Unlocking the Potential of MBenes in Li/Na-Ion Batteries

MBenes, an emerging family of two-dimensional transition metal boride materials, are gaining prominence in alkali metal-ion battery research owing to their distinctive stratified architecture, enhanced charge transport properties, and exceptional electrochemical durability. This analysis provides a...

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Main Authors: Zixin Li, Yao Hu, Haihui Lan, Huicong Xia
Format: Article
Language:English
Published: MDPI AG 2025-07-01
Series:Molecules
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Online Access:https://www.mdpi.com/1420-3049/30/13/2831
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author Zixin Li
Yao Hu
Haihui Lan
Huicong Xia
author_facet Zixin Li
Yao Hu
Haihui Lan
Huicong Xia
author_sort Zixin Li
collection DOAJ
description MBenes, an emerging family of two-dimensional transition metal boride materials, are gaining prominence in alkali metal-ion battery research owing to their distinctive stratified architecture, enhanced charge transport properties, and exceptional electrochemical durability. This analysis provides a comprehensive examination of morphological characteristics and fabrication protocols for MBenes, with particular focus on strategies for optimizing energy storage metrics through controlled adjustment of interlayer distance and tailored surface modifications. The discussion highlights these materials’ unique capability to host substantial alkali metal ions, translating to exceptional longevity during charge–discharge cycling and remarkable high-current performance in both lithium and sodium battery systems. Current obstacles to materials development are critically evaluated, encompassing precision control in nanoscale synthesis, reproducibility in large-scale production, enhancement of thermodynamic stability, and eco-friendly processing requirements. Prospective research pathways are proposed, including sustainable manufacturing innovations, atomic-level structural tailoring through computational modeling, and expansion into hybrid energy storage-conversion platforms. By integrating fundamental material science principles with practical engineering considerations, this work seeks to establish actionable frameworks for advancing MBene-based technologies toward next-generation electrochemical storage solutions with enhanced energy density and operational reliability.
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spelling doaj-art-ba799f6c923e4cd68d95abeaa73d1e9d2025-08-20T03:49:55ZengMDPI AGMolecules1420-30492025-07-013013283110.3390/molecules30132831Unlocking the Potential of MBenes in Li/Na-Ion BatteriesZixin Li0Yao Hu1Haihui Lan2Huicong Xia3School of Materials Science and Engineering, Zhengzhou University, Zhengzhou 450001, ChinaMaterials Science and Engineering Program, Texas Materials Institute, The University of Texas at Austin, Austin, TX 78712, USADepartment of Chemistry, Massachusetts Institute of Technology, Cambridge, MA 02139, USASchool of Materials Science and Engineering, Zhengzhou University, Zhengzhou 450001, ChinaMBenes, an emerging family of two-dimensional transition metal boride materials, are gaining prominence in alkali metal-ion battery research owing to their distinctive stratified architecture, enhanced charge transport properties, and exceptional electrochemical durability. This analysis provides a comprehensive examination of morphological characteristics and fabrication protocols for MBenes, with particular focus on strategies for optimizing energy storage metrics through controlled adjustment of interlayer distance and tailored surface modifications. The discussion highlights these materials’ unique capability to host substantial alkali metal ions, translating to exceptional longevity during charge–discharge cycling and remarkable high-current performance in both lithium and sodium battery systems. Current obstacles to materials development are critically evaluated, encompassing precision control in nanoscale synthesis, reproducibility in large-scale production, enhancement of thermodynamic stability, and eco-friendly processing requirements. Prospective research pathways are proposed, including sustainable manufacturing innovations, atomic-level structural tailoring through computational modeling, and expansion into hybrid energy storage-conversion platforms. By integrating fundamental material science principles with practical engineering considerations, this work seeks to establish actionable frameworks for advancing MBene-based technologies toward next-generation electrochemical storage solutions with enhanced energy density and operational reliability.https://www.mdpi.com/1420-3049/30/13/2831Mbenemetal-ion batteriestwo-dimensional materialsenergy storageelectrode engineering
spellingShingle Zixin Li
Yao Hu
Haihui Lan
Huicong Xia
Unlocking the Potential of MBenes in Li/Na-Ion Batteries
Molecules
Mbene
metal-ion batteries
two-dimensional materials
energy storage
electrode engineering
title Unlocking the Potential of MBenes in Li/Na-Ion Batteries
title_full Unlocking the Potential of MBenes in Li/Na-Ion Batteries
title_fullStr Unlocking the Potential of MBenes in Li/Na-Ion Batteries
title_full_unstemmed Unlocking the Potential of MBenes in Li/Na-Ion Batteries
title_short Unlocking the Potential of MBenes in Li/Na-Ion Batteries
title_sort unlocking the potential of mbenes in li na ion batteries
topic Mbene
metal-ion batteries
two-dimensional materials
energy storage
electrode engineering
url https://www.mdpi.com/1420-3049/30/13/2831
work_keys_str_mv AT zixinli unlockingthepotentialofmbenesinlinaionbatteries
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AT haihuilan unlockingthepotentialofmbenesinlinaionbatteries
AT huicongxia unlockingthepotentialofmbenesinlinaionbatteries