Deciphering mouse brain spatial diversity via glyco-lipidomic mapping

Gangliosides in the brain play a crucial role in modulating the integrity of vertebrate central nervous system in a region-specific manner. However, to date, a comprehensive structural elucidation of complex intact ganglioside isomers has not been achieved, resulting in the elusiveness into related molecular mechanism. Here, we present a glycolipidomic approach for isomer-specific and brain region-specific profiling of the mouse brain. Considerable region-specificity and commonality in specific group of regions are highlighted. Notably, we observe a similarity in the abundance of major isomers, GD1a and GD1b, within certain regions, which provides significant biological implications with interpretation through the lens of a theoretical retrosynthetic state-transition network. Furthermore, A glycocentric-omics approaches using gangliosides and N-glycans reveal a remarkable convergence in spatial dynamics, providing valuable insight into molecular interaction network. Collectively, this study uncovers the spatial dynamics of intact glyco-conjugates in the brain, which are relevant to regional function and accelerates the discovery of potential therapeutic targets for brain diseases.

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Publication Details

Journal
Nature Communications
Published
2024-10-07
DOI
https://doi.org/10.1038/s41467-024-53032-8
Citations
9
Primary Topic
Immune Response and Inflammation
Type
article
Field-Weighted Citation Impact
2.16

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article

Deciphering mouse brain spatial diversity via glyco-lipidomic mapping

Jaekyung Yun, Ji Eun Park, Heeyoun Hwang, Dongtan Yin et al.
9 citations
Nature Communications
Immune Response and Inflammation
2.16
article

Deciphering mouse brain spatial diversity via glyco-lipidomic mapping

Jaekyung Yun, Ji Eun Park, Heeyoun Hwang, Dongtan Yin, Jua Lee, Changjoon Justin Lee, Hee‐Sup Shin, Hyun Joo An, Minsoo Kim, Seong-Wook Kim, Boyoung Lee
article en
9 citations

Abstract

Gangliosides in the brain play a crucial role in modulating the integrity of vertebrate central nervous system in a region-specific manner. However, to date, a comprehensive structural elucidation of complex intact ganglioside isomers has not been achieved, resulting in the elusiveness into related molecular mechanism. Here, we present a glycolipidomic approach for isomer-specific and brain region-specific profiling of the mouse brain. Considerable region-specificity and commonality in specific group of regions are highlighted. Notably, we observe a similarity in the abundance of major isomers, GD1a and GD1b, within certain regions, which provides significant biological implications with interpretation through the lens of a theoretical retrosynthetic state-transition network. Furthermore, A glycocentric-omics approaches using gangliosides and N-glycans reveal a remarkable convergence in spatial dynamics, providing valuable insight into molecular interaction network. Collectively, this study uncovers the spatial dynamics of intact glyco-conjugates in the brain, which are relevant to regional function and accelerates the discovery of potential therapeutic targets for brain diseases.

Nature CommunicationsVol. 15(1)
Northwestern University (US), Chungnam National University (KR), Institute for Basic Science (KR), Korea Information System (South Korea) (KR), Korea Basic Science Institute (KR)
National Research Foundation, National Research Foundation of Korea, Institute for Basic Science, Ministry of Science and ICT, South Korea, Commercializations Promotion Agency for R and D Outcomes
Openalex Percentile: Top 12%
Immune Response and Inflammation
2.16
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