Cargando…
Additive manufacturing of fine-granularity optically-isolated plastic scintillator elements
Plastic scintillator detectors are used in high energy physics as well as for diagnostic imaging in medicine, beam monitoring on hadron therapy, muon tomography, dosimetry and many security applications. To combine particle tracking and calorimetry it is necessary to build detectors with three-d...
Autores principales: | , , , , , , , , , , , , , , , , |
---|---|
Lenguaje: | eng |
Publicado: |
2022
|
Materias: | |
Acceso en línea: | https://dx.doi.org/10.1088/1748-0221/17/10/P10045 http://cds.cern.ch/record/2839972 |
_version_ | 1780976005911937024 |
---|---|
author | Berns, S. Boillat, E. Boyarintsev, A. De Roeck, A. Dolan, S. Gendotti, A. Grynyov, B. Hugon, S. Kose, U. Kovalchuk, S. Li, B. Rubbia, A. Sibilieva, T. Sgalaberna, D. Weber, T. Wuthrich, J. Zhao, X.Y. |
author_facet | Berns, S. Boillat, E. Boyarintsev, A. De Roeck, A. Dolan, S. Gendotti, A. Grynyov, B. Hugon, S. Kose, U. Kovalchuk, S. Li, B. Rubbia, A. Sibilieva, T. Sgalaberna, D. Weber, T. Wuthrich, J. Zhao, X.Y. |
author_sort | Berns, S. |
collection | CERN |
description | Plastic scintillator detectors are used in high energy
physics as well as for diagnostic imaging in medicine, beam
monitoring on hadron therapy, muon tomography, dosimetry and many
security applications. To combine particle tracking and calorimetry
it is necessary to build detectors with three-dimensional
granularity, i.e. small voxels of scintillator optically isolated
from each other. Recently, the 3DET collaboration demonstrated the
possibility to 3D print polystyrene-based scintillators with a light
output performance close to that obtained with standard production
methods. In this article, after providing a further
characterization of the developed scintillators, we show the first
matrix of plastic scintillator cubes optically separated by a white
reflector material entirely 3D printed with fused deposition
modeling. This is a major milestone towards the 3D printing of the
first real particle detector. A discussion of the results as well
as the next steps in the R&D is also provided. |
id | cern-2839972 |
institution | Organización Europea para la Investigación Nuclear |
language | eng |
publishDate | 2022 |
record_format | invenio |
spelling | cern-28399722023-06-29T03:37:20Zdoi:10.1088/1748-0221/17/10/P10045http://cds.cern.ch/record/2839972engBerns, S.Boillat, E.Boyarintsev, A.De Roeck, A.Dolan, S.Gendotti, A.Grynyov, B.Hugon, S.Kose, U.Kovalchuk, S.Li, B.Rubbia, A.Sibilieva, T.Sgalaberna, D.Weber, T.Wuthrich, J.Zhao, X.Y.Additive manufacturing of fine-granularity optically-isolated plastic scintillator elementsphysics.ins-detDetectors and Experimental TechniquesPlastic scintillator detectors are used in high energy physics as well as for diagnostic imaging in medicine, beam monitoring on hadron therapy, muon tomography, dosimetry and many security applications. To combine particle tracking and calorimetry it is necessary to build detectors with three-dimensional granularity, i.e. small voxels of scintillator optically isolated from each other. Recently, the 3DET collaboration demonstrated the possibility to 3D print polystyrene-based scintillators with a light output performance close to that obtained with standard production methods. In this article, after providing a further characterization of the developed scintillators, we show the first matrix of plastic scintillator cubes optically separated by a white reflector material entirely 3D printed with fused deposition modeling. This is a major milestone towards the 3D printing of the first real particle detector. A discussion of the results as well as the next steps in the R&D is also provided.Plastic scintillator detectors are used in high energy physics as well as for diagnostic imaging in medicine, beam monitoring on hadron therapy, muon tomography, dosimetry and many security applications. To combine particle tracking and calorimetry it is necessary to build detectors with three-dimensional granularity, i.e. small voxels of scintillator optically isolated from each other. Recently, the 3DET collaboration demonstrated the possibility to 3D print polystyrene-based scintillators with a light output performance close to that obtained with standard production methods. In this article, after providing a further characterization of the developed scintillators, we show the first matrix of plastic scintillator cubes optically separated by a white reflector material entirely 3D printed with fused deposition modeling. This is a major milestone towards the 3D printing of the first real particle detector. A discussion of the results as well as the next steps in the R&D is also provided.arXiv:2202.10961oai:cds.cern.ch:28399722022-02-22 |
spellingShingle | physics.ins-det Detectors and Experimental Techniques Berns, S. Boillat, E. Boyarintsev, A. De Roeck, A. Dolan, S. Gendotti, A. Grynyov, B. Hugon, S. Kose, U. Kovalchuk, S. Li, B. Rubbia, A. Sibilieva, T. Sgalaberna, D. Weber, T. Wuthrich, J. Zhao, X.Y. Additive manufacturing of fine-granularity optically-isolated plastic scintillator elements |
title | Additive manufacturing of fine-granularity optically-isolated plastic scintillator elements |
title_full | Additive manufacturing of fine-granularity optically-isolated plastic scintillator elements |
title_fullStr | Additive manufacturing of fine-granularity optically-isolated plastic scintillator elements |
title_full_unstemmed | Additive manufacturing of fine-granularity optically-isolated plastic scintillator elements |
title_short | Additive manufacturing of fine-granularity optically-isolated plastic scintillator elements |
title_sort | additive manufacturing of fine-granularity optically-isolated plastic scintillator elements |
topic | physics.ins-det Detectors and Experimental Techniques |
url | https://dx.doi.org/10.1088/1748-0221/17/10/P10045 http://cds.cern.ch/record/2839972 |
work_keys_str_mv | AT bernss additivemanufacturingoffinegranularityopticallyisolatedplasticscintillatorelements AT boillate additivemanufacturingoffinegranularityopticallyisolatedplasticscintillatorelements AT boyarintseva additivemanufacturingoffinegranularityopticallyisolatedplasticscintillatorelements AT deroecka additivemanufacturingoffinegranularityopticallyisolatedplasticscintillatorelements AT dolans additivemanufacturingoffinegranularityopticallyisolatedplasticscintillatorelements AT gendottia additivemanufacturingoffinegranularityopticallyisolatedplasticscintillatorelements AT grynyovb additivemanufacturingoffinegranularityopticallyisolatedplasticscintillatorelements AT hugons additivemanufacturingoffinegranularityopticallyisolatedplasticscintillatorelements AT koseu additivemanufacturingoffinegranularityopticallyisolatedplasticscintillatorelements AT kovalchuks additivemanufacturingoffinegranularityopticallyisolatedplasticscintillatorelements AT lib additivemanufacturingoffinegranularityopticallyisolatedplasticscintillatorelements AT rubbiaa additivemanufacturingoffinegranularityopticallyisolatedplasticscintillatorelements AT sibilievat additivemanufacturingoffinegranularityopticallyisolatedplasticscintillatorelements AT sgalabernad additivemanufacturingoffinegranularityopticallyisolatedplasticscintillatorelements AT webert additivemanufacturingoffinegranularityopticallyisolatedplasticscintillatorelements AT wuthrichj additivemanufacturingoffinegranularityopticallyisolatedplasticscintillatorelements AT zhaoxy additivemanufacturingoffinegranularityopticallyisolatedplasticscintillatorelements |