Absorption
- Solubility and ionization
- Permeability and intestinal absorption
- P-gp and transporter interaction
- Oral bioavailability potential
Turn molecular structures and available assay data into decision-ready ADMET evidence. We combine fit-for-purpose prediction, applicability assessment, expert interpretation, and optional regulatory-support documentation to help teams prioritize compounds, resolve liabilities, and plan the next experiment.
Prediction is useful only when the endpoint, chemical space, uncertainty, and next action are clear. We scope each project around the question your team needs to answer rather than applying a fixed panel to every molecule.
Profile compounds across relevant absorption, distribution, metabolism, excretion, PK, and toxicity endpoints before committing to synthesis or higher-cost testing.
Connect model outputs with chemical context, applicability, available experimental data, and cross-endpoint trade-offs to identify the liabilities that can change a decision.
Translate predicted risk into candidate ranking, medicinal-chemistry hypotheses, confirmatory assay priorities, or development-stage documentation.
Endpoint selection is tailored to modality, route, discovery stage and known program risks. Focused single-liability studies and broader multi-parameter profiles are both supported.
Rather than treating every endpoint as a separate product, we connect focused analyses when a specific liability needs deeper investigation.

When oral exposure is limited, our integrated assessment can be extended with Solubility and Permeability Prediction to distinguish dissolution, ionization, and membrane-transport constraints before prioritizing formulation or chemistry changes.
For metabolic liabilities, CYP Inhibition and Metabolism Prediction can add isoform-specific inhibition, metabolic soft-spot, stability, clearance, and DDI-oriented evidence to the broader ADMET profile.
When the initial screen flags cardiac or selectivity concerns, deeper hERG Liability Prediction or Off-Target Risk Prediction can be incorporated without fragmenting the overall interpretation.
For programs that need exposure translation rather than endpoint screening alone, predicted and experimental parameters can feed into PBPK Modeling and Simulation to examine dose, tissue exposure, population, and sensitivity scenarios.
The depth of analysis changes as a program moves from broad discovery screening to lead optimization and development-stage evidence generation.
Rapidly identify compounds with major ADMET liabilities and focus resources on the most promising chemical space.
Investigate the molecular features associated with exposure, metabolism, permeability, selectivity, or safety risk and compare redesign options.
Organize computational results, model context, supporting evidence, expert interpretation, and limitations into a structured technical package.
For projects that require additional development or regulatory context, CD ComputaBio can extend the computational package with structured documentation and expert toxicology review within the agreed project scope.
Computational results are presented as supporting evidence. Formal acceptance, required assays, and the role of in silico evidence depend on the endpoint, jurisdiction, development stage, and intended regulatory use.
Where applicable, reports can document model assumptions, applicability-domain considerations, supporting data, confidence, conflicting evidence, and recommended confirmation steps.
Dedicated modules such as hERG Liability Prediction and Off-Target Risk Prediction can be incorporated into a broader ADMET package.
No single algorithm is appropriate for every ADMET question. Method selection depends on endpoint definition, data availability, chemical space, mechanistic complexity, and intended use.
| Project need | Typical methods | Key inputs | Decision output |
|---|---|---|---|
| Broad ADMET screening | QSAR/QSPR, machine learning, consensus models | Structures/SMILES, endpoint definitions, reference data | Compound-level endpoint profiles and risk tiers |
| Absorption & developability | Property models, pKa/logD analysis, permeability QSPR | Structures, pH/assay context, available measurements | Solubility–permeability trade-offs and test priorities |
| Metabolism & DDI | CYP models, site-of-metabolism prediction, static DDI analysis | Structures, CYP data, exposure assumptions | Isoform liabilities, metabolic soft spots, DDI hypotheses |
| Safety liabilities | Endpoint-specific ML/QSAR, chemogenomics, structural analysis | Structures, target/safety context, internal assay data when available | Risk ranking, confidence context, counter-screen plan |
| Exposure translation | PK modeling, PBPK, sensitivity and uncertainty analysis | Physicochemical, ADME, formulation, preclinical/clinical PK data | Exposure scenarios, dose/population hypotheses, data-gap priorities |
A staged workflow keeps screening efficient while reserving deeper modeling and expert review for the questions that materially affect the program.
Clarify modality, stage, route, endpoints, comparison criteria, and intended use.
Audit structures, assay data, endpoint definitions, metadata, and data gaps.
Apply endpoint-specific QSAR, ML, structural, PK, or integrated methods.
Review applicability, model agreement, supporting evidence, and uncertainty.
Connect cross-endpoint liabilities to candidate selection and next-step experiments.
Deliver the technical package, optional expert review, and post-delivery discussion.
Deliverables are configured to the project scope, from a focused endpoint screen to an integrated expert-reviewed ADMET assessment.
Endpoint-level predictions, model context, applicability or confidence notes, and major liability flags for the selected panel.
Side-by-side candidate comparison that preserves endpoint-level evidence instead of hiding critical liabilities inside a single composite score.
Scientific interpretation of key findings, conflicting signals, uncertainty, and implications for candidate selection or optimization.
Prioritized redesign hypotheses, confirmatory assays, controls, and additional measurements needed to resolve material uncertainty.
Where requested, structured methods, evidence, assumptions, limitations, and supplementary technical documentation suitable for incorporation into regulatory workflows.
For eligible projects, expert toxicology review and a signed assessment report can be included within the agreed scope.
ADMET findings often generate new questions. Post-delivery support helps your team interpret the evidence and decide what should happen next.
Discuss the major ADMET findings, risk drivers, assumptions, and uncertainty with the scientific team.
Clarify endpoint definitions, methods, model outputs, conflicting predictions, and report contents.
Plan additional computational analyses, confirmatory experiments, or deeper specialist modules as the program evolves.
The exact support period and activities should be defined in the project scope or quotation.
Start with the information you already trust. Missing measurements can be treated as explicit data gaps rather than silently filled with assumptions.
Scope, endpoint selection, confidence, and intended use determine the right level of analysis.
Yes. A project can focus on a single liability or combine multiple endpoints into an integrated panel. The scope should be driven by the development question and available evidence.
Yes. Projects can include scientific interpretation of endpoint-level findings, model confidence, applicability, conflicting evidence, and recommended follow-up actions.
For eligible projects, toxicology expert review and a signed assessment report can be included when requested and agreed in the project scope.
Regulatory-support packages can organize computational methods, evidence, assumptions, uncertainty, limitations, and expert interpretation for incorporation into development or submission workflows. Formal regulatory requirements and acceptance depend on the specific endpoint, jurisdiction, and intended use.
Model disagreement should be reported rather than averaged away. We examine chemical-space applicability, endpoint definitions, nearest evidence, and available experimental data, then identify the measurement most likely to resolve the uncertainty.
Yes. Existing measurements can be used for interpretation, calibration, comparison, or model qualification depending on data quality and scope.
Post-delivery scientific support can include report walkthroughs, technical Q&A, interpretation of new evidence, and planning of follow-up computational or experimental work as defined in the project scope.
Share your structures, available data, development stage, and the decision your team needs to make. We can define a focused assessment that separates essential endpoints from optional deeper analysis.
Computational predictions support research and development decisions and do not replace fit-for-purpose experimental studies or guarantee regulatory acceptance.
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