Introduction to Computational Chemistry
Summary
The course is aimed at those who want to develop their skills in computational chemistry and molecular modelling. You gain hands-on experience with computational chemistry programmes and explore the role of AI in the field. After completing the course, you are well prepared for advanced studies and for work in research or industry where computational chemistry is applied.
About
Computational chemistry programmes are today an important tool for solving chemical problems. The programmes are user-friendly, but to obtain relevant and reliable answers to your questions, you need to use them correctly.
In the course Introduction to Computational Chemistry, you work hands-on with computational chemistry programmes to analyse and understand reaction mechanisms, interpret measured IR or NMR spectra, and describe complex systems such as electrolytes, nanoparticles, proteins, DNA and ligand–receptor complexes under realistic conditions, for example in aqueous solution or at room temperature.
You receive an introduction to quantum chemical methods, in particular density functional theory (DFT), the “workhorse” of modern quantum chemistry. You also work with molecular mechanics in combination with molecular dynamics and Monte Carlo methods. You gain an understanding of the basic ideas, strengths, weaknesses and potential pitfalls of the different methods. In addition, you examine how artificial intelligence (AI) influences computational chemistry and its applications.
In the course’s extensive computer laboratories, you work practically with the methods and concepts.
Teaching
Teaching consists of lectures, seminars and computer-based laboratory sessions. The laboratory sessions are mandatory. Assessment includes active participation in the laboratory sessions, written reports and a written examination.
The course is taught in English.
Prerequisites and selection
Entry requirements
For admission to the course, passed courses in science comprising 90 credits (or, alternatively, passed courses in pharmacy/medicine comprising 120 credits) are required, which must include course KEM040 Physical chemistry (15 credits), alternatively course FYP203, Quantum Physics A, or equivalent knowledge. Knowledge in mathematics corresponding to course MMGK11, Mathematics for Science (15 credits) is recommended.
Selection
Selection is based upon the number of credits from previous university studies, maximum 165 credits.
After graduation
The course can be included in the following programs:
- Bachelor’s program in Chemistry (N1KEM)
- Master´s program in Chemistry (N2KEM)
- Master’s Program in Organic Chemistry and Medicinal Chemistry (N2KEL).
The course can also be applied for as a stand-alone course.
Facilities
The course is given on Campus Medicinareberget.