[1] Further characterisation of Digital Pixel Test Structures implemented in a 65 nm CMOS process

G. Aglieri Rinella; N. Apadula; A. Andronic; M. Antonelli; M. Aresti  et al.

[2] Wide-field fluorescence lifetime imaging of single molecules with a gated single-photon camera

N. Ronceray; S. Bennani; M. F. Mitsioni; N. Siegel; M. J. Marcaida  et al.

[3] Optimizing photon capture: advancements in amorphous silicon-based microchannel plates

S. Frey; L. Antognini; J. Benserhir; E. Ripiccini; C. de Koning  et al.

[4] Characterization and evaluation of next-generation photon-counting image sensors for space applications

N. R. Shade; G. Kyne; S. Nikzad; E. Charbon; E. R. Fossum

[5] SPAD cameras: from LiDAR to quantum imaging

E. Charbon

[6] Using the Latent Diffusion Model to Enhance Time-resolved Laser Speckle Contrast Imaging (tr-lsci) of Cerebral Blood Flow

F. Fathi; R. T. Sadia; M. Mohtasebi; P. Mos; C. Bruschini  et al.

[7] Harnessing Photon Indistinguishability in Quantum Extreme Learning Machines

M. Joly; A. Makowski; L. Porstendorfer; S. Wilksen; E. Charbon  et al.

[8] Characterizing and exploiting cross-talk effect in SPAD arrays for two-photon interference

S. Kulkov; L. Radmacherova; O. Matousek; L. A. P. De Sousa; E. Bernasconi  et al.

[9] Time-resolved detectors for quantum ghost imaging

D. P. Ryan; P. Moş; Y. Lin; C. Bruschini; E. Charbon  et al.

[10] Transporter: A 128×4 SPAD Imager with On-chip Encoder for Spiking Neural Network-based Processing

Y. Lin; C. Bruschini; E. Charbon

[11] Cryogenic Circuit Performance Prediction Using Design-Oriented Model (SEKV) On 22nm FDSOI

B. Martinez; H.-C. Han; F. Bergamaschi; Q. Schmidt; A. Faurie  et al.

[12] Massively multiplexed wide-field photon correlation sensing

S. Elmalem; G. Lubin; M. Wayne; C. Bruschini; E. Charbon  et al.

[13] Beneath the surface: revealing deep-tissue blood flow in human subjects with massively parallelized diffuse correlation spectroscopy

L. Kreiss; M. Wu; M. Wayne; S. Xu; P. McKee  et al.

[14] Fast data-driven spectrometer with direct measurement of time and frequency for multiple single photons

J. Jirsa; S. Kulkov; R. A. Abrahao; J. Crawford; A. Mueninghoff  et al.

[15] Cryogenic sEKV Compact Model Applied to 22 NM FDSOI Enabling Low-Temperature Circuit Simulation

H.-C. Han; Y. Zou; B. Keskin; E. Charbon; C. Enz

[16] 16-band single-photon imaging sensor based on Fabry-Perot resonance

C. Zhou; O. J. F. Martin; E. Charbon

[17] Multifrequency-resolved Hanbury Brown–Twiss effect

J. Ferrantini; J. Crawford; S. Kulkov; J. Jirsa; A. Mueninghoff  et al.

[18] Broadband Noise Characterization of SiGe HBTs Down to 4K

J. Benserhir; Y. Zou; H. C. Han; Y. Peng; E. Charbon

[19] Developing photodetectors for future RICH particle detector applications

G. Taylor; R. Dolenec; W. Y. Ha; F. Gramuglia; D. C. Rodríguez  et al.

[20] SPAD Image Sensors with Embedded Intelligence

Y. Lin

[21] Mesoscopic light-sheet imaging set-up for 3D SWIR fluorescence intensity and NIR fluorescence lifetime imaging

L. Chavez; I. Erbas; V. Pandey; C. Sherry; I. Crosbourne  et al.

[22] Self-heating Effects in RF Region of FDSOI MOSFETs at Cryogenic Temperatures

