A DNA tetrahedron-inspired magnetic hybrid with regular distribution of trypsin for ultra-fast digestion of proteins and glycoproteomics analysis

In large-scale glycoproteomics studies, reducing the experimental duration and enhancing digestion efficiency are crucial. In this work, a magnetic nanomaterial featuring a surface rich in hydrophilic groups and uniformly distributed trypsin (Fe<sub>3</sub>O<sub>4</sub>@DOPA/PEI@Au@DNA TET-trypsin) was developed for efficient digestion of proteins and specific enrichment of glycopeptides. The material surface exhibits a regular distribution of trypsin coupled with abundant hydrophilic groups. Thus, the material can demonstrate excellent performance in experimental studies related to glycoproteomics. Fe<sub>3</sub>O<sub>4</sub>@DOPA/PEI@Au@DNA TET-trypsin showed an excellent limit of detection (0.001 amol·μL<sup>-1</sup>) and high selectivity for glycopeptides (BSA : HRP = 5000 : 1) in a short reaction time, and it showed good performance in the processing of practical samples. Gene Ontology (GO) analysis suggests that complement activation, extracellular space, antioxidant activity and complement binding may be associated with tuberculosis. These analytical results provide new insights for determining and clarifying the pathogenesis and pathology related to tuberculosis.

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Publication Details

Journal
The Analyst
Published
2025-01-01
DOI
https://doi.org/10.1039/d5an00357a
Primary Topic
Gene expression and cancer classification
Type
article
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article

A DNA tetrahedron-inspired magnetic hybrid with regular distribution of trypsin for ultra-fast digestion of proteins and glycoproteomics analysis

Yinghua Yan, Chuan‐Fan Ding, Xiang Sheng, Danni Wang et al.
The Analyst
Gene expression and cancer classification
article

A DNA tetrahedron-inspired magnetic hybrid with regular distribution of trypsin for ultra-fast digestion of proteins and glycoproteomics analysis

Yinghua Yan, Chuan‐Fan Ding, Xiang Sheng, Danni Wang, Jianghua Lai
article en

Abstract

In large-scale glycoproteomics studies, reducing the experimental duration and enhancing digestion efficiency are crucial. In this work, a magnetic nanomaterial featuring a surface rich in hydrophilic groups and uniformly distributed trypsin (Fe<sub>3</sub>O<sub>4</sub>@DOPA/PEI@Au@DNA TET-trypsin) was developed for efficient digestion of proteins and specific enrichment of glycopeptides. The material surface exhibits a regular distribution of trypsin coupled with abundant hydrophilic groups. Thus, the material can demonstrate excellent performance in experimental studies related to glycoproteomics. Fe<sub>3</sub>O<sub>4</sub>@DOPA/PEI@Au@DNA TET-trypsin showed an excellent limit of detection (0.001 amol·μL<sup>-1</sup>) and high selectivity for glycopeptides (BSA : HRP = 5000 : 1) in a short reaction time, and it showed good performance in the processing of practical samples. Gene Ontology (GO) analysis suggests that complement activation, extracellular space, antioxidant activity and complement binding may be associated with tuberculosis. These analytical results provide new insights for determining and clarifying the pathogenesis and pathology related to tuberculosis.

The AnalystVol. 150(13)
Ningbo University (CN)
Openalex Percentile: Top 89%
Gene expression and cancer classification
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A DNA tetrahedron-inspired magnetic hybrid with regular distribution of trypsin for ultra-fast digestion of proteins and glycoproteomics analysis — Yinghua Yan, Chuan‐Fan Ding, et al. · The Analyst (2025) | TGRS Research Map | TGRS