Mass spectrometry-based strategies for protein disulfide bond identification

The formation of disulfide bonds is critical for stabilizing protein structures and maintaining protein functions. It is important to understand the linkages between multiple cysteine residues within a protein. In this review, the analytical approaches using mass spectrometry (MS) for disulfide link...

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Main Authors: Tsai Pei Lun, Chen Sung-Fang, Huang Sheng Yu
Format: Article
Language:English
Published: De Gruyter 2013-11-01
Series:Reviews in Analytical Chemistry
Subjects:
Online Access:https://doi.org/10.1515/revac-2013-0011
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spelling doaj-1507952dfb554af592451cee6e6cc3fa2021-09-05T14:00:13ZengDe GruyterReviews in Analytical Chemistry0793-01352191-01892013-11-0132425726810.1515/revac-2013-0011Mass spectrometry-based strategies for protein disulfide bond identificationTsai Pei LunChen Sung-Fang0Huang Sheng Yu1Department of Chemistry, National Taiwan Normal University, No. 88, Sec. 4, Tingchow Rd, Taipei 116, TaiwanMithra Biotechnology Inc., 7F, No. 104, Sec. 1, Sintai 5th Rd., Sijhih Dist., New Taipei City 221, TaiwanThe formation of disulfide bonds is critical for stabilizing protein structures and maintaining protein functions. It is important to understand the linkages between multiple cysteine residues within a protein. In this review, the analytical approaches using mass spectrometry (MS) for disulfide linkage assignment are classified and discussed. Enzymatic digestion under appropriate conditions followed by various MS detection strategies remains the primary method for cysteine linkage analysis. In-source decay (ISD) and electron transfer dissociation (ETD) have been used to generate significant peptide signals that indicate the identities of peptides involved in disulfide bonds. In addition, chemical labeling and software algorithms were also developed to facilitate the automation of disulfide bond analysis. For proteins with complex disulfide structure, methods involving partial reduction coupled with differential alkylation were demonstrated to be useful. In the past two decades, MS has become one of the most valuable tools for protein disulfide bond analysis. It provides irreplaceable information including the peptide backbone sequences as well as the cysteine connection pattern when coupling with appropriate sample preparations. The related approaches with their unique features can be applied for different aims such as structural characterization or functional studies of proteins.https://doi.org/10.1515/revac-2013-0011disulfide bondmass spectrometryprotein pharmaceuticals
collection DOAJ
language English
format Article
sources DOAJ
author Tsai Pei Lun
Chen Sung-Fang
Huang Sheng Yu
spellingShingle Tsai Pei Lun
Chen Sung-Fang
Huang Sheng Yu
Mass spectrometry-based strategies for protein disulfide bond identification
Reviews in Analytical Chemistry
disulfide bond
mass spectrometry
protein pharmaceuticals
author_facet Tsai Pei Lun
Chen Sung-Fang
Huang Sheng Yu
author_sort Tsai Pei Lun
title Mass spectrometry-based strategies for protein disulfide bond identification
title_short Mass spectrometry-based strategies for protein disulfide bond identification
title_full Mass spectrometry-based strategies for protein disulfide bond identification
title_fullStr Mass spectrometry-based strategies for protein disulfide bond identification
title_full_unstemmed Mass spectrometry-based strategies for protein disulfide bond identification
title_sort mass spectrometry-based strategies for protein disulfide bond identification
publisher De Gruyter
series Reviews in Analytical Chemistry
issn 0793-0135
2191-0189
publishDate 2013-11-01
description The formation of disulfide bonds is critical for stabilizing protein structures and maintaining protein functions. It is important to understand the linkages between multiple cysteine residues within a protein. In this review, the analytical approaches using mass spectrometry (MS) for disulfide linkage assignment are classified and discussed. Enzymatic digestion under appropriate conditions followed by various MS detection strategies remains the primary method for cysteine linkage analysis. In-source decay (ISD) and electron transfer dissociation (ETD) have been used to generate significant peptide signals that indicate the identities of peptides involved in disulfide bonds. In addition, chemical labeling and software algorithms were also developed to facilitate the automation of disulfide bond analysis. For proteins with complex disulfide structure, methods involving partial reduction coupled with differential alkylation were demonstrated to be useful. In the past two decades, MS has become one of the most valuable tools for protein disulfide bond analysis. It provides irreplaceable information including the peptide backbone sequences as well as the cysteine connection pattern when coupling with appropriate sample preparations. The related approaches with their unique features can be applied for different aims such as structural characterization or functional studies of proteins.
topic disulfide bond
mass spectrometry
protein pharmaceuticals
url https://doi.org/10.1515/revac-2013-0011
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AT chensungfang massspectrometrybasedstrategiesforproteindisulfidebondidentification
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