
End-to-end 16S amplicon analysis — demultiplexing, quality filtering, ASV/OTU generation, taxonomic classification, and ecological analysis. We characterize community composition, alpha and beta diversity, differential abundance, and functional potential across your experimental conditions.
ITS1/ITS2 amplicon analysis for fungal diversity assessment. Taxonomic assignment against curated fungal databases (UNITE), diversity metrics, and community comparison across samples and treatments.
Community analysis for protists and other microeukaryotes. Particularly relevant for environmental, marine, and soil ecology studies where the eukaryotic fraction is biologically significant.
Species- and strain-level community characterization using both read-based and assembly-based approaches. We go beyond "what is there" to quantify relative and estimated absolute abundances with proper normalization.
Gene-level and pathway-level functional profiling of microbial communities. We map reads and genes from assembled contigs to KEGG, COG, CAZy, and custom functional databases to answer "what can this community do", not just "who is there."
Genome-resolved metagenomics. We assemble, bin, refine, and assess quality — reconstructing near-complete MAGs with organism-level resolution from a community sample.
From MAGs or unbinned assemblies, we reconstruct complete and partial metabolic pathways (carbon fixation, nitrogen cycling, sulfur metabolism, fermentation routes, and xenobiotic degradation) to link community membership to ecosystem function.
See also: AMR and Resistome Profiling →Differential gene expression analysis from standard RNA-Seq experiments. Quality control, read alignment, quantification, normalization, and statistical testing. We deliver gene lists, volcano plots, heatmaps, and pathway enrichment results tied to your experimental design.
We distinguish what the community can do (metagenomics) from what it is actually doing (metatranscriptomics). Active pathway identification, expression-level functional profiling, and transcriptional response analysis — all tied to your experimental conditions.
Protein-level characterization of microbial communities. Peptide identification, protein inference, taxonomic and functional annotation, and quantitative comparison across conditions. We link expression data back to genomic origins using sample-specific databases — enabling organism-level functional interpretation.
Data-independent acquisition proteomics analysis using DIA-NN and related tools. Library-free and library-based workflows for deep, reproducible quantification of complex proteomes across experimental conditions.
Feature detection, annotation, statistical analysis, and pathway mapping from LC-MS or GC-MS metabolomics datasets. We identify significantly altered metabolites across conditions and map them onto biological pathways using custom workflows.
Focused analysis of specific metabolic pathways or metabolite classes relevant to your study (short-chain fatty acids, amino acids, lipid profiles, and secondary metabolites) with quantitative comparison and biological contextualization.
Integration of two or more omics layers from the same samples (metagenomics + metatranscriptomics, genomics + proteomics, transcriptomics + metabolomics) using multivariate integration frameworks. We identify cross-omics signatures, co-varying features, and multi-layer biomarkers that no single omics layer can reveal alone.
Construction and analysis of multi-omics correlation networks linking taxa, genes, transcripts, proteins, and metabolites. We identify hub features, functional modules, and the regulatory or ecological relationships that drive your system.
We do not just integrate data — we interpret it. Every multi-omics project ends with a coherent biological narrative: which organisms are doing what, which pathways are active, and how they connect across molecular scales. That is the "From Atoms to Systems" principle.
Every project gets a tailored analysis package — built around your question, not a fixed menu. Every deliverable goes directly into your manuscript, thesis, or technical report.
A structured, narrated report walking through every analysis step with publication-quality figures, statistical summaries, and biological interpretation. For academic clients, written to slot directly into your results and methods sections. For industry clients, formatted as a technical report with executive summary.
High-resolution figures (PDF/SVG/PNG at 300+ dpi) with consistent styling, proper axis labels, legends, and statistical annotations. Designed for journal submission or internal presentations.
Processed data tables (ASV/OTU tables, gene abundance matrices, MAG statistics, expression matrices), publication-ready figures, and a detailed methods report for full reproducibility.
A ready-to-use methods section for your manuscript, thesis, or report, citing all software, databases, and parameters used.
Step-by-step record of every tool, version, parameter, and database used. Full computational reproducibility guaranteed.
Industry-standard and state-of-the-art platforms across every omics layer, ensuring reproducibility and methodological rigor from raw data to final interpretation.
A structured, transparent process from your first message to the final figure: every decision documented, every output explained, every result interpreted in the context of your biology.
You share your question, study design, and data. We review your setup and tell you whether it can answer your question. If you are still planning — we help you optimize sequencing depth, replication, and multi-omics strategy before you spend on sequencing.
We assess raw data quality, trim adapters, filter reads, remove chimeras, and decontaminate host reads. You receive a QC summary before we proceed. No analysis runs on bad data.
The main analytical pipeline, tailored to your data type and question. For amplicon data: ASV generation through diversity analysis. For metagenomics: assembly through MAG reconstruction and functional annotation. For multi-omics: individual layer processing followed by integration. Every step is documented and version-controlled.
We do not hand you a folder of tables and call it done. We interpret the results in the context of your biological question, your experimental design, and the relevant literature. If something unexpected emerges, we flag it and suggest follow-up analyses or validation experiments.
You receive the full package: report, figures, data tables, scripts, and methods text. We stay with you through publication — revision requests, reviewer responses, additional analyses, and figure updates all included.
Structured tiers matched to the scope and complexity of your project. All packages include raw processed data, reproducible scripts, and post-delivery support through publication or project completion. Pricing provided upon consultation.
Best for: A lab or student with one 16S/ITS dataset that needs proper analysis for a paper or thesis.
Best for: Research groups with whole-genome shotgun data who need both community profiling and functional characterization.
Best for: Projects with two or more omics layers that need integrated analysis and systems-level interpretation.
Best for: Labs, research centers, or companies that generate omics data routinely and need a dedicated bioinformatics partner.
Have sequencing data waiting for analysis? A multi-omics experiment to design? Send us your data and your question — we will build the right analytical strategy.
Discuss Your ProjectTypical response time: 48 hours. We work with data from any sequencing platform, any sample type, any scale.