Completed Physics & Astronomy Materials & Manufacturing

A programme of Astrophysics, Cosmology and Technology in Cardiff 2013-2016

In plain English

AI plain-English summary

Astronomers in Cardiff are building the world's most sensitive detectors for very long infrared wavelengths, using artificially designed "metamaterials" rather than natural minerals or plastics. This programme of astrophysics and cosmology research aims to understand how stars and planets form in our own and other galaxies, how galaxies evolve, and how the Universe began with the big bang. The team will exploit data from the Herschel satellite and other observatories, and develop sophisticated statistical methods to analyse large datasets from the Planck satellite and other cosmological surveys. The detector technology they are advancing has potential applications beyond astronomy—in security scanners and bio-medical imaging, for example. They also plan to develop the capability to obtain a spectrum from every point in a large-area image of the sky, which is essential for determining how far away distant objects are and what conditions exist in the gas that makes up those objects. This is primarily fundamental science, driven by curiosity about how the Universe works, but the technology developed along the way could quietly improve systems people rarely think about.

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We propose a programme of Astrophysics, Cosmology and Technology development for Astrophysics and Cosmology, to investigate star and planet formation in our own and other galaxies, how galaxies form and evolve, and how the Universe we see around us today originated in the big bang. We will use our world-leading position in exploitation of the Herschel satellite galactic and extragalactic surveys, along with complemeantary observations with other facilities and theoretical modelling. We will also develop new sophisticated yet robust statistical methods for exploiting the large datasets emerging from the Planck satellite and other large cosmological surveys. We will continue to develop the world's most sensitive detectors for very long infrared wavelengths, along with associated optical components utilising 'metamaterials' the class of materials designed and manufactured by human beings to have the properties best suited to their task, rather than relying on naturally occurring minerals and plastics. Both of these areas of technology development have potential wide applications outside of Astronomy, in areas such as security scanners and bio-medical imaging for example. The technologies used for imaging can also be extended to undertake spectroscopy, and we propose a programme to develop the capability to obtain a spectrum of every point in a large area image of the sky, which is essential for understanding how far away the objects found in deep surveys are, but also what the conditions in the gas that make up these objects are.

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Researchers

Anthony Whitworth (Co-Investigator)Carole Tucker (Co-Investigator)Enzo Pascale (Co-Investigator)Haley Gomez (Co-Investigator)Matt Griffin (Co-Investigator)Peter Ade (Co-Investigator)Philip Mauskopf (Co-Investigator)Simon Doyle (Co-Investigator)Stephen Eales (Co-Investigator)Walter Kieran Gear (Principal Investigator)

Related Research

Grants with similar aims, by meaning.

A Programme of Astrophysics, Cosmology and Technology in Cardiff 2016-19
A Programme of Technology, Astrophysics and Cosmology in Cardiff 2019-22
A Programme of Technology, Astrophysics and Cosmology in Cardiff 2012-14
A Programme of Technology, Astrophysics and Cosmology in Cardiff, 2022-2025
Astrophysics and Cosmology at the University of Sussex (2011-2016)

Original classification

Research Grant

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