Research at SEPnet
A snapshot of what we do here at SEPnet.
One Vision
Combining the knowledge and resources of all six SEPnet universities to maximise their potential, it’s no surprise that our research initiatives are enjoying success in initiating collaboration, running workshops, strengthening interdisciplinary research links and gaining PhD studentships. Our primary research themes are incredibly diverse, and vary according to topic, construction and philosophy; they are listed first, while links to the even greater range of research in individual university groups are given below that.
Atomic & condensed matter - a successful collaboration between departments on the nature of matter and materials covering Metrology; Materials; Superconductivity; Photonics; Cold atoms and ions; Ion-trapping; Nano-technology and Materials; and Solid State Physics.
Atomic & condensed matter - a successful collaboration between departments on the nature of matter and materials covering Metrology; Materials; Superconductivity; Photonics; Cold atoms and ions; Ion-trapping; Nano-technology and Materials; and Solid State Physics.
Atomic & condensed matter - a successful collaboration between departments on the nature of matter and materials covering Metrology; Materials; Superconductivity; Photonics; Cold atoms and ions; Ion-trapping; Nano-technology and Materials; and Solid State Physics.
Particle Physics - LHC Experiments – Higgs & Supersymmetry; Accelerator Physics; Phenomenology; Lattice QCD. The NExT Institute nurtures a strong collective programme of research and training.
Particle Physics - LHC Experiments – Higgs & Supersymmetry; Accelerator Physics; Phenomenology; Lattice QCD. The NExT Institute nurtures a strong collective programme of research and training.
Particle Physics - LHC Experiments – Higgs & Supersymmetry; Accelerator Physics; Phenomenology; Lattice QCD. The NExT Institute nurtures a strong collective programme of research and training.
Astrophysics - spanning the Universe from planetary science to cosmology, and with strong regional, national and international roles in the LOFAR project. Coverage ranges across Cosmology and Evolution of the Universe; Dark Matter and Dark Energy; Galaxies and Active Galactic Nuclei; Stellar Formation and Evolution; Planetary Science (Exoplanets and Solar System); Nucleosynthesis; and Radio Astronomy.
Astrophysics - spanning the Universe from planetary science to cosmology, and with strong regional, national and international roles in the LOFAR project. Coverage ranges across Cosmology and Evolution of the Universe; Dark Matter and Dark Energy; Galaxies and Active Galactic Nuclei; Stellar Formation and Evolution; Planetary Science (Exoplanets and Solar System); Nucleosynthesis; and Radio Astronomy.
Astrophysics - spanning the Universe from planetary science to cosmology, and with strong regional, national and international roles in the LOFAR project. Coverage ranges across Cosmology and Evolution of the Universe; Dark Matter and Dark Energy; Galaxies and Active Galactic Nuclei; Stellar Formation and Evolution; Planetary Science (Exoplanets and Solar System); Nucleosynthesis; and Radio Astronomy.
Data-Intensive Science (DISCnet) - particle physics and astrophysics have been at the forefront of the application of modern computer analysis techniques, such as machine learning, to data-rich research problems, including those beyond the discipline boundaries
Data-Intensive Science (DISCnet) - particle physics and astrophysics have been at the forefront of the application of modern computer analysis techniques, such as machine learning, to data-rich research problems, including those beyond the discipline boundaries
Data-Intensive Science (DISCnet) - particle physics and astrophysics have been at the forefront of the application of modern computer analysis techniques, such as machine learning, to data-rich research problems, including those beyond the discipline boundaries