H.-C. Han; E. Charbon; C. Enz

[23] Metasurface-enhanced Multispectral and Polarization Filtering for SPAD imaging sensors

C. Zhou

[24] Event Cameras Meet SPADs for High-Speed, Low-Bandwidth Imaging

M. Muglikar; S. Somasundaram; A. Dave; E. Charbon; R. Raskar  et al.

[25] A CRYO-CMOS RF-DAC Based Super-Heterodyne Transmitter for Superconducting Qubit Control

F. Yuan; H. Su; Y. Zou; Y. Peng; J. Yin  et al.

[26] Scaled-Footprint Ultra-Low Power Cryogenic InGaAs/InP HEMTs with Record-High Combination of Low-Noise and High-Frequency Performance

A. Ferraris; E. Cha; A. Olziersky; M. Sousa; H.-C. Han  et al.

[27] Empirical Finfet Cryo-Model Oriented to Integrated Circuits Design

I. Saeed; G. Bosi; C. Esposito; F. D'aniello; E. Charbon  et al.

[28] Predicting Important Photons for Energy-Efficient Single-Photon Videography

L. J. Koerner; C. Bruschini; E. Charbon

[29] Teaching single-photon detection metrology with off-the-shelf CMOS SPAD detectors

C. Bruschini; U. Karaca; E. Kizilkan; E. Charbon

[30] A Cryo-CMOS Wideband Mode-Switching Class-F VCO With Harmonic-Resonance Self-Alignment

Y. Wu; Y. Peng; A. Ruffino; J. Benserhir; J. Yin  et al.

[31] Design, Optimization and Verification of Embedded Gain Cell RAMs

H. A. Yigit

[32] Optimizing RF readout for silicon spin qubits in an access array

J. Michniewicz; A. Ruffino; Y. Peng; L. Hutin; B. Bertrand  et al.

[33] Reconfigurable SPAD sensors for time-resolved imaging

T. Milanese

[34] Architectures for Large-Pixel-Array Direct Time-of-Flight Image Sensors

C. Liu

[35] GPU-based data processing for speeding-up correlation plenoptic imaging

F. Santoro; I. Petrelli; G. Massaro; G. Filios; F. V. Pepe  et al.

[36] Inter-pixel cross-talk as background to two-photon interference effects in SPAD arrays

S. Kulkov; T. Potuckova; E. Bernasconi; C. Bruschini; T. Milanese  et al.

[37] Scintillation event imaging with a single photon avalanche diode camera

A. Bocchieri; E. Charbon; A. Velten

[38] A new double multiplication region method to design high sensitivity and wide spectrum SPADs in standard CMOS technologies

U. Karaca; E. Kizilkan; C. Bruschini; E. Charbon

[39] SiPM and CMOS SPAD characterization at liquid nitrogen temperatures

R. Dolenec; C. Bruschini; E. Charbon; D. Consuegra Rodríguez; W. Y. Ha  et al.

[40] Toward video-rate compressive spontaneous Raman imaging via single-photon avalanche diode arrays

C. Gentner; S. Burri; E. Charbon; C. Bruschini; H. B. de Aguiar

[41] Deep learning-based temporal deconvolution for photon time-of-flight distribution retrieval

V. Pandey; I. Erbas; X. Michalet; A. Ulku; C. Bruschini  et al.

[42] Investigating μSiPMs to overcome the limits of BGO in ToF-PET

K. Herweg; V. Nadig; S. Bisi; C. Bruschini; E. Charbon  et al.

[43] 1.8-µm pitch, 47-ps jitter SPAD array in a 130 nm SiGe BiCMOS process

F. Liu; E. Charbon

[44] Light- field tomographic fluorescence lifetime imaging microscopy

Y. Ma; J. Park; L.-Z. Huang; C. Sen; S. Burri  et al.

[45] Quantum ghost imaging microscopy depth-of-field study

D. Davenport; A. Eshun; B. Demory; S. Kiannejad; P. Mos  et al.

[46] From Master Equation to SPICE: A Platform to Model Cryo-CMOS Control for Qubits

