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ADC Payload Selector by Turbine.AI

In silico payload selection and ADC optimization using AI-driven modeling across 1,400+ cancer cell lines.

Software by Turbine.AI
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Overview

The ADC Payload Selector by Turbine is an AI-powered virtual biology platform designed to maximize the probability of success for antibody-drug conjugate (ADC) programs. Built for oncology drug developers and researchers, it enables teams to simulate biological experiments in silico, reducing reliance on costly and time-consuming wet lab work. The platform helps scientists select the most promising payloads, identify responsive patient populations, and understand resistance mechanisms — all before committing to clinical or preclinical investment.

Turbine's ADC Payload Selector addresses three core challenges in ADC development: selecting cancer sub-indications or molecular biomarkers predictive of payload sensitivity, identifying payloads or payload combinations with the highest chance of efficacy in heterogeneous, biomarker-positive model populations, and understanding and addressing the mechanisms driving resistance in the clinic.

Core Platform Capabilities

  • Select cancer sub-indications or molecular biomarkers predictive of payload and payload combination sensitivity
  • Identify payloads or payload combinations with the highest likelihood of efficacy across heterogeneous, biomarker-positive model populations
  • Understand and address mechanisms driving resistance observed in the clinic
  • Design dual-payload ADCs rationally rather than through trial-and-error approaches
  • Identify predictive biomarkers early and link payload response to mechanistic drivers of resistance

vLab Core — Simulations on Public Data

  • Simulate experiments using public data harmonized and enhanced by Turbine
  • Access a library of over 1,400 oncology cell lines
  • Explore 112 drugs and drug-like molecules, including 18 payloads
  • Perform knockout (KO) alterations across 3,500+ genes
  • Utilize a robust interpretation toolkit for practical filtering and analysis of in silico results

vLab Custom — Proprietary Dataset Integration

  • Generate in silico predictions leveraging your own proprietary datasets combined with Turbine's expertise
  • Add your own sample library to the simulation environment
  • Incorporate your own drug or drug candidate into the platform
  • Access interpretation services to translate results into actionable insights
  • Leverage a virtual PDX and PDO library of approximately 400 samples
  • Generate wet lab perturbation data as needed
  • Validate key hypotheses through wet lab experiments

Validated Performance and Proof Points

  • Accurately predicts drug responses using limited data — compound responses with known mechanisms can be predicted at high accuracy across 1,400+ cancer cell lines, achieving a 0.75 Pearson correlation of unseen cell line responses
  • Correctly predicted the sensitivity order of subtypes for microtubule payloads and produced closely aligned rankings for TOP1 inhibitors, potentially guiding trial strategy and avoiding dead-end subtypes
  • Predicts GDSC2 Topo1i–PARPi synergy from training only on monotherapy data, enabling rational dual-payload ADC design
  • In silico pharmacology and biomarker screens suggested a viable patient selection hypothesis for Topo1 ADCs in NSCLC, pending preclinical validation

Turbine's Virtual Lab is available for ADC simulations and can be accessed via a live demo. The platform is supported by Turbine's business development and scientific teams, and is backed by ongoing financing and immunology partnerships that continue to advance its virtual biology capabilities.

Meta

Software types
Computational Engine
Deployment types
Cloud / SaaS
Industry verticals
PharmaBiotechAcademic / Research
Development stages
ClinicalPreclinical / Pre-MarketResearch & Discovery
Target users
Research ScientistBioinformatician / Computational ScientistMedicinal Chemist
Tags
Uses AI