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One disease map, three engines.

Juva turns disease biology into ranked candidates, then lets human cells judge them. Here is what each engine does and where it stands today.

Footage: liquid-handling robot, illustrative

Therapy Design AI

Ranks combinations of approved drugs against a disease signature.

Juva reads the gene-expression signature of a disease, maps the pathways it depends on, and searches combinations of approved drugs that hit several of those pathways at once. Approved drugs carry years of safety data, so a good combination has a shorter road to the clinic than a new molecule.

  1. Decomposesplit the signature into pathway dependencies
  2. Searchcombinations of approved drugs that cover them
  3. Rankpredicted cancer-cell death, healthy-cell safety, known dosing

Footage: automated dosing into a well plate, illustrative

Vaccine Design AI

Designs peptide and mRNA vaccine candidates for cancer and aging targets.

The same disease map points at proteins the immune system could learn to hunt. Juva scores each peptide candidate on four axes before anyone synthesizes it, then drops the ones that look too much like your own tissue.

  1. Immune responsepredicted MHC binding and T-cell activation
  2. Selectivitydistance from the human self-peptidome
  3. Stabilityhalf-life and aggregation risk
  4. Manufacturabilitysolid-phase synthesis yield

Footage: DNA model, rendered, illustrative

Validation Loop

Tests predictions on cancer cells and healthy cells side by side.

A candidate that kills cancer cells and healthy cells alike is poison. Juva will run every top-ranked candidate on both in the same assay, record the gap between them, and feed the readout back into the model before the next batch.

  1. Cancer armcell death over seven days
  2. Healthy armthe same compounds on healthy human cells
  3. Feedbackeach readout updates the ranking model

Footage: microscope objective turret, illustrative

Why combinations of approved drugs.

  1. More pathways covered

    Tumors and aging tissue lean on several pathways at once. Two or three drugs can block routes one drug leaves open.

  2. Known safety

    Approved drugs arrive with dosing and side-effect records, which shortens the road to a trial.

  3. Harder to escape

    Cells that adapt around one drug meet a second block. Resistance takes longer to appear.

The loop.

  1. Read

    Map a disease from its gene-expression signature.

    Which genes run hot or cold in sick tissue, and which pathways those genes feed.

  2. Rank

    Score thousands of drug combinations in silico.

    Coverage of the pathways, predicted selectivity, and dosing we already know is safe.

  3. Test

    Put the top candidates on human cells.

    Cancer cells and healthy cells, same compounds, same conditions, side by side.

  4. Learn

    Advance the winners. Retrain on every result.

    Failures carry as much signal as hits. Each round makes the next ranking sharper.

Public data we plan to build on first.

Open datasets let anyone check the first rankings. Our own lab data joins once the first assays run.

DepMap
Genetic dependencies measured across more than a thousand cancer cell lines.
GDSC
Drug sensitivity screens that link compounds to cell-line response.
LINCS L1000
Gene-expression changes after cells meet thousands of compounds.
GTEx
Expression in healthy human tissues, the baseline for selectivity.