Cancer, Hypoxia, and MetabolismDiet, Metabolism, and DiseaseAmoebic Infections and Treatments

Angelica Beatriz Condori Mamani, Anthony Brayan Rivera Prado, Kelly Geraldine Yparraguirre Salcedo, Luis Lozano, Vicente Freddy Chambilla Quispe, C. R. Ramírez Atencio

2026.1.27Applied Microbiology (Switzerland)

DOI: 10.3390/applmicrobiol6020023

tlooto Summary

The study highlights the potential of integrating metabolic and computational approaches to identify next-generation therapeutics against giardiasis by targeting fructose-1,6-bisphosphate aldolase, a key glycolytic enzyme of the parasite through structure-based virtual screening.

Abstract

Giardiasis, caused by the protozoan parasite Giardia lamblia, remains a prevalent intestinal infection worldwide and a growing concern due to increasing resistance to nitroimidazole drugs. This study proposes an alternative therapeutic strategy by targeting fructose-1,6-bisphosphate aldolase (FBPA), a key glycolytic enzyme of the parasite, through structure-based virtual screening. A curated library of microbiome-derived metabolites was computationally evaluated and compared with clinically used antigiardial drugs. Several indole-based compounds exhibited favorable binding affinities and stable interactions within the catalytic pocket of FBPA. These findings suggest that microbiome metabolites could serve as promising scaffolds for the rational design of new antiparasitic agents. Overall, the study highlights the potential of integrating metabolic and computational approaches to identify next-generation therapeutics against giardiasis.

Citation format

MAMANI, Angelica Beatriz Condori, et al. Microbiome indoles dock at the TYR61–GLU67 hotspot of giardia lamblia FBPA: Evidence from docking, rescoring, and contact mapping. Applied Microbiology (Switzerland), 2026, 6(2): 23.