Graphene oxide (GO) is one of the interesting ink materials owing to its fascinating properties, such as high dissolubility in water and high controllable electric properties. For versatile printing application, the viscosity of GO colloids should be controlled in order to meet the specific process requirements. Here, we report on the relatively rapid fabrication of viscosity-increased GO (VIGO) colloids mixed with electrophoretically deposited GO sheets (EPD-GO). As the GO colloid concentration, applied voltage, and deposition time increase, the viscosity of the GO colloids becomes high. The reason for the improved viscosity of GO colloids is because EPD-GO has parallel stacked GO sheets. The GO and VIGO colloids are compared and character...
Here, we show that graphene oxide (GO) dispersions exhibit unique viscoelastic properties, making th...
This paper describes the gelation of highly concentrated graphene/polymer dispersions triggered by m...
Properly controlling the rheological properties of nanoparticle inks is crucial to their printabilit...
Graphene oxide (GO) has been of particular interest in material science, because it has potential in...
The outstanding properties of graphene make it attractive ink filler for conductive inks which plays...
We report that homogeneous colloidal suspensions of chemically modified graphene sheets were readily...
The size of chemically modified graphene nanosheets is a critical parameter that affects their perfo...
Many 3D printing technologies are based on the development of inks and pastes to build objects throu...
The great dispersity of graphene oxide (GO) in water and ability to form liquid crystals (LC) have b...
The size of chemically modified graphene nanosheets is a critical parameter that affects their perfo...
Graphene oxide (GO), as a typical two-dimensional material, possesses a range of oxygen-containing g...
Additive manufacturing (AM) techniques and so-called 2D materials have undergone an explosive growth...
AbstractThis paper reports the deposition of graphene oxide thin films via electrophoretic depositio...
Graphene oxide (GO) is a mixture of carbon, oxygen, and hydrogen. GO sheets used to make tough compo...
This thesis explores the properties, morphologies and formation mechanisms of graphene-based assembl...
Here, we show that graphene oxide (GO) dispersions exhibit unique viscoelastic properties, making th...
This paper describes the gelation of highly concentrated graphene/polymer dispersions triggered by m...
Properly controlling the rheological properties of nanoparticle inks is crucial to their printabilit...
Graphene oxide (GO) has been of particular interest in material science, because it has potential in...
The outstanding properties of graphene make it attractive ink filler for conductive inks which plays...
We report that homogeneous colloidal suspensions of chemically modified graphene sheets were readily...
The size of chemically modified graphene nanosheets is a critical parameter that affects their perfo...
Many 3D printing technologies are based on the development of inks and pastes to build objects throu...
The great dispersity of graphene oxide (GO) in water and ability to form liquid crystals (LC) have b...
The size of chemically modified graphene nanosheets is a critical parameter that affects their perfo...
Graphene oxide (GO), as a typical two-dimensional material, possesses a range of oxygen-containing g...
Additive manufacturing (AM) techniques and so-called 2D materials have undergone an explosive growth...
AbstractThis paper reports the deposition of graphene oxide thin films via electrophoretic depositio...
Graphene oxide (GO) is a mixture of carbon, oxygen, and hydrogen. GO sheets used to make tough compo...
This thesis explores the properties, morphologies and formation mechanisms of graphene-based assembl...
Here, we show that graphene oxide (GO) dispersions exhibit unique viscoelastic properties, making th...
This paper describes the gelation of highly concentrated graphene/polymer dispersions triggered by m...
Properly controlling the rheological properties of nanoparticle inks is crucial to their printabilit...