FLC-SIPM: Front-end chip for SIPM readout for ILC analog HCAL

C. De La Taille; G. Martin-Chassard; L. Raux

FLC_-SIPM: Front-end chip for SIPM readout for ILC analog HCAL

C. De La Taille
, G. Martin-Chassard
, L. Raux

Laboratoire de l'Accélérateur Linéaire

Résultats de recherche: Contribution à une conférence › Papier › Revue par des pairs

3 Citations (Scopus)

Résumé

An integrated front-end chip has been developed to readout the Silicon PM for the ILC analog hadronic calorimeter. It is built around a variable gain low-noise preamplifier followed by a variable peaking-time shaper (20-200 ns), track and hold and multiplexed output. This structure allows to produce single photo electron spectrum with well separated peaks for absolute calibration at fast shaping (40ns) as well as physics signals from the scintillating fibbers (up to 2000 photo-electrons) with a slower shaping (150ns) compatible with the W-Si Electromagnetic Calorimeter DAQ. Besides, an input DAC allows to tune the detector gain by varying the operating voltage by up to 5V. The chip accommodates 18 channels and 1000 circuits have been produced in 2004, the design and the measurement results of which will be presented.

langue originale	Anglais
état	Publié - 1 déc. 2005
Modification externe	Oui
Evénement	2005 International Linear Collider Workshop, LCWS 2005 - Stanford, CA, États-Unis Durée: 18 mars 2005 → 22 mars 2005

Une conférence

Une conférence	2005 International Linear Collider Workshop, LCWS 2005
Pays/Territoire	États-Unis
La ville	Stanford, CA
période	18/03/05 → 22/03/05

Autres fichiers et liens

Lien vers la publication dans Scopus

Contient cette citation

@conference{e4118361182347dfb74c377d3b90c673,

title = "FLC-SIPM: Front-end chip for SIPM readout for ILC analog HCAL",

abstract = "An integrated front-end chip has been developed to readout the Silicon PM for the ILC analog hadronic calorimeter. It is built around a variable gain low-noise preamplifier followed by a variable peaking-time shaper (20-200 ns), track and hold and multiplexed output. This structure allows to produce single photo electron spectrum with well separated peaks for absolute calibration at fast shaping (40ns) as well as physics signals from the scintillating fibbers (up to 2000 photo-electrons) with a slower shaping (150ns) compatible with the W-Si Electromagnetic Calorimeter DAQ. Besides, an input DAC allows to tune the detector gain by varying the operating voltage by up to 5V. The chip accommodates 18 channels and 1000 circuits have been produced in 2004, the design and the measurement results of which will be presented.",

author = "\{De La Taille\}, C. and G. Martin-Chassard and L. Raux",

year = "2005",

month = dec,

day = "1",

language = "English",

note = "2005 International Linear Collider Workshop, LCWS 2005 ; Conference date: 18-03-2005 Through 22-03-2005",

}

TY - CONF

T1 - FLC-SIPM

T2 - 2005 International Linear Collider Workshop, LCWS 2005

AU - De La Taille, C.

AU - Martin-Chassard, G.

AU - Raux, L.

PY - 2005/12/1

Y1 - 2005/12/1

N2 - An integrated front-end chip has been developed to readout the Silicon PM for the ILC analog hadronic calorimeter. It is built around a variable gain low-noise preamplifier followed by a variable peaking-time shaper (20-200 ns), track and hold and multiplexed output. This structure allows to produce single photo electron spectrum with well separated peaks for absolute calibration at fast shaping (40ns) as well as physics signals from the scintillating fibbers (up to 2000 photo-electrons) with a slower shaping (150ns) compatible with the W-Si Electromagnetic Calorimeter DAQ. Besides, an input DAC allows to tune the detector gain by varying the operating voltage by up to 5V. The chip accommodates 18 channels and 1000 circuits have been produced in 2004, the design and the measurement results of which will be presented.

AB - An integrated front-end chip has been developed to readout the Silicon PM for the ILC analog hadronic calorimeter. It is built around a variable gain low-noise preamplifier followed by a variable peaking-time shaper (20-200 ns), track and hold and multiplexed output. This structure allows to produce single photo electron spectrum with well separated peaks for absolute calibration at fast shaping (40ns) as well as physics signals from the scintillating fibbers (up to 2000 photo-electrons) with a slower shaping (150ns) compatible with the W-Si Electromagnetic Calorimeter DAQ. Besides, an input DAC allows to tune the detector gain by varying the operating voltage by up to 5V. The chip accommodates 18 channels and 1000 circuits have been produced in 2004, the design and the measurement results of which will be presented.

UR - https://www.scopus.com/pages/publications/84885193551

M3 - Paper

AN - SCOPUS:84885193551

Y2 - 18 March 2005 through 22 March 2005