AI-designed proteins that grip the floppy parts of cancer drivers
Many cancer proteins have shapeless, flexible regions that drugs cannot hold on to. New protein design software may be able to invent binders that clamp them.
Deep-learning protein design (RFdiffusion, AlphaFold-based hallucination) has produced high-affinity binders to structured targets and, increasingly, to peptides and disordered segments. Intrinsically disordered regions of MYC, fusion oncoproteins and transcription factors are the classic undruggable surfaces. Designed binders could serve as degradation handles, intrabodies, or CAR and bispecific targeting domains rather than as drugs themselves.
- The undruggable drivers · The proteins that drive most cancers, such as MYC, mutant p53 and most RAS variants, still have no good drug.
- AI that is built but not validated or deployed · Thousands of cancer AI models are published; a handful are in clinical use, and fewer have shown they help patients.
Pages like this
not linked directly; found by shared links- TechnologyAlphaFold 3
- TechnologyDe novo designed protein binders
Shares Isomorphic Labs, Generate:Biomedicines, AI-driven drug & target discovery.
- IdeaMacrocyclic peptides to cover protein surfaces that pills cannot
- IdeaExtend p53 reactivation beyond the Y220C mutation
Shares AI-driven drug & target discovery, The undruggable drivers.
- TechnologyADC payload neutralisers
Shares Generate:Biomedicines, AI-driven drug & target discovery.
- Key paperAlphaFold 2: predicting protein structures to near-experimental accuracy
Shares AI-driven drug & target discovery, AI that is built but not validated or deployed, The undruggable drivers.
- IdeaScore every model system on how well it predicted real trial results
Shares AI-driven drug & target discovery, AI that is built but not validated or deployed.
- IdeaForecast the next resistance mutation like the weather
Shares AI-driven drug & target discovery, AI that is built but not validated or deployed.