AI-Accelerated Antibody Engineering

AI-Driven
Antibody Affinity
Maturation

We enhance antibody binding affinity through AI-guided mutation prediction and optimization. Enginoma combines deep learning CDR analysis with high-throughput screening to deliver antibodies with improved affinity.

Antibody Affinity Maturation

Affinity Specificity Developability
CDR Optimization
Paratope Engineering
Binding Kinetics

Why AI-Driven Antibody Affinity Maturation?

Traditional affinity maturation requires screening thousands of variants through multiple rounds. Our AI platform dramatically accelerates this process by predicting beneficial CDR mutations before any wet lab work begins.

Faster Optimization

AI-guided CDR optimization reduces screening libraries significantly. Our platform delivers high-affinity antibodies efficiently from sequence to validated candidates.

Beyond Natural Antibodies

Access affinity levels and specificities that natural antibodies have not achieved. Engineer antibodies for challenging targets with improved therapeutic potential.

Therapeutic-Ready Antibodies

Engineer for developability, expression yield, and stability. Our designs meet CMC requirements for therapeutic development, not just binding assays.

Reduced Development Time

Fewer screening rounds mean faster development and lower costs. Our AI platform accelerates the antibody optimization workflow.

Core Technology

Our Antibody Optimization Pipeline

From sequence analysis to affinity validation, our platform covers the full antibody optimization workflow.

Structure-Guided Optimization

We analyze antibody structures using Enginoma Structure, homology modeling, and experimental data to identify CDR loops, paratope residues, and developability hotspots.

Capabilities
  • CDR loop modeling and paratope mapping
  • Antigen-antibody interface analysis
  • Developability hotspot identification
  • Humanization and immunogenicity prediction

AI CDR Optimization

Our antibody-specific models trained on affinity datasets predict beneficial CDR mutations. We rank variants by predicted affinity, specificity, and developability.

Capabilities
  • CDR loop optimization
  • Framework stabilization
  • Affinity-specificity tradeoff prediction
  • Germline-guided optimization

Expression & Validation

We express variants in mammalian HEK293 or CHO cells and characterize binding affinity (KD), specificity, and developability using BLI, SPR, and ELISA.

Capabilities
  • BLI/SPR affinity measurement
  • Thermostability assessment
  • Specificity and cross-reactivity testing
  • Expression yield optimization
Design Capabilities

What We Optimize

Comprehensive antibody optimization for therapeutic applications

Binding Affinity Enhancement

Increase binding affinity and therapeutic efficacy

We identify affinity-limiting residues in CDR loops and engineer mutations to improve binding. Paratope optimization and loop engineering deliver significant improvements in KD.

KD improvementKon optimizationCDR engineeringParatope design

Specificity Engineering

Engineer target specificity and cross-reactivity

Optimize antibody specificity for target antigens while minimizing cross-reactivity. We engineer antibodies for challenging targets including GPCRs, ion channels, and protein-protein interfaces.

Target specificityCross-reactivityEpitope selectionBispecific design

Binding Kinetics Engineering

Improve developability and CMC properties

Optimize for expression yield, stability, and reduced immunogenicity. Our designs meet CMC requirements with improved solubility, reduced aggregation, and enhanced manufacturability.

Expression yieldSolubilityAggregationImmunogenicity

Format Engineering

Optimize antibody format and valency

Engineer Fab, scFv, VHH, and bispecific formats for specific applications. Optimize valency, half-life, and tissue penetration for therapeutic efficacy.

IgG formatscFv/FabVHH/NanobodyBispecific
Our Process

From Sequence to High-Affinity Antibody

Integrated computational optimization followed by experimental validation at each stage

1

Target Analysis

We analyze your antibody sequence and structure, define target affinity goals, and establish screening assays and developability criteria.

2

Variant Prediction

Our AI models predict beneficial CDR mutations and generate focused libraries of 50-200 variants, ranked by predicted affinity improvement.

3

Expression & Screening

Variants are expressed in HEK293 or CHO cells and screened for affinity, specificity, and developability using BLI/SPR and ELISA.

4

Characterization & Delivery

Lead variants undergo detailed kinetic characterization (KD, kon, koff), developability assessment, and delivery of sequence data plus binding report.

Applications

Research and Commercial Applications

Optimized antibodies are driving breakthroughs across therapeutic and diagnostic fields

Monoclonal Antibody Therapeutics

Enhance efficacy of mAb therapeutics through improved target binding affinity and specificity, reducing required dosing and improving patient outcomes.

OncologyImmunology

Bispecific Antibody Development

Optimize dual-targeting antibodies by improving affinity at both binding sites while maintaining favorable developability properties.

T-Cell EngagersDual-Targeting

Antibody-Drug Conjugates

Improve ADC targeting efficiency and internalization rates through affinity optimization, enhancing payload delivery to target cells.

Targeted DeliveryPayload Efficiency

Diagnostic Antibodies

Optimize detection antibodies for improved sensitivity and specificity in diagnostic assays, IHC, flow cytometry, and point-of-care testing.

IHC/ISHFlow Cytometry

Immune Checkpoint Inhibitors

Enhance checkpoint inhibitor binding to PD-1, PD-L1, CTLA-4 and emerging targets for improved immune activation against tumors.

PD-1/PD-L1CTLA-4

Rare Disease Therapeutics

Develop high-affinity antibodies against low-abundance targets or challenging epitopes for rare disease and orphan drug applications.

Orphan DrugsRare Diseases
References

Key Publications

Our pipeline builds on peer-reviewed methods published in leading journals

1

Raybould, M.I.J. et al. Five computational developability guidelines for therapeutic antibody design. PNAS 116, 4025-4030 (2019). https://doi.org/10.1073/pnas.1810576116

Computational guidelines for improving antibody developability.
3

Olsen, T.H. et al. AbLang: An antibody language model. Bioinformatics Advances 2, vbac046 (2022). https://doi.org/10.1093/bioadv/vbac046

Language model for antibody sequence analysis and optimization.
4

Mason, D.M. et al. Optimization of therapeutic antibodies by predicting antigen specificity from antibody sequence via deep learning. Nature Biomedical Engineering 5, 600-612 (2021). https://doi.org/10.1038/s41551-021-00699-9

Deep learning for therapeutic antibody optimization in mammalian cells.
5

Bennett, N.R. et al. Atomically accurate de novo design of single-domain antibodies. Nature 637, 339-347 (2025). https://doi.org/10.1038/s41586-025-09721-5

De novo antibody design with atomic accuracy.
FAQ

Common Questions

We optimize IgG, Fab, scFv, VHH (nanobodies), and bispecific formats. Our platform handles human, humanized, and murine antibody optimization for therapeutic and diagnostic applications.

We combine structure-guided design with AI mutation prediction. Our models predict beneficial CDR mutations, while our wet lab team validates variants through BLI/SPR to achieve improved binding affinity.

Yes. We optimize expression yield, solubility, stability, and immunogenicity. Our designs often achieve significant improvements in developability scores while maintaining or improving affinity.

Yes. We offer full antibody expression in mammalian cells, purification, and characterization. We can also assist with humanization, format conversion, and CMC development support.

Ready to Optimize Your Antibody?

Whether you need higher affinity, improved specificity, or better developability, our team can deliver optimized antibodies for your therapeutic or diagnostic application.