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

Amorphous Cellulose: Graphene Oxide Composite Bead

View through CrossRef
In this research, we developed an efficient method for the fabrication of amorphous cellulose-graphene oxide composite. Amorphous cellulose (AC) and amorphous cellulose-graphene oxide (ACGO) beads were fabricated via H2SO4 gelatinization using eucalyptus paper as a raw material. The cellulose gel was droplet-extruded into deionized (DI) water and transformed to a solid bead via the water-regeneration process. Small AC and ACGO quasi-sphere beads with diameter of 2 mm were obtained. The semicrystalline eucalyptus cellulose was transformed into amorphous cellulose after the regeneration process. The entrapment of graphene oxide (GO) by the amorphous cellulose was confirmed by scanning electron microscopy (SEM), fourier-transform infrared (FTIR) and raman spectroscopies (Raman). The gelatinization and regeneration processes offered a simple and efficient methodology for AC and ACGO bead fabrication. HIGHLIGHTS Amorphous cellulose (AC) and amorphous cellulose-graphene oxide (ACGO) beads were successfully fabricated via sulfuric acid gelatinization The average sizes of AC and ACGO beads were 2.11±13 and 2.14 ± 0.12 mm, respectively Structural characterization confirmed the transformation of cellulose I to cellulose II and graphene oxide was successfully embedded in ACGO beads The added graphene oxide interacted with the amorphous cellulose and made the surface of ACGO beads smooth GRAPHICAL ABSTRACT
Title: Amorphous Cellulose: Graphene Oxide Composite Bead
Description:
In this research, we developed an efficient method for the fabrication of amorphous cellulose-graphene oxide composite.
Amorphous cellulose (AC) and amorphous cellulose-graphene oxide (ACGO) beads were fabricated via H2SO4 gelatinization using eucalyptus paper as a raw material.
The cellulose gel was droplet-extruded into deionized (DI) water and transformed to a solid bead via the water-regeneration process.
Small AC and ACGO quasi-sphere beads with diameter of 2 mm were obtained.
The semicrystalline eucalyptus cellulose was transformed into amorphous cellulose after the regeneration process.
The entrapment of graphene oxide (GO) by the amorphous cellulose was confirmed by scanning electron microscopy (SEM), fourier-transform infrared (FTIR) and raman spectroscopies (Raman).
The gelatinization and regeneration processes offered a simple and efficient methodology for AC and ACGO bead fabrication.
HIGHLIGHTS Amorphous cellulose (AC) and amorphous cellulose-graphene oxide (ACGO) beads were successfully fabricated via sulfuric acid gelatinization The average sizes of AC and ACGO beads were 2.
11±13 and 2.
14 ± 0.
12 mm, respectively Structural characterization confirmed the transformation of cellulose I to cellulose II and graphene oxide was successfully embedded in ACGO beads The added graphene oxide interacted with the amorphous cellulose and made the surface of ACGO beads smooth GRAPHICAL ABSTRACT.

Related Results

Preparation of Graphene Fibers
Preparation of Graphene Fibers
Graphene owns intriguing properties in electronic, thermal, and mechanic with unique two-dimension (2D) monolayer structure. The new member of carbon family has not only attracted ...
Synthesis of Fe3O4-Reduced Graphene Oxide Modified Tissue-Paper and Application in the Treatment of Methylene Blue
Synthesis of Fe3O4-Reduced Graphene Oxide Modified Tissue-Paper and Application in the Treatment of Methylene Blue
Graphene-based composites have received a great deal of attention in recent year because the presence of graphene can enhance the conductivity, strength of bulk materials and help ...
Two-Beam Ultrafast Laser Scribing of Graphene Patterns with 90-nm Subdiffraction Feature Size
Two-Beam Ultrafast Laser Scribing of Graphene Patterns with 90-nm Subdiffraction Feature Size
The fabrication of high-resolution laser-scribed graphene devices is crucial to achieving large surface areas and thus performance breakthroughs. However, since the investigation m...
Raman Spectroscopy Imaging of Exceptional Electronic Properties in Epitaxial Graphene Grown on SiC
Raman Spectroscopy Imaging of Exceptional Electronic Properties in Epitaxial Graphene Grown on SiC
Graphene distinctive electronic and optical properties have sparked intense interest throughout the scientific community bringing innovation and progress to many sectors of academi...
Characterization and preliminary application of top-gated graphene ion-sensitive field effect transistors
Characterization and preliminary application of top-gated graphene ion-sensitive field effect transistors
Graphene, a 2-dimensional material, has received increasing attention due to its unique physicochemical properties (high surface area, excellent conductivity, and high mechanical s...
Scalable techniques for graphene on glass
Scalable techniques for graphene on glass
The combination of unique properties -high electrical mobility, thermal conductivity, transparency and mechanical flexibility- make graphene promising for a wide variety of applica...
Preparation and Properties of Nylon 6,6 Grafted Graphene Composites
Preparation and Properties of Nylon 6,6 Grafted Graphene Composites
Nylon 6,6 composite fiber containing grafted graphene (nylon 6,6-g-graphene) was prepared by nylon and graphene grafted with acyl chloride (graphene-COCl) through extrusion reactio...

Back to Top