The anchor and the architect: Merging gene drive, membrane tethering and generative AI for next‐generation vector control

The recent success of gene drive mosquitoes suppressing malaria signals a new era in vector control. Yet, reliance on secreted, natural peptides poses risks of instability, host toxicity and resistance evolution. We propose synthesizing two transformative technologies to overcome these limits: generative AI for de novo peptide design and precision membrane tethering. Proof-of-concept work shows tethering antimicrobial peptides to the gut epithelium boosts potency 100-fold. Converging these approaches enables engineering of 'smart' immune barriers-AI-designed peptides optimized for stability and specificity, anchored to create impassable surfaces for pathogens. This 't-AMP' platform potentially offers a durable, fitter and broadly applicable strategy, extending rational vector engineering from mosquitoes to ticks and sandflies, revolutionizing control of multiple neglected diseases.

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Publication Details

Journal
Insect Molecular Biology
Published
2026-09-30
DOI
https://doi.org/10.1111/imb.70064
Primary Topic
Invertebrate Immune Response Mechanisms
Type
article
Field-Weighted Citation Impact
0.00
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article

The anchor and the architect: Merging gene drive, membrane tethering and generative AI for next‐generation vector control

Jeong Kyu Bang, Woo‐Jae Kim, Yanan Wei, Yanying Sun
Insect Molecular Biology
Invertebrate Immune Response Mechanisms
article

The anchor and the architect: Merging gene drive, membrane tethering and generative AI for next‐generation vector control

Jeong Kyu Bang, Woo‐Jae Kim, Yanan Wei, Yanying Sun
article en

Abstract

The recent success of gene drive mosquitoes suppressing malaria signals a new era in vector control. Yet, reliance on secreted, natural peptides poses risks of instability, host toxicity and resistance evolution. We propose synthesizing two transformative technologies to overcome these limits: generative AI for de novo peptide design and precision membrane tethering. Proof-of-concept work shows tethering antimicrobial peptides to the gut epithelium boosts potency 100-fold. Converging these approaches enables engineering of 'smart' immune barriers-AI-designed peptides optimized for stability and specificity, anchored to create impassable surfaces for pathogens. This 't-AMP' platform potentially offers a durable, fitter and broadly applicable strategy, extending rational vector engineering from mosquitoes to ticks and sandflies, revolutionizing control of multiple neglected diseases.

Insect Molecular Biology
Harbin Institute of Technology (CN), Korea Basic Science Institute (KR)
Openalex Percentile: Top 47%
Invertebrate Immune Response Mechanisms
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The anchor and the architect: Merging gene drive, membrane tethering and generative AI for next‐generation vector control — Jeong Kyu Bang, Woo‐Jae Kim, et al. · Insect Molecular Biology (2026) | TGRS Research Map | TGRS