Detector R&D : Future particle physics detectors

The future of particle physics depends on better and more advance detectors. We propose here master projects on new emerging technologies that can be important for the future

The future of particle physics is dependent on the development of new and improved detectors. AI is currently changing how the research in this field is progressing both for the research on new sensor materials but also how large scale detectors will be built and optimised. New future experiments could be the Future Circular Collider (FCC) at CERN, which is a proposed next-generation, higher-performance particle collider designed to succeed the Large Hadron Collider (LHC). It features a 91-kilometer underground ring and will collide particles at unprecedented energies to investigate new physics beyond the Standard Model. At the same time smaller quantum detectors opens up a new area of smaller experiments which we are interested in exploring during the next years.

Several master projects are currently available working on the Inner Tracker:

A. The Transient Current Technique (TCT) is a powerful diagnostic tool used to characterize semiconductor radiation detectors and sensors. It involves generating short pulses of free charge carriers inside a reverse-biased sensor using a laser and analyzing the resulting electrical current signals induced on the device electrodes. We have diodes and sensors that needs to be tested and analysed with this technique. In addition, the program for operating the TCT machine and the analysis software need to be improved. This work with be in close collaboration with one of our PhD students.

B. Quantum: Simulations of the effect of defects/holes in silicon made with anti-protons at CERN. Anti-matter annihilates with matter and makes rather large wholes as impact on silicon which may have interesting effects for detection of other particles or for other particle-physics experiments. The work would be to simulate what happens in such a scenario taking into account the production processes at CERN and possible applications .

C. Other projects in discussion with the student.

Courses relevant from the bachelor's degree:

FYS3500 – Introduction to Nuclear and Particle Physics

FYS3150 – Computational Physics

FYS-STK3155 – Applied Data Analysis and Machine Learning

FYS3110 – Quantum Mechanics

Recommended courses for theoretical curriculum in the master's programme:

FYS4505 – Methods and Instrumentation for Nuclear and Particle Physics

FYS4555 – Particle Physics

FYS5429 – Advanced machine learning and data analysis for the physical sciences

FYS4565 – Physics and Applications of Accelerators and Beams

FYS4280 – Semiconductor Components

FYS4310 – Material Science of Semiconductors

FYS4170 – Relativistic Quantum Field Theory

FYS5555 – Research-Based Particle Physics

FYS4150 – Computational Physics

FYS-STK4155 – Applied Data Analysis and Machine Learning

FYS4220 – Real Time and Embedded Data Systems

FYS4240 – Data Acquisition and Control

FYS4231 – Sensors and Measurement Technology

FYS4240 – Data Acquisition and Control

FYS4411 – Computational Physics II: Quantum Mechanical Systems (discontinued)

 

Published Sep. 15, 2026 10:45 AM - Last modified Sep. 15, 2026 10:45 AM