Want to know what it's like to study this course at uni? We've got all the key info, from entry requirements to the modules on offer. If that all sounds good, why not check out reviews from real students or even book onto an upcoming open days?
PhD/DPhil - Doctor of Philosophy
Cardiff University
Full Time
APR-25
3 years
Select a course option
PhD/DPhil - Doctor of Philosophy
Cardiff University
Full Time
JUL-25
3 years
PhD/DPhil - Doctor of Philosophy
Cardiff University
Full Time
JAN
3 years
PhD/DPhil - Doctor of Philosophy
Cardiff University
Full Time
APR-25
3 years
PhD/DPhil - Doctor of Philosophy
Cardiff University
Part Time
JAN
5 years
PhD/DPhil - Doctor of Philosophy
Cardiff University
Part Time
JUL-25
5 years
PhD/DPhil - Doctor of Philosophy
Cardiff University
Part Time
APR-25
5 years
Select a an exam type
Gravitational Physics is a research area within which you can focus your studies as part of our suite of Physics and Astronomy research programmes (MPhil, PhD).
Overview
The Gravitational Physics Group is one of the largest research groups in the School of Physics and Astronomy. We focus on the detection and study of gravitational waves from astrophysical systems such as black-hole and neutron-star binaries, supernovae, and gamma-ray bursts. Group members are also leaders in the field of numerical relativity, simulating collisions of black holes using large computer clusters.
The Group co-founded the British-German GEO 600 gravitational-wave detection project and is a leading member of the LIGO Scientific Collaboration. We are active members of collaborations studying the scientific benefits of the proposed space-based LISA system and the future Einstein Telescope (ET). As a part of this research we develop novel algorithms and software that have become standard search tools. Cardiff also acts as a data centre for GEO 600 and LIGO, with the data analysed in-house using large computer clusters.
Other theoretical research focuses on quantum processes in the early Universe, cosmic microwave and gravitational wave backgrounds, the formation, evolution and nature of largescale structure in the Universe, and alternative formulations of general relativity. We have developed an on-line game called Black Hole Hunter to illustrate how we look for gravitational wave signals from merging black hole binaries. The challenge is to listen to a set of audio tracks and identify the one containing the signal from a black hole merger.
For Entry requirements for this course, please visit our website.
Students living in
DomesticStudents from Domestic
For tuition fees for this course, please visit our website.
Students from Other UK
This is the fee you pay if the University is not in the same country that you live in (England, Scotland, Wales, Northern Ireland)
Students from EU
For tuition fees for this course, please visit our website.
Students from International
For tuition fees for this course, please visit our website.