Information page for Statistical Thermodynamics and Molecular Simulation (NAKE090/NAKE010)
Welcome to the Canvas information page for the course
Statistical Thermodynamics and Molecular Simulation, 7.5 credits
Please note: This page contains only general information about the course. It does not contain any course material. If you are a student on the course you have to log in to the Canvas portal in the site navigation to find the courses of your programme.
The syllabus was approved by the Research education board, Faculty of Science 2017-04-04. The syllabus applies from 2017-04-04.
Learning outcomes
The course aims to provide a basic understanding of Statistical Mechanics. An important goal is to provide a deeper understanding of Entropy, thus bridging the apparent contradiction between a microscopic (Statistical Mechanics) and a macroscopic (Thermodynamics) treatment.
Knowledge and understanding
On completion of the course the student will be able to:
• apply and utilize various Statistical Mechanical ensembles, and describe relations between these ensembles
• account for the connection between Statistical Mechanics and Thermodynamics.
Competence and skills
On completion of the course the student will be able to:
• apply numerical methods, such as Molecular Dynamics Metropolis Monte Carlo simulations
• use Statistical Mechanical tools with, as well as without, the aid of computer programs to calculate various properties of macroscopic systems.
Judgement and approach
On completion of the course the student will be able to:
• interpret results from numerical calculations, and analyse sources of error
• describe and present Statistical Mechanical theories for liquids and solutions, and
• also evaluate approximations and assess limitations.
Course content
Lectures: The course starts with an introduction of basic Statistical Mechanical concepts. Thermodynamical transformations are compared with corresponding Statistical Mechanical ensembles. Approximate theories for liquids and solutions. Simulation methods.
Tutorials: Here, the student acquires skills to utilize Statistical Mechanical tools.
Lectures and tutorials correspond to 6 credits (NAKE010).
Laboratory work and hand-ins correspond to 1.5 hp. (Cannot be accredited separate from the lecture part)
Course design
The teaching entails lectures and tutorials. The course also includes compulsory hand- in exercises, as well as laboratory work, where the latter includes written reports.
Assessment
The course is assessed with a written examination, and by the compulsory components. A re-sit examination is offered soon after the examination to students who do not pass.
Grades
Possible grades are Pass and Fail. To be awarded a passing grade on the whole course (7.5 credits NAKE009), students must pass the written exam and pass the compulsory components (laborations and hand-in assignments). Passing the exam, without passing the laborations and hand-in assignments, renders 6 credits (NAKE010).
Language of instruction
Swedish and English. When necessary, the course in full is given in English.
Entry requirements
Admitted to research studies at the Faculty of Science or Technology, and at least 15 credits in Mathematics and 30 credits in Physics or Physical/Theoretical Chemistry. Or corresponding knowledge.
Additional information
The course is given also in the second cycle, under the course code KEMM38. Students who have been awarded credits for KEMM38 cannot also get credits for the corresponding parts of NAKE009, and vice versa.
Course responsible teacher and unit/division
Martin Trulsson
Email: martin.trulsson@compchem.lu.se
Division of Computational Chemistry, KILU
Do you have questions? Please contact viveka.alfredsson@chem.lu.se