Integrating 1D/2D nanostructure based on Ni–Co-oxalate for energy storage applications

Shaheen, Irum; Ali, Ijaz; Bibi, Faiza; Hanan, Abdul; Ahmad, Muhammad; Hussain, Ishtihar; Javed, Muhammad Sufyan; Ahmad Shah, Syed Shoaib; Khan, Karim; Hanif, Muhammad Bilal; Motola, Martin; Rosaiah, P.; Wabaidur, Saikh Mohammad; Arifeen, Waqas Ul; Hussain, Iftikhar

doi:10.1016/j.ceramint.2023.12.394

Cited by 17 publications

(1 citation statement)

References 41 publications

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“…For achieving prominent electrochemical performance, any SC electrodes should have good conductivity, large surface area, and high porosity. MXene materials usually display PC-type charge storage mechanism [ 85 – 88 ]. For the common Ti 3 C 2 T x MXene, the presence of water molecules between the layers plays significant role on activating the redox reactions of the Ti atoms [ 89 ].…”

Section: Overview Of Supercapacitorsmentioning

confidence: 99%

M4X3 MXenes: Application in Energy Storage Devices

Hussain,

Arifeen,

Khan

et al. 2024

Nano-Micro Lett.

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MXene has garnered widespread recognition in the scientific community due to its remarkable properties, including excellent thermal stability, high conductivity, good hydrophilicity and dispersibility, easy processability, tunable surface properties, and admirable flexibility. MXenes have been categorized into different families based on the number of M and X layers in Mn+1Xn, such as M2X, M3X2, M4X3, and, recently, M5X4. Among these families, M2X and M3X2, particularly Ti3C2, have been greatly explored while limited studies have been given to M5X4 MXene synthesis. Meanwhile, studies on the M4X3 MXene family have developed recently, hence, demanding a compilation of evaluated studies. Herein, this review provides a systematic overview of the latest advancements in M4X3 MXenes, focusing on their properties and applications in energy storage devices. The objective of this review is to provide guidance to researchers on fostering M4X3 MXene-based nanomaterials, not only for energy storage devices but also for broader applications.

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Section: Overview Of Supercapacitorsmentioning

confidence: 99%

M4X3 MXenes: Application in Energy Storage Devices

Hussain,

Arifeen,

Khan

et al. 2024

Nano-Micro Lett.

Self Cite

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V‐MXenes for Energy Storage/Conversion Applications

Hussain,

Kewate,

Hanan

et al. 2024

ChemSusChem

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MXenes, a two‐dimensional (2D) material, exhibit excellent optical, electrical, chemical, mechanical, and electrochemical properties. Titanium‐based MXene (Ti‐MXene) has been extensively studied and serves as the foundation for 2D MXenes. However, other transition metals possess the potential to offer excellent properties in various applications. This comprehensive review aims to provide an overview of the properties, challenges, key findings, and applications of less‐explored vanadium‐based MXenes (V‐MXenes) and their composites. The current trends in V‐MXene and their composites for energy storage and conversion applications have been thoroughly summarized. Overall, this review offers valuable insights, identifies potential opportunities, and provides key suggestions for future advancements in the MXenes and energy storage/conversion applications.

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Double transition metal MXenes for enhanced electrochemical applications: Challenges and opportunities

Bibi,

Hanan,

Soomro

et al. 2024

EcoMat

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Double transition metal (DTM) MXenes are a recently discovered class of two‐dimensional composite nanomaterials with excellent potential in energy storage applications. Since their emergence in 2015, DTM MXenes have expanded their composition boundary beyond traditional single‐metal carbide and nitride MXenes. DTM MXenes offer tunable structures and properties through variations in the constituent transition metals and positioning within the layered lattice. These MXenes can exist in two primary forms: ordered DTMs and solid solutions. The compositional versatility of DTM MXenes offers opportunities to enhance their performance in electrochemical energy storage applications. However, the quality, stability, and surface chemistry of DTM MXenes are influenced by several factors, including the etching process, etchant type, and synthesis route. Currently, limited literature is available on experimentally synthesized DTM MXenes, with most studies focusing on carbide‐based MXenes. Most of the articles have dedicated their efforts only to generalized synthesis strategies. Although extensive theoretical studies have explored the suitability of etchants, synthesis parameters, and methods for producing high‐quality MXene with selective terminal functional groups, their stability issues have not been thoroughly examined. This review addresses various types of DTM MXenes, their synthesis techniques, and the impact of these methods on their physicochemical properties and electrochemical performance. Additionally, it provides a critical analysis of the causes of instability in MXenes, particularly DTMs, from synthesis to application. The challenges associated with these materials are discussed, along with opportunities and prospects for enhancing synthesis, structural tuning, surface modification, and applications in electrochemical energy storage.image

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Integrating 1D/2D nanostructure based on Ni–Co-oxalate for energy storage applications

Cited by 17 publications

References 41 publications

M4X3 MXenes: Application in Energy Storage Devices

M4X3 MXenes: Application in Energy Storage Devices

V‐MXenes for Energy Storage/Conversion Applications

Double transition metal MXenes for enhanced electrochemical applications: Challenges and opportunities

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