We measure the photon arrival timing jitter of three superconducting Microwave Kinetic Inductance Detectors (MKIDs) within a large array of 20,440 pixels, spanning resonating frequencies from 4 to 8 GHz. We analyze arrival time distributions for photon number n = 1 and n = 2 events and find the distribution full-width at half-maximum ranging from 132 to 796 ns across the three detectors. In combination with nearly zero dark counts and multiplexed readout schemes, sub-microsecond jitter can be leveraged for high-time resolved astronomy, quantum, and bio-physics applications. The measured system jitter serves as an upper limit for MKIDs, with optimized performance likely reaching tens of nanoseconds. We discuss how to improve upon the detector and readout performance.
REFERENCES
1.
J.
Xie
and
H.
Zhang
, “
Temporal and photon number resolution of superconducting nanowire single-photon detectors
,” Appl. Phys. B
130
, 113
(2024
).2.
D. A.
Bennett
, “
Transition-edge sensors
,” in Handbook of Superconductivity
, 2nd ed. (
CRC Press
, 2021
), p. 9
.3.
P. K.
Day
,
H. G.
LeDuc
,
B. A.
Mazin
,
A.
Vayonakis
, and
J.
Zmuidzinas
, “
A broadband superconducting detector suitable for use in large arrays
,” Nature
425
, 817
–821
(2003
).4.
L. K.
Shalm
,
E.
Meyer-Scott
,
B. G.
Christensen
,
P.
Bierhorst
,
M. A.
Wayne
,
M. J.
Stevens
,
T.
Gerrits
,
S.
Glancy
,
D. R.
Hamel
,
M. S.
Allman
,
K. J.
Coakley
,
S. D.
Dyer
,
C.
Hodge
,
A. E.
Lita
,
V. B.
Verma
,
C.
Lambrocco
,
E.
Tortorici
,
A. L.
Migdall
,
Y.
Zhang
,
D. R.
Kumor
,
W. H.
Farr
,
F.
Marsili
,
M. D.
Shaw
,
J. A.
Stern
,
C.
Abellán
,
W.
Amaya
,
V.
Pruneri
,
T.
Jennewein
,
M. W.
Mitchell
,
P. G.
Kwiat
,
J. C.
Bienfang
,
R. P.
Mirin
,
E.
Knill
, and
S. W.
Nam
, “
Strong loophole-free test of local realism
,” Phys. Rev. Lett.
115
, 250402
(2015
).5.
D. H.
Smith
,
G.
Gillett
,
M. P.
de Almeida
,
C.
Branciard
,
A.
Fedrizzi
,
T. J.
Weinhold
,
A.
Lita
,
B.
Calkins
,
T.
Gerrits
,
H. M.
Wiseman
,
S. W.
Nam
, and
A. G.
White
, “
Conclusive quantum steering with superconducting transition-edge sensors
,” Nat. Commun.
3
, 625
(2012
).6.
B.
Korzh
,
Q.-Y.
Zhao
,
J. P.
Allmaras
,
S.
Frasca
,
T. M.
Autry
,
E. A.
Bersin
,
A. D.
Beyer
,
R. M.
Briggs
,
B.
Bumble
,
M.
Colangelo
,
G. M.
Crouch
,
A. E.
Dane
,
T.
Gerrits
,
A. E.
Lita
,
F.
Marsili
,
G.
Moody
,
C.
Peña
,
E.
Ramirez
,
J. D.
Rezac
,
N.
Sinclair
,
M. J.
Stevens
,
A. E.
Velasco
,
V. B.
Verma
,
E. E.
Wollman
,
S.
Xie
,
D.
Zhu
,
P. D.
Hale
,
M.
Spiropulu
,
K. L.
Silverman
,
R. P.
Mirin
,
S. W.
Nam
,
A. G.
Kozorezov
,
M. D.
Shaw
, and
K. K.
Berggren
, “
Demonstration of sub-3 ps temporal resolution with a superconducting nanowire single-photon detector
,” Nat. Photonics
14
, 250
–255
(2020
).7.
A.
Lamas-Linares
,
B.
Calkins
,
N. A.
Tomlin
,
T.
Gerrits
,
A. E.
Lita
,
J.
Beyer
,
R. P.
Mirin
, and
S.
Woo Nam
, “
Nanosecond-scale timing jitter for single photon detection in transition edge sensors
,” Appl. Phys. Lett.
102
, 231117
(2013
).8.
N.
Maring
,
A.
Fyrillas
,
M.
Pont
,
E.
Ivanov
,
P.
Stepanov
,
N.
Margaria
,
W.
Hease
,
A.
Pishchagin
,
A.
Lemaître
,
I.
Sagnes
,
T. H.
Au
,
S.
Boissier
,
E.
Bertasi
,
A.
Baert
,
M.
Valdivia
,
M.
Billard
,
O.
Acar
,
A.
Brieussel
,
R.
Mezher
,
S. C.
Wein
,
A.
Salavrakos
,
P.
Sinnott
,
D. A.
Fioretto
,
P.-E.
Emeriau
,
N.
Belabas
,
S.
Mansfield
,
P.
Senellart
,
J.
Senellart
, and
N.
Somaschi
, “
A versatile single-photon-based quantum computing platform
,” Nat. Photonics
18
, 603
–609
(2024
).9.
R. H.
Hadfield
,
J.
Leach
,
F.
Fleming
,
D. J.
Paul
,
C. H.
Tan
,
J. S.
Ng
,
R. K.
Henderson
, and
G. S.
Buller
, “
Single-photon detection for long-range imaging and sensing
,” Optica
10
, 1124
(2023
).10.
G.
Ulbricht
,
M.
De Lucia
, and
E.
