Ultrapure SiPMs and Associated Readout Electronics group activity
The main focus of group 4 led by Dr Masayuki Wada is the development of light detectors based on Silicon Photo Multipliers (SiPMs) for experimental searches for new physics beyond the Standard Model, such as dark matter direction and neutrino-less double beta decay. The same technology will be applied to develop medical devices based on SiPMs.
One key physics goal is to use dedicated systems of SiPMs to look for the elusive dark matter in the Universe. In order to achieve extreme sensitivity of detectors, its components themselves must not generate any background that could potentially obscure the signal from dark matter. Another important physics goal is the search for so-called Majorana neutrinos. A similar detection technology enables us to look for this potential feature of neutrinos, which could shed lights on the reasons for why our Universe is mostly made up of matter and not antimatter.
The group works is in collaboration with local groups in Poland and international partners to develop radio-pure light detectors with high performance required for those exciting searches.
In a communiqué dated 29 December, the Ministry of Science and Higher Education announced its support for the project “Astrocent Plus – Particle Astrophysics Science and Technology Centre (Astrocent Plus)”. The aim of this initiative is to develop the Astrocent Centre of Excellence in the area of fundamental research combined with innovative applied research and development activities in particle astrophysics.
The Ministry will allocate a total of PLN 29.7 million (the equivalent of EUR 7 million) to the Nicolaus Copernicus Astronomical Center of the Polish Academy of Sciences (CAMK PAN). The funds will be disbursed in annual instalments through 2030.
On 19 December, the Foundation for Polish Science announced that it had awarded over PLN 34 million the project “Astrocent – Particle Astrophysics Technology Centre” in the MAB FENG competition.
Project description:
The overarching goal of the project is to develop breakthrough, highly scalable and multi-channel detection systems for scientific and commercial applications. The technologies being developed are crucial for research into the biggest questions of modern physics (including dark matter, neutrinos and gravitational waves), while also opening up new opportunities in areas such as medicine, security, environmental and climate monitoring, renewable energy, and seismology (including early-warning systems).
Share:
We use cookies to ensure that we give you the best experience on our website. If you continue to use this site we will assume that you are happy with it.
You can revoke your consent any time using the Revoke consent button.