Phenotype-based activity
Predict antiviral activity at the phenotype level from compound structures.
Predict antiviral activityAntiviral discovery · From phenotype to targets
DeepAVC brings phenotype-based prediction and compound–target interaction profiling together. Start with your compounds in SMILES format and choose the predictions that fit your research.
Three prediction modes · Batch input · Downloadable CSV results
Predict antiviral activity at the phenotype level from compound structures.
Predict antiviral activityExplore interactions with curated antiviral-related targets and their biological annotations.
Explore known targetsScreen across the full available target library. Supports up to 5 compounds per task.
Run all-target profilingKang, B., Zhao, Y., Chen, X. et al. Bridging antiviral drug discovery with a large language model-powered framework. Commun Biol (2026).
Read the publication · About the platformNew prediction
Enter SMILES and select the modes you need. You can combine modes in a single task.
Resources
Download the pre-trained prediction models, feature extraction models, and source archive for local research.
Model checkpoint
Model checkpoint
Model checkpoint
Model checkpoint
Model checkpoint
Model checkpoint
Model checkpoint
Model checkpoint
Source archive
Documentation
Get started, understand the three prediction modes, and explore example outputs.
Each task supports up to 100 compounds, or 5 when all-target profiling is selected. Each compound is limited to 4096 SMILES characters and 256 atoms.
Start a predictionA score of 0.8 does not mean an 80% chance of experimental success. These are model outputs, not calibrated probabilities, measured affinity or potency values (such as Kd, Ki or IC50), or experimental activity measurements. Compare scores within the same model; experimental validation is required.
DeepPAVC retains the original display bands: Strong (green) for 0.8–1, Moderate (gold) for 0.5–<0.8, and Weak (gray) for 0–<0.5. These are visual aids, not experimentally validated activity classes or recommended decision thresholds. They do not apply to DeepTAVC or CADTI.
Tables show four decimal places, but colors use the unrounded score. Hover over a score or download its CSV to inspect the underlying value. Historical pChEMBL results use a different scale and must not be interpreted using these bands.
Each model's output is transformed with a sigmoid function to produce a score between 0 and 1. Scores are not rescaled to the highest value in your job and do not have to sum to 1 across targets. Sorting and Top K filters change the display, not the underlying model scores.
Choose DeepPAVC to explore phenotype-level antiviral potential, DeepTAVC to investigate interactions with known antiviral-related targets, and CADTI for broader target profiling. These modes can be used independently or together.
Current results interface, captured from completed demonstration jobs. These screenshots illustrate the layout and controls, not model performance. Open an image to view the full-size screenshot in a new tab.
Open full-size screenshot
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Viral infections continue to pose major threats to global health, underscoring the need for effective antiviral therapeutics. Antiviral drug discovery traditionally follows two paradigms: phenotype-based drug discovery (PBDD) and target-based drug discovery (TBDD).
DeepAVC is a large language model-powered unified framework integrating DeepPAVC for PBDD and DeepTAVC for TBDD, enabling complementary antiviral compound prediction. The CADTI module supports large-scale compound–all-target interaction profiling.

Kang, B., Zhao, Y., Chen, X. et al. Bridging antiviral drug discovery with a large language model-powered framework. Commun Biol (2026). Read the publication.
Peking University Health Science Center