|ATOMIC AND NUCLEAR PHYSICS WITH APPLICATIONS||FAFF10|
The course is an important part of a larger course package in physics. Based on quantum mechanics, it gives the basis of fundamental atomic and nuclear physics, as well as technical applications, e.g., laser technology and environmental measurement techniques. It gives a broad orientation about microcosm, while at the same time including detailed studies of selected topics. The aim of this is to simultaneously practice quantum mechanical problem solving, and to stimulate the interest for further studies in the subject. By highlighting important technical applications the course aims at illustrating the mutual dependence between technology and basic science.
Knowledge and understanding
For a passing grade the student must
be able to perform quantum mechanical calculations on systems with spherical symmetry
be able to describe, and in simple cases quantitatively estimate, the energy structure of an atom, using quantum mechanical methods
be able to describe different types of radiation, and the interaction between radiation and matter
have received insight into how different phenomena in atomic and nuclear physics may in principle have the same quantum mechanical background, but with different orders of magnitude, e.g., energy level structures and emission or absorption of radiation
have received a deepened insight into the close and mutual interaction between technology and natural science, and to be aware of and be able to describe typical technical applications of atomic and nuclear physics.
Skills and abilities
For a passing grade the student must
have developed his/her ability to plan, perform and analyze experiments and to present scientific results in writing
have improved skills in finding scientific information relevant for a report within the scientific area of the course
have improved skills for written and oral presentations.
Quantum mechanical formalism extended from earlier courses in physics. The harmonic oscillator. Spherical symmetry and angular momentum. Hydrogenlike atoms. Approximation methods. Calculations on problems in atomic- and nuclear physics.
Size and mass of atoms. Models for atoms. Electron spin and space quantisation. Atoms in external electric and magnetic fields. Addition of angular momenta, configuration, term, level and sublevel. Many-electron atoms and the central field approximation. The periodic table. Spontaneous emission and selection rules. Stimulated emission and lasers action. Spectroscopic methods.
Size, structure and mass of the atomic nucleus. Nuclear models. Strong and weak interaction. Radioactive decay, emission of alpha, beta and gamma radiation. Nuclear collisions. Fission and fusion. Interaction between radiation and matter. Nuclear measurement instrumentation. Reactor physics, medical applications, ion-beam analysis and astrophysics.
Ohlén, G: Kvantvärldens fenomen - teori och begrepp. Studentlitteratur 2005.
Foot, C.J.: Atomic Physics. Oxford University Press 2004.
Krane, K.S.: Introductory Nuclear Physics, Wiley, 1 edition. ISBN: 978-0471805533.
Laborationshandledning, Atom- och Kärnfysik för F, KFS 2009.
Name: Laboratory Work.
Higher education credits: 4,5. Grading scale: UG. Assessment: Approved written laboratory report after each laboratory exercise. Contents: Experimental work as laboratory exercises in small groups. Preparation before and reporting after each exercise is mandatory.
Higher education credits: 1,5. Grading scale: UG. Assessment: Oral presentation (20 minutes) in front of audience, describing the project selected. Normally two students present jointly one project. Contents: Deeper studies related to an application within atomic or nuclear physics. Can be either experimental or theoretical studies.
Higher education credits: 2,5. Grading scale: TH. Assessment: Written examination.
Higher education credits: 6,5. Grading scale: TH. Assessment: Written examination.