Probing the biocompatibility of Mo2C nanosheet through an integrated metabolomics approach: Toward boosting energy metabolism

An Mo2C nanosheet is an important two-dimensional nanomaterial with distinguished catalytic activity in biochemical applications. However, detailed information on Mo2C-induced changes in metabolic shifts, biosafety, and molecular mechanisms is insufficient. Integrated metabolomics (including aqueous metabolomics, lipidomics, and spatial metabolomics) has provided an excellent choice with massive bioinformation. In addition, the notion of "nanometabolomics" was first proposed and utilized to refer to these metabolomics studies on the biosafety, biocompatibility, and biological response of nanomaterials. Nanometabolomics innovatively combined nanoscience and metabolomics with massive bioinformation at the molecular level. For instance, in this work, nanometabolomics specialized in probing an Mo2C-induced metabolic shift of human umbilical vein endothelial cells (HUVECs) through integrated metabolomics. Furthermore, integrated metabolomics was used to examine the metabolic shift of HUVECs at the metabolome and lipidome levels, as well as the spatial distribution of different metabolites. The findings demonstrated that high doses (1 mg/ml) of an Mo2C nanosheet might produce an immediate improvement in HUVECs' energy metabolism, which was closely related to the improved morphology and function of mitochondria. The integrated metabolomics outcomes of this unique "Mo2C-cell" system increased our understanding of an Mo2C nanosheet. The proposed new word "nanometabolomics" could also be considered an excellent notion in representing nanomaterial-involved metabolomics studies.

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Publication Details

Journal
Biointerphases
Published
2024-11-01
DOI
https://doi.org/10.1116/6.0003872
Citations
1
Primary Topic
MXene and MAX Phase Materials
Type
article
Field-Weighted Citation Impact
0.12

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article

Probing the biocompatibility of Mo2C nanosheet through an integrated metabolomics approach: Toward boosting energy metabolism

Wen Zheng, Meng Gong, Rong Fan, Yang Lü et al.
1 citations
Biointerphases
MXene and MAX Phase Materials
0.12
article

Probing the biocompatibility of Mo2C nanosheet through an integrated metabolomics approach: Toward boosting energy metabolism

Wen Zheng, Meng Gong, Rong Fan, Yang Lü, Luolan Gui, Yueqiu Liu, Hao Yang, Xin Li, Tao Li, Jingqiu Cheng, Wenjuan Zeng, Junwen Guan, Yu Zeng, Dingkun Zhang, Yin Yang, Ning Mao, Xinyi Hu
article en
1 citations

Abstract

An Mo2C nanosheet is an important two-dimensional nanomaterial with distinguished catalytic activity in biochemical applications. However, detailed information on Mo2C-induced changes in metabolic shifts, biosafety, and molecular mechanisms is insufficient. Integrated metabolomics (including aqueous metabolomics, lipidomics, and spatial metabolomics) has provided an excellent choice with massive bioinformation. In addition, the notion of "nanometabolomics" was first proposed and utilized to refer to these metabolomics studies on the biosafety, biocompatibility, and biological response of nanomaterials. Nanometabolomics innovatively combined nanoscience and metabolomics with massive bioinformation at the molecular level. For instance, in this work, nanometabolomics specialized in probing an Mo2C-induced metabolic shift of human umbilical vein endothelial cells (HUVECs) through integrated metabolomics. Furthermore, integrated metabolomics was used to examine the metabolic shift of HUVECs at the metabolome and lipidome levels, as well as the spatial distribution of different metabolites. The findings demonstrated that high doses (1 mg/ml) of an Mo2C nanosheet might produce an immediate improvement in HUVECs' energy metabolism, which was closely related to the improved morphology and function of mitochondria. The integrated metabolomics outcomes of this unique "Mo2C-cell" system increased our understanding of an Mo2C nanosheet. The proposed new word "nanometabolomics" could also be considered an excellent notion in representing nanomaterial-involved metabolomics studies.

BiointerphasesVol. 19(6)
City University of Hong Kong (HK), Sichuan University (CN), West China Hospital of Sichuan University (CN), City University of Hong Kong, Shenzhen Research Institute (CN)
Department of Science and Technology of Sichuan Province
Affordable and clean energy
Openalex Percentile: Top 58%
MXene and MAX Phase Materials
0.12
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