V. Pešić; A. Wright; E. Charbon

[47] Bio-inspired flat optics for directional 3D light detection and ranging

C. Majorel; A. Loucif; E. Marinov; R. Juliano Martins; A. Patoux  et al.

[48] Towards video-rate compressive spontaneous Raman imaging using single-photon avalanche diode arrays

C. Gentner; S. Burri; E. Charbon; C. Bruschini; H. Barbosa de Aguiar

[49] Towards Surface-Correction of Deep-Tissue Blood Flow Dynamics with Massively Parallelized Diffuse Correlation Spectroscopy

L. A. Kreiss; M. Wu; M. A. Wayne; S. Xu; P. McKee  et al.

[50] Towards quantum telescopes (Abstract: Y07.00001 )

R. Abrahao; P. Stankus; A. Nomerotski; E. Charbon; M. Marcisovsky  et al.

[51] Photonic-electronic integrated circuit-based coherent LiDAR engine

A. Lukashchuk; H. K. Yildirim; A. Bancora; G. Lihachev; Y. Liu  et al.

[52] Cryo-CMOS Voltage References for the Ultrawide Temperature Range From 300 K Down to 4.2 K

J. van Staveren; P. M. Padalia; E. Charbon; C. G. Almudever; G. Scappucci  et al.

[53] Large reconfigurable quantum circuits with SPAD arrays and multimode fibers

A. Makowski; M. Dabrowski; I. M. Antolovic; C. Bruschini; H. Defienne  et al.

[54] SPAD arrays and crossed-delay line detectors for quantum ghost imaging

D. P. Ryan; J. H. Werner; K. Meier; R. Sandoval; D. Thompson  et al.

[55] Deep blood flow extraction for diffuse correlation spectroscopy at photon-starved regimes using SPAD arrays

M. M. Wu; L. Kreiss; M. A. Wayne; M. B. Robinson; C. Bruschini  et al.

[56] 3D fluorescence molecular tomography utilizing a novel SPAD camera

N. I. Nizam; V. Pandey; I. Erbas; A. C. Ülkü; C. Bruschini  et al.

[57] Demonstration of particle tracking with scintillating fibres read out by a SPAD array sensor and application as a neutrino active target

M. Franks; T. Dieminger; K. Kaneyasu; D. Sgalaberna; C. Bruschini  et al.

[58] Planar 16-band metasurface-enhanced spectral filter for integrated image sensing

C. Zhou; O. J. F. Martin; E. Charbon

[59] Coupling a recurrent neural network to SPAD TCSPC systems for real-time fluorescence lifetime imaging

Y. Lin; P. Mos; A. Ardelean; C. Bruschini; E. Charbon

[60] A 0.32 x 0.12 mm2 Cryogenic BiCMOS 0.1-8.8 GHz Low Noise Amplifier Achieving 4 K Noise Temperature for SNWD Readout

Y. Peng; J. Benserhir; M. Castaneda; A. Fognini; C. Bruschini  et al.

[61] Spiking Neural Networks for Active Time-Resolved SPAD Imaging

Y. Lin; E. Charbon

[62] Analytical Modeling of Cryogenic Subthreshold Currents in 22-nm FDSOI Technology

H.-C. Han; Z. Zhao; S. Lehmann; E. Charbon; C. Enz

[63] Ghost imaging using two SPAD array detectors: a parameter study towards the realization of a 3D quantum microscope

D. Davenport; A. Eshun; B. Demory; P. Mos; Y. Lin  et al.

[64] Imaging sensor device using an array of single-photon avalanche diode photodetectors

