GlycoBond X enables isomer-resolved milk oligosaccharide glycomics and reveals evolutionary divergence across four mammalian species

Milk oligosaccharides (MOs) are essential for the development of mammalian offspring, yet their fine-scale structural evolutionary divergence remains unelucidated, largely due to isomeric complexity and the limitations of analytical methods. Here, we present GlycoBond X, an online platform that couples high-resolution separation with parallel structural characterization of glycan isomers through multi-stage chemical derivatization and RP-HPLC-MS/MS. By applying this strategy to four evolutionarily distinct mammals, we uncovered a conserved transition from acidic MO dominance (>75% in mouse and tree shrew) to predominantly fucosylated neutral MOs (>62% in macaque and human). GlycoBond X unveiled unprecedented structural diversity, including 22 unique fucosylation motifs and 66 previously undescribed human MOs. Notably, tree shrew MOs exhibited human-like structures and shared over 69% FUT2 sequence homology with primates. This study established a high-throughput, high-sensitivity platform, elucidated the adaptive structural evolution of oligosaccharides via evolutionary glycomics, and provided a foundation for exploring their biosynthetic pathways.

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Publication Details

Journal
Cell Reports
Published
2026-06-18
DOI
https://doi.org/10.1016/j.celrep.2026.117571
Primary Topic
Infant Nutrition and Health
Type
article
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article

GlycoBond X enables isomer-resolved milk oligosaccharide glycomics and reveals evolutionary divergence across four mammalian species

Peiyun Zhong, Jiangbo Fan, Wen Xie, Tianjiao Han et al.
Cell Reports
Infant Nutrition and Health
article

GlycoBond X enables isomer-resolved milk oligosaccharide glycomics and reveals evolutionary divergence across four mammalian species

Peiyun Zhong, Jiangbo Fan, Wen Xie, Tianjiao Han, Zhongfu Wang, Yuxia Liu, Lihan Jian, Xiaoxiao Guo, Yuyang Zhang, Linjuan Huang, Yu Lu, Xiaoqin Wang, Cheng Li
article en

Abstract

Milk oligosaccharides (MOs) are essential for the development of mammalian offspring, yet their fine-scale structural evolutionary divergence remains unelucidated, largely due to isomeric complexity and the limitations of analytical methods. Here, we present GlycoBond X, an online platform that couples high-resolution separation with parallel structural characterization of glycan isomers through multi-stage chemical derivatization and RP-HPLC-MS/MS. By applying this strategy to four evolutionarily distinct mammals, we uncovered a conserved transition from acidic MO dominance (>75% in mouse and tree shrew) to predominantly fucosylated neutral MOs (>62% in macaque and human). GlycoBond X unveiled unprecedented structural diversity, including 22 unique fucosylation motifs and 66 previously undescribed human MOs. Notably, tree shrew MOs exhibited human-like structures and shared over 69% FUT2 sequence homology with primates. This study established a high-throughput, high-sensitivity platform, elucidated the adaptive structural evolution of oligosaccharides via evolutionary glycomics, and provided a foundation for exploring their biosynthetic pathways.

Cell ReportsVol. 45(7)
Northwest University (CN), Second Affiliated Hospital of Xi'an Jiaotong University (CN)
Openalex Percentile: Top 8%
Infant Nutrition and Health
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