Baldwin
, “
Applications for microwave kinetic induction detectors in advanced instrumentation
,” Appl. Sci.
11
(6
), 2671
(2021
).11.
A. E.
Lita
,
D. V.
Reddy
,
V. B.
Verma
,
R. P.
Mirin
, and
S. W.
Nam
, “
Development of superconducting single-photon and photon-number resolving detectors for quantum applications
,” J. Lightwave Technol.
40
, 7578
–7597
(2022
).12.
M. J.
Strader
,
M. D.
Johnson
,
B. A.
Mazin
,
G. V. S.
Jaeger
,
C. R.
Gwinn
,
S. R.
Meeker
,
P.
Szypryt
,
J. C. V.
Eyken
,
D.
Marsden
,
K.
O'Brien
,
A. B.
Walter
,
G.
Ulbricht
,
C.
Stoughton
, and
B.
Bumble
, “
Excess optical enhancement observed with arcons for early crab giant pulses
,” Appl. Phys. J.
779
, L12
(2013
).13.
P.
Szypryt
,
S. R.
Meeker
,
G.
Coiffard
,
N.
Fruitwala
,
B.
Bumble
,
G.
Ulbricht
,
A. B.
Walter
,
M.
Daal
,
C.
Bockstiegel
,
G.
Collura
,
N.
Zobrist
,
I.
Lipartito
, and
B. A.
Mazin
, “
Large-format platinum silicide microwave kinetic inductance detectors for optical to near-IR astronomy
,” Opt. Express
25
, 25894
–25909
(2017
).14.
A. B.
Walter
,
N.
Fruitwala
,
S.
Steiger
,
J. I.
Bailey
,
N.
Zobrist
,
N.
Swimmer
,
I.
Lipartito
,
J. P.
Smith
,
S. R.
Meeker
,
C.
Bockstiegel
,
G.
Coiffard
,
R.
Dodkins
,
P.
Szypryt
,
K. K.
Davis
,
M.
Daal
,
B.
Bumble
,
G.
Collura
,
O.
Guyon
,
J.
Lozi
,
S.
Vievard
,
N.
Jovanovic
,
F.
Martinache
,
T.
Currie
, and
B. A.
Mazin
, “
The MKID exoplanet camera for subaru SCExAO
,” Publ. Astron. Soc. Pac.
132
, 125005
(2020
).15.
N.
Swimmer
,
W. H.
Clay
,
N.
Zobrist
, and
B. A.
Mazin
, “
Characterizing the dark count rate of a large-format MKID array
,” Opt. Express
31
, 10775
(2023
).16.
J. P.
Smith
,
J. I.
Bailey
III,
A.
Cuda
,
N.
Zobrist
, and
B. A.
Mazin
, “
MKIDGen3: Energy-resolving, single-photon-counting MKID readout on an RFSoC
,” Rev. Sci. Instrum.
95
, 114705
(2024
).17.
H.
Kutsuma
,
M.
Hattori
,
R.
Koyano
,
S.
Mima
,
S.
Oguri
,
C.
Otani
,
T.
Taino
, and
O.
Tajima
, “
A measurement method for responsivity of microwave kinetic inductance detector by changing power of readout microwaves
,” Appl. Phys. Lett.
115
, 032603
(2019
).18.
A. G.
Kozorezov
,
A. A.
Golubov
,
J. K.
Wigmore
,
D.
Martin
,
P.
Verhoeve
, and
R. A.
Hijmering
, “
Electron-phonon interaction in a superconductor with Kondo scattering
,” arXiv:0804.1567 (2008
).19.
N.
Zobrist
,
W. H.
Clay
,
G.
Coiffard
,
M.
Daal
,
N.
Swimmer
,
P.
Day
, and
B. A.
Mazin
, “
Membrane-less phonon trapping and resolution enhancement in optical microwave kinetic inductance detectors
,” Phys. Rev. Lett.
129
, 017701
(2022
).20.
N.
Zobrist
,
B. H.
Eom
,
P.
Day
,
B. A.
Mazin
,
S. R.
Meeker
,
B.
Bumble
,
H. G.
LeDuc
,
G.
Coiffard
,
P.
Szypryt
,
N.
Fruitwala
,
I.
Lipartito
, and
C.
Bockstiegel
, “
Wide-band parametric amplifier readout and resolution of optical microwave kinetic inductance detectors
,” Appl. Phys. Lett.
115
, 042601
(2019
).21.
N.
Klimovich
,
P.
Day
,
S.
Shu
,
B. H.
Eom
,
H.
Leduc
, and
A.
Beyer
, “
Demonstration of a quantum noise limited traveling-wave parametric amplifier
,” arXiv:2306.11028 (2023
).22.
N. R.
Zobrist
, “
Improving the resolving power of ultraviolet to near-infrared microwave kinetic inductance detectors
,” Ph.D. thesis (
UC Santa Barbara
, 2022
).23.
M. D.
Eisaman
,
J.
Fan
,
A.
Migdall
, and
S. V.
Polyakov
, “
Invited review article Single-photon sources and detectors
,” Rev. Sci. Instrum.
82
, 071101
(2011
).24.
J.
Gao
,
L. R.
Vale
,
J. A. B.
Mates
,
D. R.
Schmidt
,
G. C.
Hilton
,
K. D.
Irwin
,
F.
Mallet
,
M. A.
Castellanos-Beltran
,
K. W.
Lehnert
,
J.
Zmuidzinas
, and
H. G.
Leduc
, “
Strongly quadrature-dependent noise in superconducting microresonators measured at the vacuum-noise limit
,” Appl. Phys. Lett.
98
, 232508
(2011
).© 2024 Author(s). Published under an exclusive license by AIP Publishing.
2024
Author(s)
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