Nature-inspired oligosaccharides: plant and algal routes to human milk functionality.
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| Natura: | Artículo científico |
| Lingua: | en |
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Critical reviews in food science and nutrition
2026
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| _version_ | 1868266102709026817 |
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| author | Cheong, Kit-Leong Chen, Wenjie Li, Jiajing Zhong, Hai-Jing Wang, Dongju Zhong, Saiyi |
| author_facet | Cheong, Kit-Leong Chen, Wenjie Li, Jiajing Zhong, Hai-Jing Wang, Dongju Zhong, Saiyi Cheong, Kit-Leong Chen, Wenjie Li, Jiajing Zhong, Hai-Jing Wang, Dongju Zhong, Saiyi |
| collection | PubMed - marine biology |
| contents | Nature-inspired oligosaccharides: plant and algal routes to human milk functionality. Cheong, Kit-Leong Chen, Wenjie Li, Jiajing Zhong, Hai-Jing Wang, Dongju Zhong, Saiyi Human milk oligosaccharides (HMO) shape early-life health by guiding microbiome assembly, fortifying the mucosal barrier, calibrating immune responses by enhancing secretory IgA at mucosal surfaces, blocking pathogen adhesion, and influencing the microbiota-gut-brain axis. Direct deployment of structurally diverse HMO at population scale remains constrained by manufacturing complexity and cost. This review examines "nature-inspired" oligosaccharides derived from plant and marine algal as affordable, scalable HMO mimetics, mapping chemistry to biology across five functional domains: microbiota architecture & metabolism, inhibition of pathogen adhesion via glycan decoy mechanisms, immune education, mucosal barrier enhancement and gut-brain regulation. We synthesize and critically appraise evidence on plant-derived fructo-, xylo-, and mannan-oligosaccharides, as well as on red-algal agaro-oligosaccharides and brown-algal fuco-oligosaccharides. Although these glycans do not fully replicate individual HMO structures, they can exhibit convergent mechanisms: selective fueling of saccharolytic consortia to produce functional metabolites (SCFAs), multivalent fucose-rich decoying of viral/bacterial adhesins, dendritic-cell/T- and B-cell tuning, epithelial junction and mucus programs, and neuroactive/metabolite signaling along the gut-brain axis. Framed as functional mimicry rather than strict structural emulation, plant and marine oligosaccharides emerge as promising "glycobiotics" to deliver HMO-like benefits across the lifespan, with opportunities for precision, personalized, and sustainable formulations guided by multi-omics and glycoinformatics. |
| format | Artículo científico |
| id | pubmed_41489355 |
| institution | PubMed |
| language | en |
| publishDate | 2026 |
| publisher | Critical reviews in food science and nutrition |
| record_format | pubmed |
| spellingShingle | Nature-inspired oligosaccharides: plant and algal routes to human milk functionality. Cheong, Kit-Leong Chen, Wenjie Li, Jiajing Zhong, Hai-Jing Wang, Dongju Zhong, Saiyi Nature-inspired oligosaccharides: plant and algal routes to human milk functionality. Cheong, Kit-Leong Chen, Wenjie Li, Jiajing Zhong, Hai-Jing Wang, Dongju Zhong, Saiyi Human milk oligosaccharides (HMO) shape early-life health by guiding microbiome assembly, fortifying the mucosal barrier, calibrating immune responses by enhancing secretory IgA at mucosal surfaces, blocking pathogen adhesion, and influencing the microbiota-gut-brain axis. Direct deployment of structurally diverse HMO at population scale remains constrained by manufacturing complexity and cost. This review examines "nature-inspired" oligosaccharides derived from plant and marine algal as affordable, scalable HMO mimetics, mapping chemistry to biology across five functional domains: microbiota architecture & metabolism, inhibition of pathogen adhesion via glycan decoy mechanisms, immune education, mucosal barrier enhancement and gut-brain regulation. We synthesize and critically appraise evidence on plant-derived fructo-, xylo-, and mannan-oligosaccharides, as well as on red-algal agaro-oligosaccharides and brown-algal fuco-oligosaccharides. Although these glycans do not fully replicate individual HMO structures, they can exhibit convergent mechanisms: selective fueling of saccharolytic consortia to produce functional metabolites (SCFAs), multivalent fucose-rich decoying of viral/bacterial adhesins, dendritic-cell/T- and B-cell tuning, epithelial junction and mucus programs, and neuroactive/metabolite signaling along the gut-brain axis. Framed as functional mimicry rather than strict structural emulation, plant and marine oligosaccharides emerge as promising "glycobiotics" to deliver HMO-like benefits across the lifespan, with opportunities for precision, personalized, and sustainable formulations guided by multi-omics and glycoinformatics. |
| title | Nature-inspired oligosaccharides: plant and algal routes to human milk functionality. |
| url | https://pubmed.ncbi.nlm.nih.gov/41489355/ |