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2026-07-07 PubMed

Food-derived antimicrobial peptides emerge as sustainable preservatives, with AI accelerating their discovery and rational design.

Food-derived antimicrobial peptides: advances in sources, mechanisms, structure-activity relationships, and AI-assisted design.

Background

The global challenges of food spoilage and escalating antimicrobial resistance (AMR) necessitate the urgent development of novel, safe, and sustainable preservation strategies. Traditional chemical preservatives often raise consumer concerns, while conventional antibiotics face diminishing efficacy. Food-derived antimicrobial peptides (AMPs) present a compelling alternative due to their natural origin, broad-spectrum activity, and significantly lower propensity for inducing microbial resistance. These peptides act through various mechanisms, making them attractive candidates to address critical gaps in both food safety and public health.

Study Design

This comprehensive review systematically analyzed existing literature on food-derived antimicrobial peptides (AMPs), synthesizing information across their diverse sources, preparation methods, and mechanisms of action. It critically examined their complex structure-activity relationships (SARs), identifying key structural determinants influencing efficacy. Furthermore, the review highlighted the transformative role of artificial intelligence (AI) in overcoming traditional research and development limitations. The authors integrated findings on AI-driven progress in virtual screening, activity prediction, de novo design, and mechanistic interpretation to provide a holistic view of AMPs' potential as next-generation intelligent preservatives and functional ingredients.

Results

The review elucidated that food-derived AMPs exert their antimicrobial effects through multiple mechanisms, including direct membrane disruption, interference with intracellular functions, immunomodulation, and biofilm inhibition. Their activity is critically governed by structural determinants such as net charge, hydrophobicity, amphipathicity, and the presence of specific amino acid residues, which collectively define their SARs. A significant finding was the accelerating impact of artificial intelligence (AI) in the AMP discovery pipeline. AI tools facilitate rapid virtual screening of vast peptide libraries, accurately predicting activity, and enabling de novo design of novel peptides with enhanced properties. AI also aids in deciphering complex mechanistic interpretations of AMP action, streamlining the development process.

Food-derived AMPs represent a promising, safe, and sustainable class of preservatives, acting through multiple mechanisms and offering a low propensity for inducing resistance, with AI significantly accelerating their discovery and rational design.

Key Findings

  • Food-derived AMPs offer a natural, sustainable solution to food spoilage and antimicrobial resistance.
  • AMPs act via diverse mechanisms: membrane disruption, intracellular interference, immunomodulation, and biofilm inhibition.
  • Key structural determinants (net charge, hydrophobicity, amphipathicity) govern AMP structure-activity relationships.
  • Artificial intelligence (AI) significantly accelerates AMP discovery, prediction, and de novo design.
  • AI integration with experimental methods provides a powerful framework for developing next-generation preservatives.

Why It Matters

The integration of AI significantly accelerates the discovery and rational design of novel antimicrobial peptides, offering a powerful framework for developing next-generation intelligent preservatives. This shift towards natural, multifunctional, and resistance-resistant compounds could revolutionize food safety and health, providing sustainable alternatives to synthetic additives and conventional antibiotics. For biohackers and researchers, this highlights the potential for designing highly specific and potent peptides by understanding their SARs, potentially leading to more effective and safer compounds for various applications beyond food preservation, including therapeutic uses. The synergy of AI and experimental methods promises to bring more effective AMPs to market faster, enhancing both food quality and public health outcomes.


food-derived antimicrobial-peptides antimicrobial-resistance food-safety artificial-intelligence review
Source: pubmed:42409550 · Ingested 2026-07-07 · Digest: gemini-2.5-flash