Javascript must be enabled to continue!
Enhanced properties of PVDF membranes using green Ag-nanoclay composite nanoarchitectonics
View through CrossRef
Abstract
Introduction. Polyvinylidene fluoride (PVDF) is widely used in various industries, particularly in water treatment, owing to its effectiveness as an ultrafiltration membrane. Fouling can occur on PVDF membranes during the treatment of aqueous solutions containing natural organic matter in water treatment. Nanofillers can be added to PVDF membranes to improve their durability for more water treatment applications Objectives. This study aimed to enhance the mechanical and anti-biofouling properties of PVDF membranes while maintaining the flux and rejection rates. Methods. A green method was used to synthesize the Ag-Nanoclay nanocomposite for integration into a PVDF polymer membrane. P. argentea extract was employed as a reducing and stabilizing agent for the synthesis of Ag-Nanoclay nanocomposites. The synthesized Ag-Nanoclay nanocomposite was characterized using the X-Ray Diffration (XRD), Fourier-Transform Infrared Spectroscopy (FTIR), and Scanning Electron Microscope (SEM). The phase inversion method was used to prepare the PVDF membranes and 1 wt% and 3 wt% Ag-Nanoclay nanocomposite membranes. The structures, morphologies, performances and mechanical and antibacterial proeprties of the prepared membranes were characterized. Results. The synthesized Ag-Nanoclay consisted of Ag Nanoparticles linked to nanoclay platelets with flavonoids from plant extracts. Incorporating the Ag-Nanoclay nanocomposite into the PVDF membrane resulted in minor increases in the pore size, roughness, and hydrophobicity of the membrane. However, these effects did not significantly affect the flux and rejection rates, which showed little improvement. The 1 wt% loading significantly improved the tensile strength by 67%, whereas it decreased by 50% at 3 wt% loading. Both loading levels demonstrated excellent antibacterial activity against Escherichia coli (E. coli) and Staphylococcus aureus (S. aureus), with sterilization rates exceeding 99%. Conclusions. Addition of Ag-Nanoclay to PVDF membranes is a promising strategy for developing advanced membranes with improved mechanical properties and anti-biofouling characteristics.
Title: Enhanced properties of PVDF membranes using green Ag-nanoclay composite nanoarchitectonics
Description:
Abstract
Introduction.
Polyvinylidene fluoride (PVDF) is widely used in various industries, particularly in water treatment, owing to its effectiveness as an ultrafiltration membrane.
Fouling can occur on PVDF membranes during the treatment of aqueous solutions containing natural organic matter in water treatment.
Nanofillers can be added to PVDF membranes to improve their durability for more water treatment applications Objectives.
This study aimed to enhance the mechanical and anti-biofouling properties of PVDF membranes while maintaining the flux and rejection rates.
Methods.
A green method was used to synthesize the Ag-Nanoclay nanocomposite for integration into a PVDF polymer membrane.
P.
argentea extract was employed as a reducing and stabilizing agent for the synthesis of Ag-Nanoclay nanocomposites.
The synthesized Ag-Nanoclay nanocomposite was characterized using the X-Ray Diffration (XRD), Fourier-Transform Infrared Spectroscopy (FTIR), and Scanning Electron Microscope (SEM).
The phase inversion method was used to prepare the PVDF membranes and 1 wt% and 3 wt% Ag-Nanoclay nanocomposite membranes.
The structures, morphologies, performances and mechanical and antibacterial proeprties of the prepared membranes were characterized.
Results.
The synthesized Ag-Nanoclay consisted of Ag Nanoparticles linked to nanoclay platelets with flavonoids from plant extracts.
Incorporating the Ag-Nanoclay nanocomposite into the PVDF membrane resulted in minor increases in the pore size, roughness, and hydrophobicity of the membrane.
However, these effects did not significantly affect the flux and rejection rates, which showed little improvement.
The 1 wt% loading significantly improved the tensile strength by 67%, whereas it decreased by 50% at 3 wt% loading.
Both loading levels demonstrated excellent antibacterial activity against Escherichia coli (E.
coli) and Staphylococcus aureus (S.
aureus), with sterilization rates exceeding 99%.
Conclusions.
