Postgraduate Courses in Physics
Postgraduate Courses for Research Students 2016/2017
The Department requires all PhD and MPhil candidates to attend taught lecture courses as part of their postgraduate training. This is in line with Research Council policy. If you have completed a Master level course, you may be exempt from this formal requirement. The guideline otherwise is for students to attends 30hrs of taught courses within the first 9M.
The Department offers many postgraduate lecture courses, some common to the Master course programmes, some aimed specifically at research students, and others designated for a broader audience. The courses listed below are the PGR options given last year. Note that these are subject to some changes year to year and it is useful to check with the course co-ordinator listed below. Masters taught courses can also be found in the document “post graduate taught courses in the department of Physics”.
There is also an extensive set of advanced undergraduate lectures, some of which will be appropriate for some postgraduate students. In addition dedicated external workshops many of which are organised through the Institute of Physics can be attended and also count towards the 30hr requirement. Supervisors will advise students on requirements and assist them in making appropriate choices among the courses.
Information on undergraduate courses, including timetables, can be obtained from the Student Administration Office on Level 3, and syllabuses are given in the Departmental website. Information on the specialist postgraduate courses/lectures, including the MSc programmes, can be obtained from the web pages, http://www.imperial.ac.uk/physics/ or from the individual research group, course co-ordinators.
The Graduate School runs academic training programmes and workshops, mainly in the areas of professional and transferable skills. Research students are required to attend a number of these courses. Information about the Graduate School is available at http://www3.imperial.ac.uk/graduateschool
Students planning to attend one or more courses from the MSc in Optics & Photonics should confirm attendance with either Dr K Weir or with Dr A Williamson.
Individual research groups and supervisors will determine the types of assessments for the courses undertaken. Assessment may be by written or oral exam, extended essay or report, assessed problem sheets, or talk/presentation. The results of each student’s assessments will be noted as part of the transfer assessment and filed with the student records, which are kept in the Postgraduate Office.
Content Subject Areas
Co-ordinator: Dr Jonathan Pritchard
Lectures for Postgraduates in astrophysics will cover a variety of astrophysical topics. The lectures themselves will be supplemented by a range of homework tasks to be handed in for assessment. More information will be available on the group web pages and at http://astro.ic.ac.uk/content/information-current-pg-students
We also expect all postgraduates to attend the weekly astrophysics seminars on Wednesday afternoons and our lunch-time journal club. PG lectures will commence in January
CONDENSED MATTER THEORY
Co-ordinator: Prof. K Christensen
The postgraduates are expected to attend the Condensed Matter Physics or Complexity & Networks seminars (fortnightly) and group seminars (weekly).
The postgraduates must also attend relevant lecture courses amounting to 25 hours or more identified in consultation with their supervisor(s). These courses can be MSc lectures, for example from the MSc course provided by the Centre for Doctoral Training on Theory and Simulation of Materials
(http://www.imperial.ac.uk/theory-and-simulation-of-materials/programmes/msc-in-theory-and-simulation-of-materials/), or courses (MSc or UG) in other groups, departments or outside the College. Some form of assessment (written or oral exam, essay or report, assessed problem sheets or oral presentation) is required.
Finally, the postgraduates should conduct a directed reading exercise, where the topic is chosen by the student and the supervisor. We urge that it includes problem solving and/or project based exercises and that some form of assessment is undertaken.
EXPERIMENTAL SOLID STATE PHYSICS
Co-ordinator: Dr Rupert Oulton
EXSS organizes a Postgraduate Seminars Series in the areas of Plastic Electronics, Functional Magnetism and Plasmonics. These seminars are led by members of Staff and Research Fellows with contributions also from senior research students and provide a broad overview and introduction to contemporary research topics in Solid State Physics at Imperial. All students are expected to attend the EXSS PG seminar series, which are held each week during term time on Wednesdays at 1-2pm in Blackett 1004.
The group also organizes frequent research seminars and a small number of Condensed Matter Colloquia with the Condensed Matter Theory group and throught the year. Student are encouraged to attend all research seminars and colloquia.
