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Low-cost bump-bonding processes for high energy physics pixel detectors

In the next generation of collider experiments detectors will be challenged by unprecedented particle fluxes. Thus large detector arrays of highly pixelated detectors with minimal dead area will be required at reasonable costs. Bump-bonding of pixel detectors has been shown to be a major cost-driver...

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Autores principales: Caselle, Michele, Blank, Thomas, Colombo, Fabio, Dierlamm, Alexander Hermann, Husemann, Ulrich, Kudella, Simon, Weber, M
Lenguaje:eng
Publicado: 2015
Materias:
Acceso en línea:https://dx.doi.org/10.1088/1748-0221/11/01/C01050
http://cds.cern.ch/record/2065592
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author Caselle, Michele
Blank, Thomas
Colombo, Fabio
Dierlamm, Alexander Hermann
Husemann, Ulrich
Kudella, Simon
Weber, M
author_facet Caselle, Michele
Blank, Thomas
Colombo, Fabio
Dierlamm, Alexander Hermann
Husemann, Ulrich
Kudella, Simon
Weber, M
author_sort Caselle, Michele
collection CERN
description In the next generation of collider experiments detectors will be challenged by unprecedented particle fluxes. Thus large detector arrays of highly pixelated detectors with minimal dead area will be required at reasonable costs. Bump-bonding of pixel detectors has been shown to be a major cost-driver. KIT is one of five production centers of the CMS barrel pixel detector for the Phase I Upgrade. In this contribution the SnPb bump-bonding process and the production yield is reported. In parallel to the production of the new CMS pixel detector, several alternatives to the expensive photolithography electroplating/electroless metal deposition technologies are developing. Recent progress and challenges faced in the development of bump-bonding technology based on gold-stud bonding by thin (15 μm) gold wire is presented. This technique allows producing metal bumps with diameters down to 30 μm without using photolithography processes, which are typically required to provide suitable under bump metallization. The short setup time for the bumping process makes gold-stud bump-bonding highly attractive (and affordable) for the flip-chipping of single prototype ICs, which is the main limitation of the current photolithography processes.
id cern-2065592
institution Organización Europea para la Investigación Nuclear
language eng
publishDate 2015
record_format invenio
spelling cern-20655922019-09-30T06:29:59Zdoi:10.1088/1748-0221/11/01/C01050http://cds.cern.ch/record/2065592engCaselle, MicheleBlank, ThomasColombo, FabioDierlamm, Alexander HermannHusemann, UlrichKudella, SimonWeber, MLow-cost bump-bonding processes for high energy physics pixel detectorsDetectors and Experimental TechniquesIn the next generation of collider experiments detectors will be challenged by unprecedented particle fluxes. Thus large detector arrays of highly pixelated detectors with minimal dead area will be required at reasonable costs. Bump-bonding of pixel detectors has been shown to be a major cost-driver. KIT is one of five production centers of the CMS barrel pixel detector for the Phase I Upgrade. In this contribution the SnPb bump-bonding process and the production yield is reported. In parallel to the production of the new CMS pixel detector, several alternatives to the expensive photolithography electroplating/electroless metal deposition technologies are developing. Recent progress and challenges faced in the development of bump-bonding technology based on gold-stud bonding by thin (15 μm) gold wire is presented. This technique allows producing metal bumps with diameters down to 30 μm without using photolithography processes, which are typically required to provide suitable under bump metallization. The short setup time for the bumping process makes gold-stud bump-bonding highly attractive (and affordable) for the flip-chipping of single prototype ICs, which is the main limitation of the current photolithography processes.CMS-CR-2015-280oai:cds.cern.ch:20655922015-11-02
spellingShingle Detectors and Experimental Techniques
Caselle, Michele
Blank, Thomas
Colombo, Fabio
Dierlamm, Alexander Hermann
Husemann, Ulrich
Kudella, Simon
Weber, M
Low-cost bump-bonding processes for high energy physics pixel detectors
title Low-cost bump-bonding processes for high energy physics pixel detectors
title_full Low-cost bump-bonding processes for high energy physics pixel detectors
title_fullStr Low-cost bump-bonding processes for high energy physics pixel detectors
title_full_unstemmed Low-cost bump-bonding processes for high energy physics pixel detectors
title_short Low-cost bump-bonding processes for high energy physics pixel detectors
title_sort low-cost bump-bonding processes for high energy physics pixel detectors
topic Detectors and Experimental Techniques
url https://dx.doi.org/10.1088/1748-0221/11/01/C01050
http://cds.cern.ch/record/2065592
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AT dierlammalexanderhermann lowcostbumpbondingprocessesforhighenergyphysicspixeldetectors
AT husemannulrich lowcostbumpbondingprocessesforhighenergyphysicspixeldetectors
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