A. Ardelean; E. Charbon

[65] Modeling of the MOSFET for the Design of Cryo-CMOS Circuits

C. Enz; H. C. Han; E. Charbon

[66] Silicon CMOS and InGaAs(P)/InP SPADs for NIR/SWIR detection

U. Karaca

[67] Methodologies for Device Characterization in Cryogenic Temperatures

N. Roknian; Y. Shoshan; I. Stanger; M. Goldzweig; Y. Weizmann  et al.

[68] Efficient signal extraction for diffuse correlation spectroscopy with SPAD arrays at low photon regimes

M. M. Wu; L. Kreiss; M. A. Wayne; M. B. Robinson; C. Bruschini  et al.

[69] Temporal Point Spread Function Deconvolution in Time-resolved Fluorescence Lifetime Imaging using Deep Learning Model

V. Pandey; I. Erbas; X. Michalet; A. Ulku; C. Bruschini  et al.

[70] Time-resolved Laser Speckle Contrast Imaging (TR-LSCI) of Cerebral Blood Flow

F. Fathi; S. Mazdeyasna; D. Singh; C. Huang; M. Mohtasebi  et al.

[71] SiGe Based Cryo-BiCMOS Architectures for Quantum Applications

J. Benserhir

[72] A 73% Peak PDP Single-Photon Avalanche Diode Implemented in 110 nm CIS Technology With Doping Compensation

M.-J. Lee; U. Karaca; E. Kizilkan; C. Bruschini; E. Charbon

[73] Cryogenic InGaAs HEMTs with Record-Low On-Resistance using Optimized Channel Structure

E. Cha; A. Ferraris; D. Caimi; H.-C. Han; A. Olziersky  et al.

[74] Generalized Event Cameras

V. Sundar; M. Dutson; A. Ardelean; C. Bruschini; E. Charbon  et al.

[75] Double multiplication region configuration for near-infrared sensitivity enhancement in silicon cmos single-photon avalanche diodes

U. Karaca; E. Charbon; C. Bruschini; E. Kizilkan

[76] A Cryogenic Double-IF SSB Controller with Image Suppression and On-Chip Filtering implemented in 130nm SiGe BiCMOS Technology for Superconducting Qubit Control

Y. Peng; J. Benserhir; Y. Zou; E. Charbon

[77] Single-Photon Avalanche Diode Image Sensors for Harsh Radiation Environments

M.-L. Wu

[78] SwissSPAD2/3: a family of natively digital, time gated SPAD cameras with continuous streaming at up to 100 kpfs and picosecond system-level synchronization for quantum imaging applications

P. Mos; M. A. Wayne; A. Ardelean; A. C. Ülkü; E. Charbon  et al.

[79] Advanced Silicon and SWIR Single-Photon Avalanche Diodes: Design, Simulation, and Characterization

E. Kizilkan

[80] A review of recent developments on CMOS single-photon avalanche diode-based cameras for biomedical time-resolved applications

C. Bruschini; E. Charbon

[81] High voltage arbitrary waveform generator

E. Charbon; H. K. Yildirim

[82] Cryogenic Characterization and Modeling of Advanced MOSFET Technologies for Large-scale Quantum Computing

H.-C. Han

[83] Subsurface fluorescence time-of-flight imaging using a large-format single-photon avalanche diode sensor for tumor depth assessment

A. F. Petusseau; S. S. Streeter; A. Ulku; Y. Feng; K. S. Samkoe  et al.

[84] SPAD Developed in 55 nm Bipolar-CMOS-DMOS Technology Achieving Near 90% Peak PDP

W.-Y. Ha; E. Park; D. Eom; H.-S. Park; F. Gramuglia  et al.

