Skip to main content

Development of Wind Energy Technology with Nanomaterials

Wind energy has great potential as a clean electrical energy resource with a lot of interests that grow rapidly worldwide. The term wind energy describes the process by which the wind is used to generate electricity. This is achieved by the conversion of the kinetic energy of the wind into electric power using turbines. The development of these turbines will lead to the decrease of the cost of the technology, improving the efficiency and increasing the demand for such green ways of producing technologies.
                                     Image Retrieved From: http://www.hydro.com.au/energy/about-wind-power
The development of the wind technology by considering the unique properties of the nanomaterials results in increasing the potential of the technology. Polymer nanocomposites, conductive nanomaterials, high strength nanomaterials, and nanostructured surfaces are examples of the materials that can be used in this technology.
  • -Polymer nanocomposite can increase the electricity generation by windmills. This can be achieved by using an epoxy containing carbon nanotubes which will have stronger and lighter properties due to the unique properties of the carbon nanotubes.
  • -Conductive and high strength nanomaterials can be used to enhance the durability and the production efficiency of the turbines. Metallic nanoparticles, rare earth nanoparticles, and carbon nanomaterials such as, carbon nanotubes and graphene are some examples of such nanomaterials.
  • -Nanostructured surfaces on metal surfaces are used to protect metals in the wind to protect turbine from corrosion and plays an important role in increasing the durability.

Posted by 

Comments

Popular posts from this blog

Molybdenum Trioxide Nanoparticles/Nanopowder and Applications

General Information about Molybdenum Trioxide                                                     Molybdenum trioxide is chemical compound with the formula MoO3. Its chief application is as an oxidation catalyst and as a raw material for the production of molybdenum metal.  Molybdenum Trioxide  is a very light blue powder. Molybdenum Trioxide Nanoparticles/Nanopowder and Their Applications                                                    Like many  nanoparticles/nanopowder , Molybdenum Trioxide nanoparticles/nanopowder are used as catalysts. These catalysis reactions include hydrogenation catalysis and cracking catalysis. Molybdenum Trioxide nanoparticles/  nanopowder are useful for...

Titanium Carbide Powders and Applications

Titanium carbide which has the chemical formula of TiC attracted great interest for many structural applications due to its extremely high melting temperature, high hardness, high chemical resistance and good electrical conductivity. Therefore titanium carbide can be used in cutting tools, grinding wheels, wear-resistant coatings, high temperature heat exchangers, magnetic recording heads, turbine engine seals, and bullet-proof vests, etc. In addition, a promising field of application comprises plasma and flame spraying processes in air, where titanium carbide-based powders show high-phase stability. TiC(Titanium Carbide Powder) (325 mesh, 99,9+%)  can also be used in biomedical implant devices. Materials used for biomedical implant devices must satisfy a variety of property demands, which are often mutually exclusive. Further, different parts of a device demand different material properties. These factors often make it difficult to manufacture a medical device using a...

Bismuth Oxide Sputtering Targets and Applications

Bismuth oxide with the chemical formula of Bi 2 O 3  is one the most important bismuth compounds. Bismuth oxide has been investigated extensively due to its optical and electrical properties such as large energy gap (from 2 to 4 eV), refractive index and high oxygen ion conductivity at high and medium temperatures. These properties make bismuth oxide one of the most perspective candidates for application in optoelectronics, solar cells and solid oxide fuel cells (SOFCs). Bismuth oxide has a few main polymorphic forms that are known as α, β, γ, δ. All polymorphs have different crystal structure and various optical, electrical and mechanical properties. Only two of them, the low temperature monoclinic α-phase and high temperature face-centered cubic δ-phase are stable. The other phases are metastable. Magnetron sputtering is a widespread method because of high deposition rate, dense and highly adhesive films, and possibility of using commercially available large area depositio...