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  • Designing precision base editors through modular architectures and predictive modeling
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Scientific Poster

Designing precision base editors through modular architectures and predictive modeling

Designing base editors for therapeutic applications requires more than high editing efficiency. It demands precision, the ability to correct a target nucleotide without introducing unintended bystander edits at adjacent positions. Achieving this at scale, across thousands of pathogenic variant sequences, has historically required extensive empirical screening.

In this ASGCT 2026 poster, Revvity presents a scalable, data-driven approach to base editor design using the Pin-point™ modular platform, combining arrayed and pooled screening with machine learning-based predictive models to identify precision editors for therapeutic targets.

The work covers four interconnected areas:

  • Arrayed screening: Combinatorial assembly of Cas and deaminase modules to characterize editing profiles across diverse configurations (CBE and ABE)
  • Pooled screening: High-throughput evaluation of ~7,000 pathogenic variant target sequences from ClinVar using lentiviral sensor libraries
  • Predictive modeling: Machine learning models (gradient-boosted tree algorithm) trained on pooled screening data to predict editing outcomes, outperforming published models (ρ = 0.66–0.7)
  • Cas module comparison: Distinct editing profiles of SpCas9 vs. OpenCRISPR1-based modular editors, highlighting how Cas-deaminase interactions shape precision and efficiency

Key findings:

  • Therapeutic candidates identified by pooled screening of ~7,000 pathogenic variant sequences across 1,680 genes
  • ML models predict editing outcomes with performance within the range of comparable published models
  • Tuning the Cas:deaminase ratio can further optimize the balance between editing precision and efficiency
  • OpenCRISPR1 (AI-generated Cas9 ortholog by Profluent Bio) shows distinct editing profiles vs. SpCas9, expanding the design space for precision editors

Download the poster to explore the full screening workflow, predictive model performance, and therapeutic target validation data.

The Pin-point™ base editing platform technology is available for clinical or diagnostic study and commercialization under a commercial license from Revvity.

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Designing precision base editors through modular architectures and predictive modeling

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