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| MicroBooNE Collaboration | |
|---|---|
| Name | MicroBooNE Collaboration |
| Caption | MicroBooNE detector at Fermi National Accelerator Laboratory |
| Formed | 2015 |
| Parent organization | Fermi National Accelerator Laboratory |
| Type | Scientific collaboration |
| Location | Batavia, Illinois |
| Members | Institutions from United States, Canada, United Kingdom, Switzerland |
MicroBooNE Collaboration The MicroBooNE Collaboration is an international scientific consortium operating the MicroBooNE liquid argon time projection chamber at Fermi National Accelerator Laboratory on the Booster Neutrino Beamline, involving institutions from United States, Canada, United Kingdom, and Switzerland. The collaboration links accelerator facilities such as the Booster Neutrino Beam, detector technologies developed at CERN and Brookhaven National Laboratory, and theory groups connected to University of Chicago and Columbia University to address anomalies observed in past experiments like LSND and MiniBooNE. Participants include researchers affiliated with national laboratories such as Fermilab and universities including University of Michigan, MIT, and University of Oxford.
MicroBooNE was conceived as part of a broader program following signals reported by LSND and MiniBooNE, with design and construction influenced by prototypes at ArgoNeuT and conceptual work from ICARUS. The project integrates cryogenic engineering from Fermi National Accelerator Laboratory with readout electronics research from Brookhaven National Laboratory and software frameworks inspired by ROOT and collaborations like NOvA and DUNE. The collaboration’s governance combines practices from Department of Energy-funded projects and university consortia modeled on CERN experiments.
The MicroBooNE detector is a liquid argon time projection chamber located in the Booster Neutrino Beamline at Fermilab, featuring a cryostat engineered with contributions from SLAC National Accelerator Laboratory and instrumentation groups familiar with MicroBooNE-class designs. The detector’s wire planes and cold electronics were developed by groups at University of California, Berkeley, Yale University, and University of Warwick, while photon detection systems drew on technology from Sandia National Laboratories and TRIUMF. The experimental hall interfaces with beam monitoring systems used by NuMI and MINOS experiments and aligns with accelerator operations coordinated by Fermilab Accelerator Division.
MicroBooNE’s principal physics objectives target short-baseline neutrino anomalies associated with results from LSND and MiniBooNE, precision measurements of neutrino-argon interactions relevant to DUNE, and searches for beyond-Standard-Model signatures considered by theorists at Institute for Advanced Study and Perimeter Institute. The program includes cross-section measurements that inform simulations used by T2K and NOvA, investigations of neutrino-induced single-photon production connected to analyses by IceCube and Super-Kamiokande, and tests of sterile neutrino hypotheses discussed in workshops at CERN and Los Alamos National Laboratory.
The collaboration comprises principal investigators, postdoctoral researchers, and graduate students from institutions such as University of California, Los Angeles, University of Pennsylvania, University of Toronto, and University of Oxford, coordinated through management bodies modeled after Fermilab experiment governance and review panels like those used by DOE Office of Science. Leadership rotated among representatives from Brookhaven National Laboratory, Columbia University, and University of Chicago, with institutional boards and technical coordination committees mirroring structures at CERN collaborations and consortia such as DUNE and NOvA.
Data processing employed a software stack built on tools like ROOT and concepts from GEANT4, with experiment-specific frameworks influenced by LArSoft and analysis practices used by MINERvA and MicroBooNE partner experiments. Calibration procedures referenced methods developed at Argonne National Laboratory and algorithms comparable to those used by ATLAS and CMS collaborations, while machine learning efforts leveraged techniques popularized in projects at Stanford University and Carnegie Mellon University.
MicroBooNE produced publications addressing the low-energy excess reported by MiniBooNE, neutrino-argon cross sections relevant to DUNE, and searches for rare processes considered by theorists at Harvard University and Princeton University, with results disseminated through journals and conferences such as Physical Review Letters and the Neutrino Conference. Key papers involved collaborations among groups from Yale University, University of California, Berkeley, and TRIUMF, and were discussed at seminars hosted by Fermilab and workshops at CERN.
The collaboration engaged in outreach activities with programs connected to Fermilab’s education office, partnerships with university outreach offices at University of Chicago and University of Michigan, and public engagement events similar to those organized by CERN and Perimeter Institute. Training for graduate students and postdocs mirrored career-development efforts found at DOE laboratories and professional networking promoted through conferences such as the APS April Meeting.
Category:Neutrino experiments Category:Fermilab experiments