Active Physics & Astronomy Computing & AI

DUNE Data Acquisition Project Stage 2

In plain English

AI plain-English summary

A neutrino beam fired from Fermilab will travel 1300 kilometres through the Earth to a set of detectors buried 1500 metres underground, and this project builds the system that decides which of the resulting data to keep. Neutrinos are the most abundant matter particles in the universe but remain poorly understood because they barely interact with anything. DUNE, the Deep Underground Neutrino Experiment, aims to measure their properties with unprecedented precision, to understand why the universe contains far more matter than antimatter, and to detect the neutrino burst from a nearby supernova. The detectors use liquid argon to capture neutrino interactions, but they generate data at a huge rate. The data-acquisition system built here will receive that torrent, perform real-time processing to identify scientifically interesting events, and discard the rest. This is fundamental science with no immediate practical application. It addresses open questions about the fundamental laws of physics—why matter exists at all, and how neutrinos behave. Similar curiosity-driven experiments have historically led to unexpected breakthroughs, such as the development of the World Wide Web at CERN. A deeper understanding of neutrino properties could, in the long term, reshape how we think about the universe and might eventually inform new technologies for detecting particles or managing data at extreme scales.

View original technical description
In this project, we will build the data-acquisition system for the Deep Underground Neutrino Experiment (DUNE). Neutrinos are the most abundant matter particles in the universe, yet they are still poorly understood due to their weak interactions. DUNE is a leading edge, international experiment that will make precision measurements to further our understanding of neutrino properties and the matter-antimatter asymmetry in the Universe, and potentially to detect the neutrino burst originating from a nearby supernova. The experiment comprises a neutrino beam created at Fermilab, USA, which travels 1300km through the Earth to a set of vast detectors located 1500m below the surface at the Sanford Underground Research Facility. These detectors use 70kton of liquid Argon to detect the neutrinos and measure their interactions with exquisite precision. The detectors will generate data at a huge rate, up to 10TBps. The data-acquisition system that we aim to construct in this project will receive this data, perform real-time processing to identify data of interest and reduce the overall data rate to less than 1GBps. The project will use custom electronics, high-performance software engineering and distributed computing techniques to achieve these aims.

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Researchers

David Cussans (Co-Investigator)Jim Brooke (Principal Investigator)Jonas Rademacker (Co-Investigator)Sudarshan Paramesvaran (Co-Investigator)

Related Research

Grants with similar aims, by meaning.

Preparation for the Deep Underground Neutrino Experiment and Measurement of Pion-Argon Cross-sections
Development of the DUNE neutrino experiment and the study of neutrinos
DUNE Trigger & Physics Studies
Neutrino physics at DUNE
Precision studies of neutrino oscillation physics at the DUNE experiment

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Research Grant

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