Design and performance of a high-speed and low-noise preamplifier for SiPM - INSPIRE

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Design and performance of a high-speed and low-noise preamplifier for SiPM

Xi-Yang Wang
(
- Fudan U.
)
,
Hong-Yu Zhang
(
- Fudan U.
)
,
De-Qing Fang
(
- Fudan U.
)
,
Wan-Bing He
(
- Fudan U. and
- Fudan U., Shanghai
)
,
Xiao-Long Wang
(
- Fudan U.
)

Nov 18, 2023

10 pages

Published in:

Nucl.Sci.Tech. 34 (2023) 11, 169

Published: Nov 18, 2023

DOI:

10.1007/s41365-023-01328-7

reference search7 citations

Citations per year

Abstract: (Springer)

Considering the R&D for upgrading the

K_\text {L}^0

and

\mu

detectors in the Belle II experiment using a scintillator and silicon photomultiplier (SiPM), we designed a compact high-speed and low-noise preamplifier. The preamplifier demonstrated a good gain stability, bandwidth of

426\,\hbox {MHz}

, baseline noise level of

\sigma \approx 0.6~{\text {m}\text {V}}

, dynamic range of up to

170~{\text {m}\text {V}}

of the input signal amplitude, good time resolution of

20~{\text {p}\text {s}}

, and it can be comprehensively applied to SiPMs. Adopting pole-zero-cancelation in the preamplifier reduces both the rise and fall times of the SiPM signal, which can significantly improve the time resolution and reduce the pile-up when using a large SiPM or an array of SiPMs. Various combinations of the preamplifier and several types of SiPMs demonstrated time resolutions better than

50~{\text {p}\text {s}}

for most cases; when the number of detected photons was larger than 60, a time resolution of approximately

25~{\text {p}\text {s}}

was achieved.

Silicon photomultiplier
High-speed amplifier
Low noise
High time resolution
photomultiplier: silicon
yield: stability
noise: low
time resolution
BELLE
amplifier

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