[85] A Gradient-Gated SPAD Array for Non-Line-of-Sight Imaging

J. Zhao; F. Gramuglia; P. Keshavarzian; E.-H. Toh; M. Tng  et al.

[86] Doping Engineering for PDP Optimization in SPADs Implemented in 55-nm BCD Process

F. Liu; C. Bruschini; E.-H. Toh; P. Zheng; Y. Sun  et al.

[87] On-Chip Fully Reconfigurable Artificial Neural Network in 16 nm FinFET for Positron Emission Tomography

A. A. Muntean; Y. Shoshan; S. Yuzhaninov; E. Ripiccini; C. Bruschini  et al.

[88] Piccolo gated: a CMOS 32×32 SPAD camera with all-solid-state nanosecond time gating and PCIe readout for single-photon time-domain DCS and near-infrared optical tomography

P. Mos; S. Lindner; C. Zhang; M. A. Wayne; T. Milanese  et al.

[89] LinoSPAD2: an FPGA-based , hardware-reconfigurable 512x1 single-photon camera system

T. Milanese; C. Bruschini; S. Burri; E. Bernasconi; A. C. Ulku  et al.

[90] Highly sensitive single-molecule detection of macromolecule ion beams

M. Strauss; A. Shayeghi; M. F. X. Mauser; P. Geyer; T. Kostersitz  et al.

[91] DIGILOG: A digital-analog SiPM towards 10 ps prompt-photon tagging in TOF-PET

S. Gundacker; C. Bruschini; A. Gola; K. Herweg; S. Merzi  et al.

[92] On-chip artificial neural network for PET source position reconstruction

A. Muntean; Y. Shoshan; S. Yuzhaninov; E. Ripiccini; C. Bruschini  et al.

[93] Neutron radiation hardness of single-photon avalanche diodes for future RICH detectors

R. Dolenec; M.-L. Wu; C. Bruschini; E. Charbon; D. C. Rodríguez  et al.

[94] Digital pixel test structures implemented in a 65 nm CMOS process

G. A. Rinella; A. Andronic; M. Antonelli; M. Aresti; R. Baccomi  et al.

[95] NbN films with high kinetic inductance for high-quality compact superconducting resonators

S. Frasca; I. Arabadzhiev; S. Y. Bros de Puechredon; F. Oppliger; V. Jouanny  et al.

[96] Radiation Hardness of MALTA2, a Monolithic Active Pixel Sensor for Tracking Applications

D. V. Berlea; P. Allport; I. A. Tortajada; D. Bortoletto; C. Buttar  et al.

[97] Silicon spin qubits from laboratory to industry

M. De Michielis; E. Ferraro; E. Prati; L. Hutin; B. Bertrand  et al.

[98] MALTA-Cz: a radiation hard full-size monolithic CMOS sensor with small electrodes on high-resistivity Czochralski substrate

H. Pernegger; P. Allport; D. V. Berlea; A. Birman; D. Bortoletto  et al.

[99] A Compact Front-End Circuit for a Monolithic Sensor in a 65-nm CMOS Imaging Technology

F. Piro; G. A. Rinella; A. Andronic; M. Antonelli; M. Aresti  et al.

[100] Correlated-photon imaging at 10 volumetric images per second

G. Massaro; P. Mos; S. Vasiukov; F. Di Lena; F. Scattarella  et al.

[101] Seeing Photons in Color

S. Ma; V. Sundar; P. Mos; C. Bruschini; E. Charbon  et al.

[102] Performance of the MALTA telescope

M. van Rijnbach; G. Gustavino; P. Allport; I. A. Tortajada; D. V. Berlea  et al.

[103] Single-Photon Avalanche Diode for Scalable Particle Detection

M.-L. Wu; E. Ripiccini; J. Benserhir; F. Gramuglia; E. Kizilkan  et al.

[104] Challenges and prospects for multi-chip microlens imprints on front-side illuminated SPAD imagers

C. Bruschini; I. M. Antolovic; F. Zanella; A. C. Ulku; S. Lindner  et al.

[105] A 3.3-Gb/s SPAD-Based Quantum Random Number Generator

P. Keshavarzian; K. Ramu; D. Tang; C. Weill; F. Gramuglia  et al.

[106] NIR fluorescence lifetime macroscopic imaging with a novel time-gated SPAD camera

X. Michalet; A. C. Ulku; M. A. Wayne; S. Weiss; C. Bruschini  et al.

[107] Single-photon avalanche diode fabricated in standard 55 nm bipolar-CMOS-DMOS technology with sub-20 V breakdown voltage

W.-y. Ha; E. Park; D. Eom; H.-S. Park; D. Chong  et al.

