BUTTON-30
Lead Research Organisation:
University of Liverpool
Department Name: Physics
Abstract
The Boulby Underground Technology Testbed Observing Neutrinos (BUTTON) project aims to develop a 30-tonne test-stand#. It serves as a platform for future ktonne neutrino detectors using Gadolinium-doped water-based liquid scintillator (Gd-WbLS) technology. The project involves a consortium of organizations, including research institutions and national laboratories.
The motivation behind the project is to develop the technology for detecting neutrinos. Adding WbLS improves the energy threshold and resolution, while gadolinium enables the detection of coincident neutron captures. By combining these additives, the sensitivity and performance of the detector can be enhanced. BUTTON-30 will also demonstrate the feasibility of Gd-WbLS techniques and evaluate new photo-sensor technologies.
The project includes various work packages such as management, tank fabrication, optical modules, data acquisition (DAQ), calibration, simulation and analysis, operations, and future deployment planning. The research program aims to prepare the experiment for WbLS operations, characterize the detector's performance, and develop procedures for future deployment. The project has potential applications in neutrino physics, dark matter detection, and non-proliferation efforts.
Overall, BUTTON-30 is a crucial step towards developing larger-scale neutrino detectors and mitigating risks associated with their deployment.
The motivation behind the project is to develop the technology for detecting neutrinos. Adding WbLS improves the energy threshold and resolution, while gadolinium enables the detection of coincident neutron captures. By combining these additives, the sensitivity and performance of the detector can be enhanced. BUTTON-30 will also demonstrate the feasibility of Gd-WbLS techniques and evaluate new photo-sensor technologies.
The project includes various work packages such as management, tank fabrication, optical modules, data acquisition (DAQ), calibration, simulation and analysis, operations, and future deployment planning. The research program aims to prepare the experiment for WbLS operations, characterize the detector's performance, and develop procedures for future deployment. The project has potential applications in neutrino physics, dark matter detection, and non-proliferation efforts.
Overall, BUTTON-30 is a crucial step towards developing larger-scale neutrino detectors and mitigating risks associated with their deployment.
People |
ORCID iD |
| Jonathon Coleman (Principal Investigator) |
| Description | DOE/NNSA |
| Organisation | National Nuclear Security Administration |
| Country | United States |
| Sector | Public |
| PI Contribution | Our research team has contributed to the DOE/NNSA collaboration by providing expertise in detector assembly and calibration, as well as training staff in advanced instrumentation techniques. Additionally, we have facilitated access to specialized equipment and facilities essential for the successful implementation of the project. |
| Collaborator Contribution | Our partners have contributed to the collaboration by providing critical components, technical expertise, and logistical support for the detector installation. They have also offered access to specialized facilities and resources, ensuring the successful execution of key project milestones. |
| Impact | This collaboration has resulted in several key research outcomes, including technical reports, and advancements in detector assembly methodologies. This collaboration is multidisciplinary, involving expertise from physics, engineering, and data science. The integration of these disciplines has been essential in addressing the technical challenges associated with detector development and deployment. |
| Start Year | 2020 |