For the full timetable and further details, please refer to the EXSS website http://www3.imperial.ac.uk/experimentalsolidstate/
HIGH ENERGY PHYSICS
Coordinators: Dr A Tapper and Dr N Wardle
- Computing (Dr R Beuselinck, Prof D Colling)
- Grid Computing & Certification (Dr D Rand)
- Statistics (Prof L Lyons)
- Instrumentation & Detectors Overview (Dr A Tapper)
- Presentation Skills (Dr M Patel)
- Quantum Field Theory (optional) (Dr T Evans)
- Introduction to Quantum Field Theory (Dr J K Sedgbeer)
- Symmetries & Groups (Dr S Zenz)
- Standard Model – electro-weak sector & QCD sector (Prof E Leader)
- Collider Physics (Prof T Virdee, Prof GJ Davies, Dr R Bainbridge, Dr S Malik, Dr A Nikitenko, Dr A Magnan)
- Flavour Physics (Prof U Egede, Dr M Patel, Dr P Cartelle; Dr Y Uchida)
- Neutrinos (Dr M Wascko; Dr P Dunne; Dr P Litchfield)
- Particle Astrophysics (Prof H Araujo, Dr P Scott, Prof T Sumner, Dr A Vacheret, Dr N Smith)
- Accelerators (Dr J Pozimski, Prof K Long, Dr P Posocco, Dr J Pasternak, Dr J Lagrange)
Accelerators courses - Term 2
- Accelerators (optional) (Dr J Pozimski, Dr J Pasternak, Dr A Letchford, Dr L Evans - CERN)
- Instrumentation (Dr A Tapper, Dr M Pesaresi, Dr P Block, Dr K Uchida, Dr J Borge, Dr M McCann, Dr A Bundock, Dr A Rose, Dr G Auzinger)
- Multivariate Analysis Methods (Yandex)
- HEP and entrepreneurship (Dr J Hassard)
In addition to these courses, students are required to attend an advanced Quantum Field Theory course given to MSc students by the Theory Group.
All courses are given in the first two terms.
Co-ordinator: Prof L J Frasinski
The aim of this course is to provide training in experimental and theoretical methods used in the research of the Quantum Optics and Laser Science (QOLS) group. The course consists of two parts:
Introductory overviews (1-hour each, Autumn Term)
- Introductory Safety Lecture, Mr Brian Willey
- Probing electron dynamics in small molecules, Prof Leszek Frasinski
- High power laser research, Prof Roland Smith
- Intense laser–matter interaction, Prof Jon Marangos
- Ultrafast laser science, Prof John Tisch
- Inner shell processes in moleules and clusters, Dr Vitali Averbukh
- Laser cooling and trapping, Prof Ed Hinds
- Cold molecules, Dr Mike Tarbutt
- Laser cooling and trapping of ions in radiofrequency and Penning traps, Prof Richard Thompson
- Laser cooling of molecules, Prof Ben Sauer
- Quantum Information and metrology with trapped ions, Prof Richard Thompson
- Quantum information, Dr Florian Mintert
- Quantum optics, Prof Myungshik Kim
Detailed extensions (4-hour each, Autumn/Spring Term)
- Non-linear optics, Prof Geoff New
- Ultrafast Strong Field Interactions in Molecules, Prof Jon Marangos
- Inner-Shell Physics, Vitali Averbukh
- Theoretical methods for strong-field dynamics, Prof Misha Ivanov
- Photoion and photoelectron spectrometry, Prof Leszek Frasinski
- Ultrafast laser technology, Prof John Tisch
- High harmonic generation and attosecond pulses, Prof John Tisch
The extensions are accompanied by problems set as homework. The lecture notes and problem sheets are available on Blackboard.
PHOTONICS (MRes in Photonics and MPhil/PhD students)
Co-ordinators: Dr K Weir, Dr Carl Paterson
Photonics MRes students will be examined on the core lectures from the MSc in Optics and Photonics course that are given in the first term: Optical Measurement and Devices (Dr K Weir, Dr C Paterson); Lasers (Prof M Damzen/Dr C Dunsby); Imaging (Prof P Török/Dr C Dunsby); and either Plasmonics and Metamaterials (Prof O Hess, Dr V Giannini) or Optical Communications/Information Technology (Dr V Giannini, Dr R Oulton). In addition students are required to attend the Optics Laboratory course demonstration and standard experiment courses, also taken in the first term.
