Analytical Workflows We Support
High-fidelity pipelines designed by experts to address core biological discovery needs.
From Data to Decisions: Your Workflow
A reproducible, secure process that transforms raw count matrices and compound indices into publication-ready discoveries.
Discovery Briefing
Establish analytical objectives, target biological markers, genome indexes, and cohort categories on an introductory call.
Secure Ingestion
Submit raw sequencing reads (FASTQ), count matrices, or PDB chemical coordinates using secure, NDA-backed file portals.
Core Processing
Execute strict quality controls, remove doublet cells, filter background noise, or configure active docking grid boxes.
Genomics Deliver
Deliver annotated cell-types, Seurat/Scanpy coordinates, trajectory paths, and pathway enrichment data matrices.
Docking Pose delivery
Deliver complex structures (PDB/SDF), binding energy ratings, 2D interaction maps, and PyMOL presets.
Analytical Figure Proofs
High-DPI, vector-graphic outputs prepared exactly to scientific journal publication guidelines.
Cell Cluster Annotation UMAP
Clear dimension-reduced clusters representing specific annotated cell subtypes.
Differential Gene Expressions
Volcano plots showing statistical logs of fold-change expression boundaries.
Receptor Ligand Interaction
Interactive binding-pocket poses mapped out in molecular dynamics simulations.
Scientist Endorsements
Hear from wet-lab researchers who transformed raw cells into publication success.
"The bioinformatics support from Omics Lab was instrumental for our recent cell-atlas paper. They did all the Seurat QC, batch integration across three patient batches, and trajectory analysis. They delivered fully commented R notebooks and vectorized figures that went straight into our manuscript."
Dr. Sarah Jenkins
"We handed over a FASTQ library of a multi-organ organism with no established reference index. The team constructed custom alignment paths, handled batch effects seamlessly using Harmony, and annotated cell states that mapped directly to our phenotypes. Unbelievable precision."