Herein, we develop ultra-fine CuO nanoparticles embedded in three-dimensional graphene network grown on carbon cloth (CuO/3DGN/CC) to construct a novel electrode material with advantages of high conductivity, large specific area and excellent redox activity for supercapacitor application.
BiVO4 is a promising high efficient photoanode and photocatalysis material, with advantages of small optical band gaps (2.4 eV) and high stability, and low conduction band edges that overcome traditional photoanode materials, such as ZnO, TiO2, WO3, and Fe2O3 [9, 10, 11, 12, 13].
This new methods meet the rust-proof challenges for the steel materials with many advantages.
In recent years, bio-inspired synthesis processes have drawn increasing research interest as a new tool for designing next generation advanced functional materials with unparalleled advantages.
Microwave sintering has emerged in recent years as a non-conventional method for sintering materials with significant advantages against conventional procedures.
We consider the integration of biodiesel and bioethanol production processes with an existing oilseed processing industry to expand the value chain associated with the original raw materials, with multiple advantages from the economic and sustainability perspectives.
This thesis explores one combination in particular optical fiber embedded concrete, in order to develop a new type of structural material with optical advantages.
The proposed natural material is comparable to conventional insulation material with the advantages of being safe to human beings as well as utilizes waste material.
These results also reveal that the modification method is effective and offers a potential way to fabricate inkjet material with the advantages of microstructure and ink absorption over traditional methods.
Field assisted quantum tunneling composite (FAQTC) is a unique pressure-sensitive material with the advantages of large resistance change range under external force, easy preparation and excellent mechanical properties.
