1) Introduction to high power lasers. Chirped pulse amplification.
2) Theory of laser plasma interaction: plasma description; linear waves; non-linear effects; parametric interaction; plasma optics.
3) Laser-plasma wakefield accelerators: underdense plasma; ponderomotive force; relativistic effects; laser self-guiding; laser depletion; plasma bubble formation; electron injection and acceleration; electron dephasing.
4) Radiation sources based on laser-plasma accelerators: terahertz single cycle pulses to brilliant gamma ray pulses; plasma as an optical amplifier.
5) High power laser pulse interactions with dense targets: Overview of laser-solid interactions; energy absorption mechanism; ion acceleration; sheath acceleration and radiation pressure acceleration; relativistic transparency; laser-driven shock waves.
6) High field effects: conservation of energy and the radiation reaction force; creation of electron-positron pairs from strong fields and colliding photons; nonlinear corrections to Maxwell’s equations and vacuum birefringence.

 Students will be able to demonstrate knowledge of topics listed in syllabus and to apply that knowledge to related problems.

Lecturer: Tom Davinson
Institution: Edinburgh
Hours Equivalent Credit: 4
Assessment: Continuous Assessment

Course Summary
The objective of this short course of lectures is to provide students with an insight into state of the art of nuclear instrumentation technology and techniques - particular emphasis will be given to topics either not found, or not well-covered, in the standard textbooks. Topics will include: noise, interference, grounding and other black arts, the origins of detector energy and time resolution,  ASICS, data acquisition and analysis, and digital signal processing.

The course will cover the following topics: Introduction to fundamentals of QCD, why are models necessary when you’ve got QCD, quark model predictions of hadronic states, properties of the nucleon and its resonances, “missing” baryonic resonances, pentaquarks - salutory lesson or crucial discovery, experimental techniques, partial wave analysis, the search for exotic states: hybrid mesons, glueballs.

Assessment: Final exam, of approximately 2 hours 

Coursework: Approximately 1 hour per week in addition to lectures Course Summary 

Hours Equivalent Credit:

This course is cross listed with the Particle Physics theme.