In the second term students may optionally take up to 4 units of Optics and Photonics option courses that are recommended to them in respect of their research areas. The actual course selection depends on the precise research topic but these will typically include: Fibre Technology (Dr S Popov); Optical Design (Prof P Török); Photonics Structures (Prof M McCall); Laser Technology (Prof J Tisch); Laser Optics (Prof E Hinds); Optical Displays (Prof A Campbell); Opto-electronic Components and Devices (tba); Biomedical Optics (Dr J McGinty); Nonlinear Optics (Dr K Weir).
They are also required to attend seminars offered by the Photonics Group and student presentations from the various Optics masters courses.
PhD students within the Photonics group may optionally attend any of the optics and photonics lecture courses listed above, and are particularly recommended to attend those relevant to their research topic. In addition they are required to attend both internal and external seminars offered by the Photonics Group.
PLASMA PHYSICS AND HIGH ENERGY DENSITY SCIENCE
Co-ordinator: Dr SPD Mangles
As a member of the Centre for Postgraduate Training in Plasma Physics and High Energy Density Science the plasma physics group postgraduate lectures are coordinated between Imperial College, the University of Oxford and the University of Warwick. We provide training in all aspects of plasma physics and high energy density science.
The training we provide is structured as follows:
Autumn School "Introduction to Plasma Physics"at the Cosener's House, Abingdon (14th – 18th November 2016). This week residential course covers: Basic Concepts in Plasmas, Fluid Basics, Single particle motion, drift motion, adiabatic invariants, Distribution Functions and the Vlasov Fokker Planck equation, Moments and the MHD equations, Waves in fluid plasmas, Collisions and Transport in Plasmas, Waves in Kinetic Plasmas
In addition to the Autumn school students have access to lectures and lecture material at Oxford, Imperial and Warwick in advanced research topics. Lectures at Imperial College take place on Wednesday afternoons over terms 1 and 2. Topics include:
Computational methods in plasma physics; Experimental Diagnostic Techniques; and a series of lectures introducing Research Topics in Plasma Physics including: Laser Plasma Interactions, Laser Plasma Interactions at Ultra-high Intensities, Inertial Confinement Fusion, Tokamaks, Dusty and Industrial Plasmas, Ionospheres in the Solar System, Z Pinches, Astrophysical plasmas / plasma turbulence, Introduction to Shocks and Equations of State, Laboratory Astrophysics
For more details, please contact Stuart Mangles, email@example.com
SPACE & ATMOSPHERIC PHYSICS
Coordinator: Dr A Voulgarakis
In order to give our PhD students a better background knowledge of the research done in the group as well as to enable them to obtain a better overall understanding of space, planetary, oceanic and atmospheric processes, we have put together a PG course run within the group.
The idea is to have several members of staff take responsibility for a core research topic which will be covered in 1 week, according to the following format:
- Two 1.5 hour lectures
- Some background reading given to the students
- Problem sheet (which should take 2-3 hours to complete)
- Follow up meeting with students at the end of the week
The core research topics to be covered are:
Basic Plasma Physics (Dr J. Eastwood); Planetary Atmospheres (Dr M. Galand & Dr I. Mueller-Wodarg); Heliospheric Physics (Dr R. Forsyth); Shocks-Turbulence (Prof. T. Horbury & Dr C. Chen); Solar wind interactions with planetary bodies (Dr A. Masters & Dr N. Achilleos); Atmospheric/Oceanic Circulation & Basic Geophysical Fluid Dynamics (Dr A. Czaja & Dr. E. van Sebille); The Carbon Cycle & Atmospheric Composition (Dr H. Graven & Dr A. Voulgarakis); Atmospheric Radiation/Thermodynamics & Climate Change (Dr H. Brindley & Prof. R. Toumi);,Instrumentation (Dr C. Carr & Dr J. Pickering); Methods and Tools in Space/Atmospheric Science (Dr A. Voulgarakis & Dr H. Brindley).
