Syllabus academic year 2007/2008
Higher education credits: 7,5.
Grading scale: TH.
Language of instruction: The course will be given in Swedish.
Compulsory for: N2.
Course coordinator: Professor Reine Wallenberg, firstname.lastname@example.org, Materialkemi.
Prerequisites: TEK285 Chemistry - from General Chemistry to the Molecules of Life or KOO101 Introductory Chemistry or KOK012 Organic Chemistry.
Assessment: Written examination and passed exercises. Examination results define final result.
Home page: http://www.teknisknanovetenskap.lth.se.
- to provide the student with an overview of inorganic and polymer materials of technical importance, as well as their applications, from an atomic and molecular perspective
- to give examples of applications of materials science in the field of nanotechnology through lectures and compulsory assignments
- to give the student insight into how to manufacture functional materials, i.e. materials, or combination of materials which are designed on the atomic or nanolevel scale for a specific property.
Knowledge and understanding
For a passing grade the student must
- be able to describe the preparation and properties of metal alloys, ceramics and polymers of technical importance
- be able to explain how the micro- and nanostructure at different levels affects the properties of materials
- be able to describe the principles of important methods for the characterization of materials
- be able to give examples of methods for achieving nanostructuring of materials
Skills and abilities
For a passing grade the student must
- be able to suggest simple tools, preparation and synthesis methods to achieve nanometer structures
- be able to apply basic knowledge of a broad range of properties of materials and use these to suggest new devices in physics, biomedicine, mechanics, nanoscale labs etc.
The course intends to give fundamental understanding of the properties of different materials, with special reference to the connection to atomic structure, molecular structure, preparation and function.
For inorganic materials we survey processes that alter the properties of ceramics, inorganic binders, metals and alloys, by modification of the atomic structure. Materials with a high degree of resistence towards high temperatures, corrosive environments and mechanical deformation are described. When it comes to polymers, emphasis is put on processes of polymerisation, properties in the solid state, melt and solution, as well as methods for producing specific shapes. We also review the application of functional polymers. Separate lectures and exercises for applications in nanotechnology will be given.
- Nanoapplications of polymers
- Common crystal structures for nanomaterial
- Catalysis on the nanoscale
- Nano- och microporous materials
- Piezoelectric nanotools
- Mechanical properties of chemical bonds
- Crystal structures (positions, directions, planes)
- Crystal defects of different dimensionality
- Dislocations and plastic deformation
- Point defects and diffusion
- Mechanical properies and fracture surfaces
- Hardening of metals and binary phase diagrams
- Important alloys and ceramics
- Electrical and magnetic materials properties
- Classification, nomenclature and molecular weight of polymers
- Mechanisms and concepts in stepwise and chain polymerisation
- Industrial scale polymerisation
- Conformation and solubility of polymers
- Struktur-egenskasrelationer hos amorfa och semikristallina polymerer Structure-property relations of amorphous and semi-crystalline polymers
- Mekaniska egenskaper hos polymerer, polymerblandningar och kompositer Mechanical properties of polymers, polymer mixtures and composites
- Tooling and rheology of polymers
- Applications of polymers: membranes and electronics
Askeland, D R, Phulé, P P: Essentials of Materials for Science and Engineering, 1st edition. Thomson Engineering 2004. ISBN: 0534253091.
Fried, J R: Polymer Science and Technology. Prentice Hall Ptr. 2003. ISBN: 0-13-018168-4.