We predict the target combinations that shut down escape routes in solid tumors, where 90% of cancer deaths occur.
The number of viable multi-target combinations far exceeds what any preclinical screen or clinical trial program can test one at a time.
Cell-line synergy metrics, HTS screens, and simplified model systems often miss the clinical context that determines patient benefit: resistance history, toxicity, line of therapy, biomarker context, and tumor evolution.
Most solid tumors adapt through redundant pathways, lineage plasticity, immune evasion, and resistance rewiring. Pharma needs a systematic way to identify combinations before committing to expensive trials.

Clinical trial and real-world outcomes, integrated with mechanistic and biological evidence.
Score combinations of 2+ targets by predicted clinical benefit, and surface the patient subgroups most likely to respond.
Outputs are confirmatory studies before a program advances.

Mi earned his PhD at Heidelberg University under Prof. Julio Saez-Rodriguez in cancer systems biology, publishing in Nature Biotechnology and Cell Systems. He led the NCI-CPTAC DREAM Proteogenomics Challenge, coordinating 100+ scientists globally, then joined Stanford under Prof. Ash Alizadeh to build a computational reverse translation platform.




15+ years scaling biotech from pre-seed through IPO. Founding team member at Aligos Therapeutics, built all non-scientific functions, and led drafting of the S-1 business section ahead of the $150M IPO. Previously VP of Operations at Gordian Biotechnology. Earlier career in life sciences investment banking and strategy consulting.





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