Field programmable gate arrays (FPGAs) are configurable digital electronic devices capable of providing high-speed, low-latency and controlled latency digital interfaces to experiments. For example, FPGAs have been used in fluorescence lifetime measurements, various imaging methods, detection of photon correlations, gravitational wave detectors, and gravimeters. This course will equip students with the basic knowledge of how to interface physics experiments to digital electronics, and how to program FPGAs. An introduction to hardware description languages (HDLs) is given on the example of Verilog. HDLs are fundamentally different from computer programming languages and understanding them is crucial for the use of FPGAs. After completion, participants will be able to integrate FPGAs into their own experiments, create simple FPGA configurations, understand common problems and strategies to overcome them, and be aware of resources to help extend these skills

Lecturer: Carlos Garcia Nuñez

Institution: UWS

Hours Equivalent Credit: 6

Assessment: Continuous Assessment

Course Summary

This course provides an introduction to uncertainty in measurement.  

Topics will include: random error and relation to statistics; probability distributions and their properties; calculation and estimation of uncertainty; least squares model; applications of data analysis.

The course will be in the form of a maths primer intended for beginning PhD students in condensed matter, solid state and photonics. The topics which will be covered include: Matrix diagonalisation, complex integration and residues, Fourier transforms, and a discussion on different notations which the students will encounter during their studies.

Lecturer: Patrik Öhberg

Institution: Heriot Watt

Hours Equivalent Credit: 6

Assessment: Continuous Assessment