Addition of Ag-Nanoclay to PVDF membranes is a promising strategy for developing advanced membranes with improved mechanical properties and anti-biofouling characteristics.
Related Results
Fatigue performance of nanoclay filled glass fiber reinforced hybrid composite laminate
Fatigue performance of nanoclay filled glass fiber reinforced hybrid composite laminate
In this study, the fatigue life of fiber reinforced composite (FRC) materials system was investigated. A nano-filler was used to increase the service life of the composite structur...
PVDF/Carbonnanotubes/Nanoclay Composites for Piezoelectric Applications
PVDF/Carbonnanotubes/Nanoclay Composites for Piezoelectric Applications
Abstract
Poly(vinylidene) fluoride (PVDF) nanocomposite samples were prepared by incorporation of carbon nanotubes (CNT) and nanoclay into PVDF using a twin screw ex...
From Inception to Innovation: 20 Years of Nanoarchitectonics
From Inception to Innovation: 20 Years of Nanoarchitectonics
AbstractThe term “nanoarchitectonics” emerged as the 21st century approached, and it has been in use for around 20 years. We here look back accomplishments of nanoarchitectonics. H...
Cure Kinetics of Nanocomposites Prepared From Aqueous Dispersion of Nanoclay
Cure Kinetics of Nanocomposites Prepared From Aqueous Dispersion of Nanoclay
The effect of nanoclay on the cure kinetics of glass/waterborne epoxy nanocomposites is investigated. First step in sample preparation involves dispersing Cloisite® Na+, a natural ...
Experimental and DFT Studies on Structural, Spectroscopic Properties of Cellulose Acetate and PVDF Blend Polymer Membrane: A Potential Wound Healing and Drug Release Material
Experimental and DFT Studies on Structural, Spectroscopic Properties of Cellulose Acetate and PVDF Blend Polymer Membrane: A Potential Wound Healing and Drug Release Material
ABSTRACT
Recently, extensive research has been conducted on wound healing and drug release materials. In this perspective, a cellulose acetate (CA) and a poly(vin...
Enhancing Gamma-Neutron Shielding Effectiveness of Polyvinylidene Fluoride for Potent Applications in Nuclear Industries: A Study on the Impact of Tungsten Carbide, Trioxide, and Disulfide Using EpiXS, Phy-X/PSD, and MCNP5 Code
Enhancing Gamma-Neutron Shielding Effectiveness of Polyvinylidene Fluoride for Potent Applications in Nuclear Industries: A Study on the Impact of Tungsten Carbide, Trioxide, and Disulfide Using EpiXS, Phy-X/PSD, and MCNP5 Code
Background: Radiation protection is crucial in various fields due to the harmful effects of radiation. Shielding is used to reduce radiation exposure, but gamma radiation poses cha...
Sintesis Membran Komposit PVDF-Zeolit untuk Penghilangan Metilen Biru
Sintesis Membran Komposit PVDF-Zeolit untuk Penghilangan Metilen Biru
Metilen biru (MB) merupakan zat warna kation yang sering digunakan dalam industri tekstil, karena harganya yang ekonomis dan mudah diperoleh. Dalam pewarnaan, senyawa ini h...
NONLINEAR STATIC ANALYSIS OF COMPOSITE SHELLS USING ANALYSIS OF COMPOSITE SHELLS USING ANALYSIS OF COMPOSITE SHELLS USING ANALYSIS OF COMPOSITE SHELLS USING ANALYSIS OF COMPOSITE SHELLS USING ANALYSIS OF COMPOSITE SHELLS USING ANALYSIS OF COMPOSITE SHELLS
NONLINEAR STATIC ANALYSIS OF COMPOSITE SHELLS USING ANALYSIS OF COMPOSITE SHELLS USING ANALYSIS OF COMPOSITE SHELLS USING ANALYSIS OF COMPOSITE SHELLS USING ANALYSIS OF COMPOSITE SHELLS USING ANALYSIS OF COMPOSITE SHELLS USING ANALYSIS OF COMPOSITE SHELLS
This paper presents the results of the geometric nonlinear analysis of composite shell subjected to static load by using an edge-based smoothed finite elements (ES) and the mixed i...