OPTICS & PHOTONICS (MSc Course)
Co-ordinator: Dr K Weir
- Optical Communications/Information Technology (Dr V Giannini/Dr R Oulton);
- Lasers (Prof M Damzen/Dr C Dunsby); Imaging (Prof. P Török/ Dr C Dunsby);
- Optical Measurement and Devices (Dr K Weir, Dr C Paterson);
- Plasmonics and Metamaterials (Prof S Maier/Prof O Hess);
- Fibre Technology (Dr S Popov); Optical Design (Prof. P Török);
- Photonics Structures (Prof. M McCall);
- Laser Technology (Prof. J Tisch);
- Laser Optics (Prof E Hinds);
- Optical Displays (TBC);
- Opto-electronic Components and Devices (Dr N Ekins-Daukes);
- Biomedical Optics (Dr J McGinty);
- Nonlinear Optics (Dr K Weir);
- Advanced Topics in Nanophotonics (Prof. M. McCall/Prof O. Hess/Dr R. Oulton)
QUANTUM FIELDS AND FUNDAMENTAL FORCES (MSc Course)
Co-ordinator: Prof. K. Stelle
- Particle Symmetries (Prof. D Waldram);
- Quantum Field Theory (Dr T Evans);
- Quantum Electrodynamics (Prof. C Contaldi);
- Unification (Prof. A Rajantie);
- Advanced Quantum Field Theory (Prof. D Waldram);
- Supersymmetry (Prof. A Tseytlin);
- Cosmology and Particle Physics (Prof. T Wiseman);
- Black Holes (Prof. J Gauntlett);
- Differential Geometry (Prof. C Hull);
- String Theory (Prof. A Hanany).
- The Standard Model and Beyond (Prof. K Stelle)
Course organiser: Dr WG Proud
Course delivered by Drs. S.N. Bland, D.J. Chapman, D.E.Eakins, W.G. Proud and invited speakers.
Shock physics focusses on high-pressure, the transmission of high amplitude stress waves and the behaviour of materials under intense transient loading. The subject is multi-disciplinary and is applied in areas as diverse as conditions at the core of planets, comet impacts, tsunami formation, quarrying and mining, blast protection and the biological effects of impact loading. The course involves introductory material from Materials Science, Chemistry and Mechanical Engineering as well as Physics. The course addresses theory, experiment and numerical modelling. The modules are taken as part of the MSc Physics Course or as a core element of the MSc Physics with Shock Physics degree.
Two modules (open to all)
Introduction to Shock Physics (term 1)
This module consists of 20 hours of lectures and 10 hours of tutorials. The content covers the fundamental science needed to develop a clear understanding of dynamic processes across a range of length scales (10-9 – 1010 m) and timescales (10-12 to 101 seconds).
Shock Physics in Context (term 2)
This course addresses the current methods, diagnostics and major experimental facilities. Examples of current research provide a series of vignettes around which the wider applications of this area are discussed.
You are advised to visit the Institute of Shock Physics website or contact the course director for more information. www.imperial.ac.uk/shockphysics
THEORY AND SIMULATION OF MATERIALS (MSc course)
Co-ordinator: Dr Arash Mostofi
This programme is a 12-month, 90-ECTS, Bologna-compliant MSc that provides a foundation in theoretical materials physics and its applications in simulations across length and time scales. The following lecture courses are available in the autumn term, subject to the agreement of the individual lecturers. Synopses are available on the course web page at http://www.imperial.ac.uk/theory-and-simulation-of-materials/programmes/msc-in-theory-and-simulation-of-materials/
- Mathematics for Theory of Materials – Part 1 (Dr G. Pruessner)
- Mathematics for Theory of Materials – Part 2 (Prof. W. M. C. Foulkes)
- Equilibrium in Materials – Part 1 (Dr S Angioletti-Uberti)
- Transformations of Materials – Part 1 (Prof. P. Haynes)
- Electronic Structure of Materials – Part 1 (Dr P. Tangney and Dr J. Lischner)
- Classical Field Theory of Materials – Part 1 (Prof. A. Sutton)