MENA9010 – Nanophysics
Schedule, syllabus and examination date
Changes in the course due to coronavirus
Autumn 2020 the exams of most courses at the MN Faculty will be conducted as digital home exams or oral exams, using the normal grading scale. The semester page for your course will be updated with any changes in the form of examination.
Nanoscience is referred to as a research area devoted to studies of various phenomena in small-size devices. It is a cross-disciplinary field including physics, chemistry and to some extent biology.
The heart of nanoscience is mesoscopic physics. The word ``meso´´ reflects the fact that the size of the systems under consideration is located between microscopic (atoms) and macroscopic scales. In particular, it includes the systems dominated by elemental quantum processes - single-electron tunneling, ballistic and single-spin transport, Coulomb blockade.
Mesoscopic physics is based upon quantum theory; it includes quantum mechanics and statistics of interacting particles, physics of irreversible processes, physics of random systems, etc. At present time, mesoscopic physics - both experimental and theoretical - is a research topic of the majority of research groups at many universities and high-tech companies.
The course aims at an introduction to basic principles of nanophysics allowing working in research and development in nanotechnology. Students will learn basic principle of physics of nanometer-size systems with a focus on basic physical phenomena. In addition to elucidating the basic theoretical concepts, main application to existing and future electronics, including devices for realization of quantum computation algorithms, will be discussed.
Why do we need nanometer-sized devices? Road map of modern electronics: From CMOS technology to molecular electronics, spintronics, nanophotonics, and quantum computations.Mesoscopic transport: Brief overview of main principles, materials, and devices. A Brief Update of Conventional Solid State Physics. Crystal structures. Electronic energy bands and their occupation, envelope functions and effective mass, doping.Diffusive transport, scattering mechanisms, screening. Surfaces, Interfaces, and Layered Devices Electronic surface states. Semiconductor-metal interface. Semiconductor heterostructures. Field-effect transistors and quantum wells. Mesoscopic Physics. Two-dimensional electron systems: general properties, magneto-conductance, the quantum Hall effect. Quantum Wires and Quantum Point Contacts: Diffusive quantum wires, ballistic wires (conductance quantization), carbon nanotubes, quantum point contacts Electronic Phase Coherence: The Aharonov-Bohm effect, weak localization, resonant tunneling. Single-Electron Tunneling: Coulomb blockade, single-electron tunneling devices, electron pumping, etc. Quantum Dots: Role of electron-electron interaction, conductance resonances, etc. Mesoscopic superconductivity: Josephson effect and its applications, hybrid systems, etc. New Directions in Electronics. Spintronics, Molecular Electronics, Nanomechanics, Nanophotonics, Devices for Quantum Computation. Experimental Aspects (will be presented by students and taken into account for the exam grade). Sample growth and fabrication: Single crystal growth; growth of layered structures, epitaxy -liquid phase epitaxy (LPE), molecular chemical vapor deposition (MOCVD), molecular beam epitaxy (MBE), magnetron sputtering, etc. Lateral patterning (electron beam patterning) and bonding. Sample characterization: Electron microscopy (TEM, SEM); Tunneling microscopy (STM); Secondary ion mass spectroscopy (SIMS); X-ray spectroscopy; Elements of cryogenics.
Admission to the course
PhD candidates from the University of Oslo should apply for classes and register for examinations through Studentweb.
If a course has limited intake capacity, priority will be given to PhD candidates who follow an individual education plan where this particular course is included. Some national researchers’ schools may have specific rules for ranking applicants for courses with limited intake capacity.
PhD candidates who have been admitted to another higher education institution must apply for a position as a visiting student within a given deadline.
Recommended previous knowledge
A bachelor's degree from the bachelor's programme Materials, Energy and Nanotechnology, or equivalent.
- FYS3110 – Quantum Mechanics
- FYS4130 – Statistical Mechanics
- FYS3410 – Condensed matter physics (continued)
- 10 credits overlap with MENA5010 – Nanophysics.
This is an intensive course. Teaching consists of six academic hours of lectures per week during eight weeks. In addition to this, there will be time for student’s presentations of their chosen subject linked to nanophysics.
In teaching, student’s active learning is strongly encouraged, in which students in their presentations and address other students and discuss with them details of derivations with comments and help of teacher. A component of preliminary work with the subject and a discussion with student, rather than continuous lecturing, is constantly increasing during the course. In discussions, the stronger students are helping students with lower background, using advantage of being able to quicker recognise problems they could face. The help of PhD students to Ms students is highly encouraged.
The presentation counts for 40% of the final grade, and the final oral examination counts 60%. You have to receive a passing grade on the presentation in order to take the final oral exam.
It will also be counted as one of the three attempts to sit the exam for this course, if you sit the exam for one of the following courses: MENA5010 – Nanophysics
Examination support material
No examination support material is allowed.
Grades are awarded on a pass/fail scale. Read more about the grading system.
Resit an examination
This course offers both postponed and resit of examination. Read more: