Main field(s) of study and in-depth level:
Fail (U), 3, 4, 5.
The Faculty Board of Science and Technology
One of the following is required: (1) 120 credits with 60 credits in chemistry, including 20 credits in biochemistry, or (2) 120 credits with 30 credits in chemistry and 30 credits in biology, including 20 credits in biochemistry, or (2) 120 credits within the Master Programme in Molecular Biotechnology Engineering, including Cell Biology, 15 credits.
After having completed the course the student are expected to be able to:
explain molecular recognition based on fundamental structural, mechanistic, kinetic and thermodynamic principles
explain common concepts used to describe molecular interactions, such as affinity, specificity, selectivity and avidity
compare how common biological, biochemical and biophysical methods for the study of molecular interactions work and argue for the choice of method based on what information they can provide
describe and analyze three-dimensional structures of complexes between biomacromolecules and other molecules, and use computer-based molecular graphics for this
discuss biologically relevant aspects of the interactions between macromolecules and other macromolecules/ligands
summarize and describe principles and applications for diagnostic purposes of a current method based on molecular recognition
Molecular interaction mechanisms and forces between molecules: selectivity, affinity, kinetics and thermodynamics. The effect of the environment on interactions. Structure and dynamics of biomacromolecules and their complexes: selectivity, multivalency, avidity. Various types of biomolecular interactions: protein-ligand, protein-protein, DNA-protein, RNA-protein och lipid-protein. Inhibition of interactions. Applications: design of ligands, modification of proteins and nucleic acids to alter their interactions with other macromolecules or ligands. Biological, biochemical and biophysical methods for the identification and characterisation of molecular interactions. Modelling of interactions by molecular graphics and structural information. Bioinformatics of protein-protein interactions. Examples of how biological systems can be described in terms of the molecular interactions involved. Application of molecular interaction analysis in life science research, drug discovery and diagnostics.
Lectures, tutorials, laboratory work and projects. Tutorials, laboratory work and projects are compulsory and are performed individually.
A written examination is organised at the end of the course (10 credits). Laboratory work, exercises and projects are examined during the course and are equivalent to 5 credits. The final grade is given as a weighted average of the written examination and the other examined components.
The course can not be included in higher education qualification together with 1KB454 Molecular Recognition in Biological Systems, 15 cr.