[108] SPAD imagers in fluorescence-guided surgical navigation

P. Bruza; B. Pogue; E. Charbon; C. Bruschini; A. Pétusseau

[109] Parallelized compressive spontaneous Raman imaging via SPAD arrays (Conference Presentation)

C. Gentner; S. Burri; E. Charbon; C. Bruschini; H. Barbosa de Aguiar

[110] High-efficiency fill factor recovery using refractive microlens arrays imprinted on 0.5–256 kpixel front-side illuminated SPAD imagers

C. Bruschini; I. M. Antolovic; F. Zanella; A. C. Ulku; S. Lindner  et al.

[111] Heralded Spectroscopy: a new single-particle probe for nanocrystal photophysics

G. Lubin; R. Tenne; A. C. Ülkü; I. M. Antolovic; S. Burri  et al.

[112] LinoSPAD2: a 512x1 linear SPAD camera with system-level 135-ps SPTR and a reconfigurable computational engine for time-resolved single-photon imaging

C. Bruschini; S. Burri; E. Bernasconi; T. Milanese; A. C. Ülkü  et al.

[113] The effect of size, orientation and temperature on the deformation of microcast silver crystals

L. Borasi; S. Frasca; E. Charbon; A. Mortensen

[114] Superconducting quantum detectors and single photon charge control for mass spectrometry

M. Strauß; A. Shayeghi; M. Mauser; P. Manchet; M. Smacchia  et al.

[115] Towards precise optical measurements of steady state of and small changes in resting membrane potentials

D. Roy; X. Michalet; K. Bharadwaj; E. W. Miller; Y. Wang  et al.

[116] A 1-GS/s 6-8-b Cryo-CMOS SAR ADC for Quantum Computing

G. Kiene; R. W. J. Overwater; A. Catania; A. G. Sreenivasulu; P. Bruschi  et al.

[117] Nano-MOSFET - Foundation of Quantum Computing Part I

X. Xue; P. Hart; E. Charbon; F. Sebastiano; A. Vladimirescu

[118] Dragonfly Preliminary OBC Design

R. F. Bonny

[119] Massively parallel, real-time multispeckle diffuse correlation spectroscopy using a 500 × 500 SPAD camera

M. A. Wayne; E. J. Sie; A. C. Ulku; P. Mos; A. Ardelean  et al.

[120] SoDaCam: Software-defined Cameras via Single-Photon Imaging

V. Sundar; A. Ardelean; T. Swedish; C. Bruschini; E. Charbon  et al.

[121] Extended Temperature Modeling of InGaAs/InP SPADs

E. Kizilkan; U. Karaca; V. Pesic; M. -J. Lee; C. Bruschini  et al.

[122] Fast Two-Photon Interferometer Capable of Spectral Binning for Quantum Telescopy

A. Nomerotski; J. Jirsa; S. Kulkov; M. Marcisovsky; E. Bernasconi  et al.

[123] Learned Compressive Representations for Single-Photon 3D Imaging

F. Gutierrez-Barragan; F. Mu; A. Ardelean; A. Ingle; C. Bruschini  et al.

[124] Time-resolved imaging with SPAD detectors

J. Zhao

[125] Method and device for performing spectrally and temporally resolved spectroscopy of single photon emission in a quantum device

C. Bruschini; E. Charbon; A. C. Ülkü; S. Burri; G. Lubin  et al.

[126] CMOS Integrated Circuits for the Quantum Information Sciences

J. Anders; M. Babaie; J. C. Bardin; I. Bashir; G. Billiot  et al.

[127] Modelling and design of CMOS SPAD sensors for quantum random number generation

P. Keshavarzian

[128] High-Kinetic Inductance Superconducting Technology for Quantum Applications

