Production and characterization of carbide-derived-nanocarbon structures obtained by HF electrochemical etching of Ti3AlC2

Heidarpour, Akbar; Faraji, M.; Haghighi, Alireza

doi:10.1016/j.ceramint.2022.01.003

Cited by 11 publications

(3 citation statements)

References 56 publications

Supporting

Mentioning

Contrasting

Order By: Relevance

“…In the presence of different voltages and concentrations, the solution of titanium and aluminium was still extruded, and carbidederived nanocarbon structures were formed. [75]…”

Section: Electrochemical Etchingmentioning

confidence: 99%

“…To prepare the Ti 3 AlC 2 MAX phase powders, the Al, Ti, and C powders were milled, and then the powders were sintered by spark plasma sintering. In the presence of different voltages and concentrations, the solution of titanium and aluminium was still extruded, and carbide‐derived nanocarbon structures were formed [75] …”

Section: Preparation Techniques Of Mxenementioning

confidence: 99%

See 1 more Smart Citation

Progress, Prospects and Challenges of MXene Integrated Optoelectronics Devices

Hossaın,

Repon,

Shahid

et al. 2024

ChemElectroChem

View full text Add to dashboard Cite

Recently, the emerging 2D materials MXene have gained a surge of attention to the production of optoelectronics devices such as solar cells, plasmonic, phototransistors, photodetectors, light‐emitting diodes, photothermal therapy, and so on. Its outstanding optical and electrical characteristics, unique structure, and large specific surface area make it suitable for future use in modern optoelectronics including ultrafast lasers, light emitters, modulators, and plasmonic generators. There is a lack of critical analysis on the prospects, challenges, overview of synthesis methods, mechanisms, and future research directions of MXene despite having some reviews have been published on the applications of MXene. Therefore, this study critically analyzed the existing challenges of MXene, such as poor stability in an oxygen environment, inadequate mechanical properties, ease of stacking, temperature barrier, and so on. In addition, the fundamentals, preparation techniques, properties, and applications of MXene have been summarized. The mechanism, limitations, and benefits of different preparation methods have been mentioned. A comprehensive analysis and guidelines have been provided to improve the existing synthesis methods. The ways to overcome these challenges, prospects, and future markets of the MXene‐based optoelectronic devices have been described.

show abstract

“…In the presence of different voltages and concentrations, the solution of titanium and aluminium was still extruded, and carbidederived nanocarbon structures were formed. [75]…”

Section: Electrochemical Etchingmentioning

confidence: 99%

Section: Preparation Techniques Of Mxenementioning

confidence: 99%

Progress, Prospects and Challenges of MXene Integrated Optoelectronics Devices

Hossaın,

Repon,

Shahid

et al. 2024

ChemElectroChem

View full text Add to dashboard Cite

show abstract

“…8 All these modifications of the method are based on the crystal treatment with the acid or alkali solutions. 9,10 The result of such treatment can be the formation of the films on the crystal surface, 11,12 polishing, 13 surface passivation, 14,15 and the formation of the developed semiconductor nanorelief. 16,17 The main advantages of the electrochemical method are its simplicity, cheapness, process speed, and the lack of need to use high-tech and costly equipment.…”

Section: Introductionmentioning

confidence: 99%

Surface Modification of Gallium Arsenide by Electrochemical Methods in Different Electrolyte Compositions

Suchikova,

Kovachov,

Lazarenko

et al. 2023

ChChT

View full text Add to dashboard Cite

show abstract

Nanoarchitectonics of Laser Induced MAX 3D‐Printed Electrode for Photo‐Electrocatalysis and Energy Storage Application with Long Cyclic Durability of 100 000 Cycles

Nouseen,

Deshmukh,

Pumera

2024

Adv Funct Materials

View full text Add to dashboard Cite

Abstract3D printing, a rapidly expanding domain of additive manufacturing, enables the fabrication of intricate 3D structures with adjustable fabrication parameters and scalability. Nonetheless, post‐fabrication, 3D‐printed materials often require an activation step to eliminate non‐conductive polymers, a process traditionally achieved through chemical, thermal, or electrochemical methods. These conventional activation techniques, however, suffer from inefficiency and inconsistent results. In this study, a novel chemical‐free activation method employing laser treatment is introduced. This innovative technique effectively activates 3D‐printed electrodes, which are then evaluated for their photo and electrochemical performance against traditional solvent‐activated counterparts. The method not only precisely ablates surplus non‐conductive polymers but also exposes and activates the underlying electroactive materials. The 3D‐printed electrodes, processed with this single‐step laser approach, exhibit a notably low overpotential of ≈505 mV at a current density of −10 mA cm−2 under an illumination wavelength of 365 nm. These electrodes also demonstrate exceptional durability, maintaining stability through >100 000 cycles in energy storage applications. By amalgamating 3D printing with laser processing, the creation of electrodes with complex structures and customizable properties is enabled. This synergy paves the way for streamlined production of such devices in the field of energy conversion and storage.

show abstract

Production and characterization of carbide-derived-nanocarbon structures obtained by HF electrochemical etching of Ti3AlC2

Cited by 11 publications

References 56 publications

Progress, Prospects and Challenges of MXene Integrated Optoelectronics Devices

Progress, Prospects and Challenges of MXene Integrated Optoelectronics Devices

Surface Modification of Gallium Arsenide by Electrochemical Methods in Different Electrolyte Compositions

Nanoarchitectonics of Laser Induced MAX 3D‐Printed Electrode for Photo‐Electrocatalysis and Energy Storage Application with Long Cyclic Durability of 100 000 Cycles

Contact Info

Product

Resources

About