Multi-Omics Integration
Whole Genome Sequencing, Proteomics, and Epigenomics layers combined for deep biological context.
PanAum fuses multi-omics integration, causal genetics, pharmacogenomics, and generative AI to accelerate the path from disease hypothesis to a population-characterized, IND-ready therapeutic candidate.
$ run_panaum --target "Target_X" --modality "SmallMolecule" ✓ AlphaFold3: Structure prediction complete ✓ Binding Pocket: 4 cavities identified ✓ PGx Profile: 6 metabolizer phenotypes mapped ✓ Generative AI: 1,402 scaffolds generated ✓ ADMET Filter: 12 compounds passed ✓ PGx Constraint: 9 compounds safe ✓ Top 3 leads ranked · CDx brief generated
A unified computational ecosystem that bridges the gap between target identification and clinical-grade drug design. PanAum transforms static targets into dynamic, population-characterized therapeutic assets — multi-omics, network biology, pharmacogenomics, and generative chemistry in one automated workflow.
"The only end-to-end platform combining multi-source disease target intelligence, population-level pharmacogenomic profiling, and de novo generative molecular design in a single automated workflow."
Whole Genome Sequencing, Proteomics, and Epigenomics layers combined for deep biological context.
5 advanced metrics: Degree, Betweenness, Closeness, Eigenvector, and PageRank for target scoring.
Population-level variant profiling built into every stage, from target selection to the final clinical report.
Specialized workflows for Small Molecules, Antibodies, PROTACs, and Novel Target classes.
PanAum's pipeline ensures every step flows logically from initial evidence collection to a final executive-ready report, with no manual handoffs and full scientific provenance at each stage.
Integration of OpenTargets, GWAS, CTD, PharmGKB, and CPIC data to establish a high-confidence, pharmacogenomically-annotated evidence base.
Building the biological framework via STRING network construction and pathway enrichment analysis, with drug-response SNPs overlaid on the target network.
Determining the most promising therapeutic nodes via hub-gene scoring, multi-criteria ranking, and population-level allele frequency stratification across global ancestries.
Enhancing drug candidate quality through target annotation, variant-aware druggability screening across polymorphic protein conformations, and known-drug comparisons.
De novo scaffold generation using the Generative Fusion Engine with in-loop ADMET filtering and CYP/UGT/transporter polymorphism constraints embedded directly into the generation process.
Consolidating intelligence into structured final reports, executive summaries, PGx biomarker profiles, and Companion Diagnostic briefs for clinical decision-making.
| Dimension | Traditional CADD | PanAum Platform |
|---|---|---|
| Target Discovery | Manual / Associative methods | Causal (Mendelian Randomization) + variant-risk scored |
| Molecule Design | Virtual library screening | Generative AI de novo design |
| ADMET Safety | Post-hoc discovery (late-stage) | In-loop prediction & constraint |
| Population Coverage | Assumed universal | Stratified across 5 ancestral groups via PGx layer |
| Metabolizer Safety | Discovered in Phase I/II | CYP/UGT polymorphism constraints in-loop at design stage |
| Data Integration | Single-omics, siloed databases | Multi-omics + pharmacogenomics, 10+ unified sources |
| Time to IND | 6–10 years | 18–36 months |
| Target Validation | Correlative evidence only | Causal, genetically validated |
| Clinical Output | Compound only | Lead + PGx biomarker + Companion Dx draft |
Five foundational technologies, each targeting a specific failure point in traditional drug discovery.
A heterogeneous Graph Attention Network (GAT) that synthesizes multi-omics inputs to predict high-affinity molecular scaffolds, enabling genuine de novo molecular invention with pharmacogenomic variant constraints built directly into generation.
Safety and pharmacokinetic constraints are built directly into the molecule generation process, reducing failure rates in pre-clinical and late-stage development.
PanAum uses Mendelian Randomization to confirm each target is a genuine driver of disease rather than a downstream symptom, cutting costly late-stage attrition.
Structural biology powered by AlphaFold3 identifies binding pockets and cavity geometries that feed into generative molecular design, including variant conformations from common missense polymorphisms.
Population-level variant intelligence from PharmGKB, CPIC, gnomAD, and the FDA Table of Pharmacogenomic Biomarkers runs through every pipeline stage, ensuring every lead is safe across real patient populations.
From hypothesis validation to clinical-grade candidate delivery — PanAum fits the workflows of academic researchers, biotech startups, and global pharma teams.
Validate disease hypotheses with causal genetic evidence, generate optimized lead compounds, and receive a ready-to-publish pharmacogenomic variant landscape — all without a wet lab or clinical genetics team.
Compress discovery timelines from years to months. Enter investor conversations with an AI-generated, ADMET-filtered, PGx-characterized candidate and a Companion Diagnostic strategy.
Integrate PanAum into existing R&D pipelines for precision target intelligence, scalable molecular generation, and regulatory-ready PGx reporting. Reduce Phase I safety surprises.
PanAum gives you the precision, speed, and scientific provenance needed to go from unmet medical need to a population-characterized, IND-ready therapeutic candidate.