S. Frasca

[129] A Cryo-CMOS PLL for Quantum Computing Applications

J. Gong; E. Charbon; F. Sebastiano; M. Babaie

[130] Overview of Cryogenic Operation in Nanoscale Technology Nodes

N. Roknian; Y. Shoshan; I. Stanger; A. Teman; E. Charbon  et al.

[131] Computational Imaging SPAD Cameras

A. Ardelean

[132] Imaging system with silicon photomultipliers and method for operating thereof

A. A. Muntean; E. Charbon

[133] Integrated electronics for time-of-flight positron emission tomography photodetectors

A. A. Muntean

[134] Scalable multi-chip quantum architectures enabled by cryogenic hybrid wireless/quantum-coherent network-in-package

E. Alarcon; S. Abadal; F. Sebastiano; M. Babaie; E. Charbon  et al.

[135] Front-End Circuits for Radiation-Hard Monolithic CMOS Sensors targeting High-Energy Physics Applications

F. Piro

[136] Burst Vision Using Single-Photon Cameras

S. Ma; P. Mos; E. Charbon; M. Gupta

[137] Development of a large-area, light-weight module using the MALTA monolithic pixel detector

F. Dachs; P. Allport; I. A. Tortajada; D. V. Berlea; D. Bortoletto  et al.

[138] Coupling silicon lithography with metal casting

L. Borasi; S. Frasca; K. Nicolet-Dit-Felix; E. Charbon; A. Mortensen

[139] Resolution and penetration depth of reflection-mode time-domain near infrared optical tomography using a ToF SPAD camera

J. Jiang; M. Ackermann; E. Russomanno; A. d. C. Mata; E. Charbon  et al.

[140] Direct MIP detection with sub-10 ps timing resolution Geiger-Mode APDs

F. Gramuglia; E. Ripiccini; C. A. Fenoglio; M.-L. Wu; L. Paolozzi  et al.

[141] Guard-Ring-Free InGaAs/InP Single-Photon Avalanche Diode Based on a Novel One-Step Zn-Diffusion Technique

E. Kizilkan; U. Karaca; V. Pesic; M.-J. Lee; C. Bruschini  et al.

[142] A Cryo-CMOS Oscillator With an Automatic Common-Mode Resonance Calibration for Quantum Computing Applications

J. Gong; Y. Chen; E. Charbon; F. Sebastiano; M. Babaie

[143] Back-gate effects on DC performance and carrier transport in 22 nm FDSOI technology down to cryogenic temperatures

H.-C. Han; F. Jazaeri; A. D'Amico; Z. Zhao; S. Lehmann  et al.

[144] Pixel super-resolution with spatially entangled photons

H. Defienne; P. Cameron; B. Ndagano; A. Lyons; M. Reichert  et al.

[145] A 1-mu W Radiation-Hard Front-End in a 0.18-mu m CMOS Process for the MALTA2 Monolithic Sensor

F. Piro; P. Allport; I. Asensi; I. Berdalovic; D. Bortoletto  et al.

[146] A Cryo-CMOS Wideband Quadrature Receiver With Frequency Synthesizer for Scalable Multiplexed Readout of Silicon Spin Qubits

Y. Peng; A. Ruffino; T.-Y. Yang; J. Michniewicz; M. F. Gonzalez-Zalba  et al.

[147] In vitro and in vivo NIR fluorescence lifetime imaging with a time-gated SPAD camera

J. T. Smith; A. Rudkouskaya; S. Gao; J. M. Gupta; A. Ulku  et al.

[148] A 500 x 500 Dual-Gate SPAD Imager With 100% Temporal Aperture and 1 ns Minimum Gate Length for FLIM and Phasor Imaging Applications

M. Wayne; A. Ulku; A. Ardelean; P. Mos; C. Bruschini  et al.

[149] Sub-10 ps Minimum Ionizing Particle Detection With Geiger-Mode APDs

F. Gramuglia; E. Ripiccini; C. A. Fenoglio; M.-L. Wu; L. Paolozzi  et al.

[150] On Analog Silicon Photomultipliers in Standard 55-nm BCD Technology for LiDAR Applications

J. Zhao; T. Milanese; F. Gramuglia; P. Keshavarzian; S. S. Tan  et al.

[151] Toward Super Temporal Resolution by Suppression of Mixing Effects of Electrons

Nguyen Hoai Ngo; T. G. Etoh; K. Shimonomura; T. Ando; Y. Matsunaga  et al.

