Search engine for discovering works of Art, research articles, and books related to Art and Culture
ShareThis
Javascript must be enabled to continue!

Optimization of Synthesizing Conditions for MXene (Ti3C2) Photocatalyst: Effect of LiF:Ti3AlC2 Mass Ratio

View through CrossRef
The analysis of the proposed work, specifically the development of the MXene photocatalyst, will be described in this chapter. The results of the analysis are useful for comparing the pristine precursor and etched structures of the MXene photocatalyst. A minimally intensive layer delamination (MILD) method will be used to create the MXene photocatalyst which uses lower fluorine content solution (HCl-LiF) creating a safer and easier method. The synthesis parameters for the development of highly efficient MXene photocatalysts, such as LiF:Ti3AlC2 mass ratio will be optimized. FTIR, XRD, SAP, FESEM and DR UV-Vis analysis will be used to characterize the as-developed MXene photocatalyst and its precursor, Ti3AlC2. The hypothesis of this study is etching treatment will increase the hydrophilicity and active functional group such as oxygen (O), fluorine (F) and hydroxyl (-OH) on MXene surfaces. The performance of photocatalytic degradation will be tested with an initial dye concentration of 30 ppm, solution pH at pH7 at room temperature (±27 ̊C). Each photocatalytic degradation study was performed in 50 ml of methylene blue solution with 0.1 g photocatalyst. All developed MXenes will undergo photocatalytic degradation performance to identify the optimized synthesizing conditions. The highest MXene photodegradation performance was found to reach 90% removal within 180 min.
Title: Optimization of Synthesizing Conditions for MXene (Ti3C2) Photocatalyst: Effect of LiF:Ti3AlC2 Mass Ratio
Description:
The analysis of the proposed work, specifically the development of the MXene photocatalyst, will be described in this chapter.
The results of the analysis are useful for comparing the pristine precursor and etched structures of the MXene photocatalyst.
A minimally intensive layer delamination (MILD) method will be used to create the MXene photocatalyst which uses lower fluorine content solution (HCl-LiF) creating a safer and easier method.
The synthesis parameters for the development of highly efficient MXene photocatalysts, such as LiF:Ti3AlC2 mass ratio will be optimized.
FTIR, XRD, SAP, FESEM and DR UV-Vis analysis will be used to characterize the as-developed MXene photocatalyst and its precursor, Ti3AlC2.
The hypothesis of this study is etching treatment will increase the hydrophilicity and active functional group such as oxygen (O), fluorine (F) and hydroxyl (-OH) on MXene surfaces.
The performance of photocatalytic degradation will be tested with an initial dye concentration of 30 ppm, solution pH at pH7 at room temperature (±27 ̊C).
Each photocatalytic degradation study was performed in 50 ml of methylene blue solution with 0.
1 g photocatalyst.
All developed MXenes will undergo photocatalytic degradation performance to identify the optimized synthesizing conditions.
The highest MXene photodegradation performance was found to reach 90% removal within 180 min.

Related Results

Modified MAX Phase Synthesis for Environmentally Stable and Highly Conductive Ti3C2 MXene
Modified MAX Phase Synthesis for Environmentally Stable and Highly Conductive Ti3C2 MXene
One of the primary factors limiting further research and the commercial use of the two-dimensional (2D) MXene titanium carbide (Ti3C2), as well as MXenes in general, is the rate at...
Role of surface termination in charge storage mechanism of 2D metal carbide
Role of surface termination in charge storage mechanism of 2D metal carbide
Rôle de la terminaison de surface dans le mécanisme de stockage de charge du carbure métallique 2D L'objectif principal de la thèse était de synthétiser et d'effect...
Leukemia Inhibitory Factor (LIF) and LIF Receptor in Human Lung: Distribution and Regulation of LIF Release
Leukemia Inhibitory Factor (LIF) and LIF Receptor in Human Lung: Distribution and Regulation of LIF Release
Abstract The distribution and regulation of leukemia inhibitory factor (LIF) and its receptor (LIFR) in human lung tissue is unknown. We recently found that LIF w...
Heterostructuring Uniform 2D CdS on Ru/Ti3C2‐TiO2 via In situ Oxidized Ru‐Loaded MXene for Boosting Photocatalytic H2 Production
Heterostructuring Uniform 2D CdS on Ru/Ti3C2‐TiO2 via In situ Oxidized Ru‐Loaded MXene for Boosting Photocatalytic H2 Production
AbstractBuilding heterojunctions and exposing more catalytic active sites are effective strategies to enhance the photocatalytic hydrogen evolution activity. Herein, TiO2 nanosheet...
Electrocatalytic properties of Pt nanoparticles grown on MXene surface
Electrocatalytic properties of Pt nanoparticles grown on MXene surface
Electrocatalytic properties of Pt nanoparticles grown on MXene surface Sifani Zavahira, Jaroslav Filipb, Khaled A. Mahmoudc, Jan Tkacd Peter Kasaka,* a Center for Advanced Material...
Localization of leukaemia inhibitory factor to airway epithelium and its amplification of contractile responses to tachykinins
Localization of leukaemia inhibitory factor to airway epithelium and its amplification of contractile responses to tachykinins
In neural tissue, leukaemia inhibitory factor (LIF) is an important trophic cytokine. In this investigation, we determined if LIF was present in human and guinea‐pig airways and ex...
A model for effective conductivity of polymer nanocomposites containing MXene nanosheets
A model for effective conductivity of polymer nanocomposites containing MXene nanosheets
AbstractThis paper introduces a groundbreaking model to evaluate the conductivity of nanocomposites comprising MXene nanosheets. The model simulates the effective conductivity cons...
The Black Mass as Play: Dennis Wheatley's The Devil Rides Out
The Black Mass as Play: Dennis Wheatley's The Devil Rides Out
Literature—at least serious literature—is something that we work at. This is especially true within the academy. Literature departments are places where workers labour over texts c...

Back to Top