A comprehensive analysis on feasibility and economic viability of commercial-scale MXene synthesis

• Analysised the probable potential of MXenes is distinct areas. • Summarized the current MXene synthesis methods. • Covered the challenges in commercial scale MXene production. • A comprehensive feasibility analysis was performed on MXene synthesis. MXenes, a class of two-dimensional materials, exhibit exceptional electrical conductivity, catalytic activity, and rapid charge-discharge characteristics, making them highly promising for energy-related applications, such as supercapacitors, batteries, water splitting, and fuel cell catalysis. Despite extensive research on the physicochemical properties and laboratory-scale synthesis of MXenes, a critical gap remains in understanding the feasibility and economic viability of commercial-scale MXene production. This study addresses this gap by systematically evaluating precursor materials, synthesis routes, scalability constraints, and environmental impacts associated with the manufacturing of MXenes. Through a comparative analysis of synthesis parameters and process economics, critical factors influencing consistent large-scale production were identified. The results demonstrate that optimized acid etching and post-processing methods can achieve high yield and reproducible MXene synthesis, effectively addressing significant scalability challenges. Compared with previous laboratory-focused studies, these findings provide more substantial evidence that industrial-scale MXene production can be both technically feasible and economically viable. The accompanying economic assessment further indicates cost-effectiveness, while market analysis reveals increasing demand across the energy, environmental, and electronic sectors. By integrating insights from technical optimization, cost modeling, and market trends, this work establishes a practical framework for advancing the industrialization of MXene. Overall, the study bridges the gap between laboratory research and real-world application, offering actionable guidance for achieving scalable, sustainable, and commercially competitive MXene manufacturing.

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Publication Details

Journal
Energy Nexus
Published
2025-12-09
DOI
https://doi.org/10.1016/j.nexus.2025.100625
Citations
4
Primary Topic
MXene and MAX Phase Materials
Type
article
Field-Weighted Citation Impact
2.07
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article

A comprehensive analysis on feasibility and economic viability of commercial-scale MXene synthesis

4 citations
Energy Nexus
MXene and MAX Phase Materials
2.07
article

A comprehensive analysis on feasibility and economic viability of commercial-scale MXene synthesis

article en
4 citations

Abstract

• Analysised the probable potential of MXenes is distinct areas. • Summarized the current MXene synthesis methods. • Covered the challenges in commercial scale MXene production. • A comprehensive feasibility analysis was performed on MXene synthesis. MXenes, a class of two-dimensional materials, exhibit exceptional electrical conductivity, catalytic activity, and rapid charge-discharge characteristics, making them highly promising for energy-related applications, such as supercapacitors, batteries, water splitting, and fuel cell catalysis. Despite extensive research on the physicochemical properties and laboratory-scale synthesis of MXenes, a critical gap remains in understanding the feasibility and economic viability of commercial-scale MXene production. This study addresses this gap by systematically evaluating precursor materials, synthesis routes, scalability constraints, and environmental impacts associated with the manufacturing of MXenes. Through a comparative analysis of synthesis parameters and process economics, critical factors influencing consistent large-scale production were identified. The results demonstrate that optimized acid etching and post-processing methods can achieve high yield and reproducible MXene synthesis, effectively addressing significant scalability challenges. Compared with previous laboratory-focused studies, these findings provide more substantial evidence that industrial-scale MXene production can be both technically feasible and economically viable. The accompanying economic assessment further indicates cost-effectiveness, while market analysis reveals increasing demand across the energy, environmental, and electronic sectors. By integrating insights from technical optimization, cost modeling, and market trends, this work establishes a practical framework for advancing the industrialization of MXene. Overall, the study bridges the gap between laboratory research and real-world application, offering actionable guidance for achieving scalable, sustainable, and commercially competitive MXene manufacturing.

Energy NexusVol. 21
National University Bangladesh (BD), University of Malaya (MY), University of Bergen (NO), Sunway University (MY), National University of Malaysia (MY)
Industry, innovation and infrastructure
Openalex Percentile: Top 12%
MXene and MAX Phase Materials
2.07
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