Active research.
Not slide decks.

Our work spans spatial genomics, single-cell multiomics, protein structure prediction, generative design, and SE(3)-equivariant scoring — all wired into reproducible, containerized pipelines.

01
Spatial Genomics

Spatial Multiome Architecture

Mapping gene expression and chromatin accessibility in tissue space using Visium HD, MERSCOPE, and Xenium. We reconstruct tumor microenvironment architecture and cell-cell interaction networks at submicron resolution — going beyond counts to spatial context.

Visium HD MERSCOPE Xenium SpatialDE
02
Single-Cell & snRNA-seq

Cross-Modal Single-Cell Resolution

Integrated single-nucleus and single-cell RNA-seq analysis across tissue types — from UMAP clustering and cell state annotation to cross-species comparison and inter-donor variability quantification. We run snRNA-seq, bulk RNA-seq, and Visium spatial data through a single unified pipeline, delivering coherent cross-modal answers without batch artefacts.

snRNA-seq scRNA-seq Cell State Annotation Cross-Modal Integration Inter-donor Variability
03
Biomolecular Structure

End-to-End Co-Complex Structure Prediction

Running AlphaFold3, Chai-1, and Boltz-2 pipelines for joint prediction of protein-ligand, protein-nucleic acid, and antibody-antigen co-complexes at scale. Confidence-calibrated structural ensembles feed directly into our docking and free-energy perturbation workflows — from sequence to binding-ready pose in a single reproducible run.

AlphaFold3 Chai-1 Boltz-2 Co-Complex Prediction Free-Energy Perturbation
04
Generative Protein Design

De Novo Protein & Antibody Design

Leveraging RFdiffusion, ProteinMPNN, and Chai-1 to design high-affinity binders from scratch. We integrate structural biology with generative AI to bypass traditional screening — designing therapeutic proteins, antibody CDR loops, and peptide drugs with programmable specificity and in-silico-validated binding geometry.

RFdiffusion ProteinMPNN Chai-1 De Novo Design Antibody Engineering
05
Molecular Scoring & Geometry

SE(3)-Equivariant GNN Scoring Functions

Building and fine-tuning SE(3)-equivariant Graph Neural Networks for structure-aware molecular scoring — docking pose ranking, binding affinity prediction, and protein-ligand interaction geometry. Integrated with computer vision models for 3D pocket feature extraction and ensemble scoring across conformational states.

SE(3)-GNN Equivariant Networks Computer Vision Molecular Docking Binding Affinity
06
Drug Discovery AI

End-to-End Drug Discovery Pipeline

A full computational drug discovery stack — from target identification and hit discovery through lead optimization and ADMET prediction. Foundation models (ESM-3, ProtTrans, in-house architectures) combined with GNN scoring, generative design, and pharmacovigilance-linked safety profiling, all wrapped in reproducible, containerized pipelines.

ESM-3 Hit Discovery Lead Optimization ADMET Safety Profiling
07
Precision Pharmacogenomics

Predictive Safety & ADR Modeling

Integrating genomic variants with large-scale pharmacovigilance data to predict Adverse Drug Reactions before compounds enter trials. We build deep learning architectures that map the intersection of genetic markers and chemical toxicity — surface ADR signals from GWAS-linked data before Phase I.

ADR Prediction GWAS Integration Drug-Target Interaction Safety Intelligence
08
Multimodal Foundation Models

Cross-Modal Genomic Representation Learning

Pretraining and fine-tuning large biological foundation models — scFoundation, Geneformer, and in-house architectures — on paired transcriptomic, proteomic, and imaging datasets. Unified representations that generalize across cell types, tissues, and perturbation screens.

scFoundation Geneformer Perturbation Biology Multi-Modal Learning
09
Epigenomics

Epigenomic Reprogramming Maps

CUT&RUN, CUT&TAG, and scATAC profiling to map transcription factor binding dynamics, super-enhancer activation, and chromatin remodeling across oncogenic transformation and therapeutic response. Linking regulatory grammar to disease phenotype.

CUT&RUN scATAC-seq Super-Enhancers TF Motifs
10
Long-Read Genomics

Full-Length Variant & Isoform Resolution

PacBio Revio and Oxford Nanopore R10 workflows for phased structural variant calling, full-length transcript isoform quantification, and direct base modification detection. Closing the gaps left by short-read sequencing in complex genomic regions and repeat elements.

PacBio Revio ONT R10 Structural Variants Direct RNA Sequencing

$2.6 billion per approved drug.
Most of it lost after Phase I.

The simulation-to-clinic gap costs the industry north of a trillion dollars annually in failed trials, ADR-related withdrawals, and regulatory delays. The tooling hasn't caught up. Legacy platforms were built for a world without spatial transcriptomics, protein diffusion models, or patient-level variant resolution. We were built for this world.

90%
of drug candidates fail in clinical trials
~$2.6B
average cost to bring one drug to market
1 in 3
failures linked to safety signals missed preclinically

Three forces converged.
We integrated all three.

01

Generative protein models crossed the utility threshold

AlphaFold3, Chai-1, Boltz-2, and RFdiffusion have moved from benchmarks to production. We run these in validated, reproducible pipelines — not demos.

02

Spatial transcriptomics reached single-cell resolution

Visium HD, Xenium, and MERSCOPE now resolve tissue architecture at submicron scale. Integrated with snRNA-seq, they answer questions that bulk sequencing never could.

03

Pharmacovigilance data became structurally accessible

Large-scale real-world safety data, linked to genomic variant databases, now enables ADR prediction before a compound enters a trial. We built the architecture to use it.

The companies that integrate spatial multiomics, generative structure prediction, and pharmacovigilance intelligence into a single reproducible platform in the next 24 months will define the next era of precision medicine. That integration is exactly what we are building.

Active builds.

Multiomics Platform
Unified QC, normalization & integration across snRNA-seq, bulk RNA-seq, and spatial modalities
80%
SE(3)-GNN Scoring Engine
Equivariant graph neural network for docking pose ranking and binding affinity prediction
55%
Generative Biologics Pipeline
De novo protein & antibody design using RFdiffusion, ProteinMPNN, and Chai-1 in a single workflow
45%
ADR Prediction Engine
Deep learning architecture for variant-to-adverse-event mapping from GWAS-linked pharmacovigilance data
60%
Foundation Model Pretraining
Cross-modal genomic representation learning on paired transcriptomic, proteomic, and imaging datasets
35%
Clinical Reporting Stack
ACMG-grade variant classification and PGx report generation — from VCF to clinical-grade summary
65%
Clean Data Infrastructure Reproducible Pipelines Your Data Points Matter FAIR Data Standards Signal Over Noise Audit-Ready Workflows Explore the Unexplored Version-Controlled Science Boring Projects Boring Packages Data Integrity First Structured. Reproducible. Boring. Multi-Domain Orchestration Biology-Agnostic Engineering Drug Discovery, Reimagined Multiomics, Simplified Clean Data Infrastructure Reproducible Pipelines Your Data Points Matter FAIR Data Standards Signal Over Noise Audit-Ready Workflows Explore the Unexplored Version-Controlled Science Boring Projects Boring Packages Data Integrity First Structured. Reproducible. Boring. Multi-Domain Orchestration Biology-Agnostic Engineering Drug Discovery, Reimagined Multiomics, Simplified

Doing interesting
work? Let's make it boring.

We're always open to research collaborations, data partnerships, and advisory conversations.

inquiries@boringscience.bio