Course content

1: Fabrication and properties: Chosen synthesis routes for nanoparticles (metallic and inorganic), tubes, rods etc. Integration of such nanoparticles and design of larger nanostructures. The mechanistic fundament for nanoparticle synthesis, like general precipitation theory for nucleation and growth. Colloidal templates for synthesis of nanostructured materials. Design and characterization of surface properties. Properties related to size effects (optical, electronic etc.)
2: Applications (in research and industry): Examples of the application of relevant nanomaterials and – structures in important industrial processes as well as examples of future possible applications will be analyzed. Examples of applications are: Catalysis by nanoparticles, oxides, gold and carbon nanotubes. Energy optimization and environmental technology research based on separation by nano-structured CO2-absorbents and composite membranes. Adsorption of macro molecules on metallic nanoparticles for medical applications as deliverers for gene therapy and chemotherapy. Cellulose micro/nano fibrils as films and additives. Nanostructured composite materials and hybrid materials where several functions are put together. The use of nanomaterials for the development of third generation solar cells. Nanomaterials for more efficient and more stabile fuel cells. The development of nanomaterials in sensor applications.

Learning outcome

The goal is to provide insight in chosen topics with regard to industrial processes and new research for which nanomaterials are essential. The topics are related to material systems for energy-, environmental-, and biotechnology.

Learning methods and activities

Lectures and compulsory exercises. If there is a re-sit examination, the examination form may be changed from written to oral.

Compulsory assignments

• Assignments

Recommended previous knowledge

TMT4320 Nanomaterials.

Course materials

Given at lecture start.