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Design of a SiPM-on-Tile ZDC for the future EIC and its Performance with Graph Neural Networks
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We present a design for a high-granularity zero-degree calorimeter (ZDC) for the upcoming Electron-Ion Collider (EIC). The design uses SiPM-on-tile technology and features a novel staggered-layer arrangement that improves spatial resolution. To fully leverage the design's high granularity and non-trivial geometry, we employ graph neural networks (GNNs) for energy and angle regression as well as signal classification. The GNN-boosted performance metrics meet, and in some cases, significantly surpass the requirements set in the EIC Yellow Report, laying the groundwork for enhanced measurements that will facilitate a wide physics program. Our studies show that GNNs can significantly enhance the performance of high-granularity CALICE-style calorimeters by automating and optimizing the software compensation algorithms required for these systems. This improvement holds true even in the case of complicated geometries that pose challenges for image-based AI/ML methods.
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Cited by 2 Pith papers
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Feasibility Study of Measuring $\Lambda^0\to n\pi^{0}$ Using a High-Granularity Zero-Degree Calorimeter at the Future Electron-Ion Collider
A Geant4 and graph-neural-network feasibility study shows the EIC Zero Degree Calorimeter can reconstruct Lambda0 -> n pi0 decays with resolutions that meet the EIC Yellow Report requirements.
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First-Ever Deployment of a SiPM-on-Tile Calorimeter in a Collider: A Parasitic Test with 200 GeV $pp$ Collisions at RHIC
A SiPM-on-tile calorimeter prototype was deployed, calibrated, and operated for the first time in a collider environment, withstanding about 1e10 1-MeV neutron-equivalent fluence at room temperature.
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