[152] Radiation Hardness Study of Single-Photon Avalanche Diode for Space and High Energy Physics Applications

M.-L. Wu; E. Ripiccini; E. Kizilkan; F. Gramuglia; P. Keshavarzian  et al.

[153] Heralded spectroscopy of single nanocrystals

G. Lubin; R. Tenne; A. C. Ulku; I. M. Antolovic; S. Burri  et al.

[154] Sub-surface fluorescence time-of-flight imaging using a large format SPAD sensor

A. Pétusseau; P. Bruza; A. Ulku; S. Streeter; K. S. Samkoe  et al.

[155] Characterization of a large gated SPAD array for in vivo fluorescence lifetime imaging of drug target engagement

J. T. Smith; A. Rudkouskaya; S. Gao; A. Ulku; C. E. Bruschini  et al.

[156] Characterization of a large gated SPAD array for widefield NIR fluorescence lifetime imaging in vitro and in vivo

J. T. Smith; A. Rudkouskaya; S. Gao; A. Ulku; C. Bruschini  et al.

[157] Light detection and ranging with entangled photons

J. Zhao; A. Lyons; A. C. Ulku; H. Defienne; D. Faccio  et al.

[158] Photon and minimum ionizing particle detection with ultra-fast Geiger-mode APDs

E. Ripiccini; F. Gramuglia; C. A. Fenoglio; M.-L. Wu; L. Paolozzi  et al.

[159] CMOS SPADs for High Radiation Environments

M.-L. Wu; F. Gramuglia; E. Ripiccini; C. A. Fenoglio; E. Kizilkan  et al.

[160] Using Heralded Spectrometry to Measure the Biexciton Binding Energy of an Individual Quantum Dot

R. Tenne; G. Lubin; A. C. Ülkü; I. M. Antolovic; S. Burri  et al.

[161] IEEE Open Journal of the Solid-State Circuits Society Special Section on Imagers for 3D Vision

E. Charbon

[162] A Low-noise CMOS SPAD Pixel with 12.1 ps SPTR and 3 ns Dead Time

F. Gramuglia; M.-L. Wu; C. Bruschini; M.-J. Lee; E. Charbon

[163] Cryogenic RF Characterization and Simple Modeling of a 22 nm FDSOI Technology

H.-C. Han; F. Jazaeri; A. D'Amico; Z. Zhao; S. Lehmann  et al.

[164] Low-noise high-dynamic-range single-photon avalanche diodes with integrated PQAR circuit in a standard 55 nm BCD

P. Keshavarzian; F. Gramuglia; E. Kizilkan; C. Bruschini; S. S. Tan  et al.

[165] High-Performance CMOS SPAD-Based Sensors for Time-of-Flight PET Applications

F. Gramuglia

[166] Detecting photons and MIPs with ultra-fast Geiger mode APDs

F. Gramuglia; E. Ripiccini; C. A. Fenoglio; M.-L. Wu; L. Paolozzi  et al.

[167] SiGe Time Resolving Pixel Detectors for High Energy Physics and Medical Imaging

F. Martinelli

[168] Large-format SPAD image sensors for biomedical and HEP applications

E. Charbon; C. Bruschini

[169] A cryo-CMOS chip that integrates silicon quantum dots and multiplexed dispersive readout electronics

A. Ruffino; T.-Y. Yang; J. Michniewicz; Y. Peng; E. Charbon  et al.

[170] Method and light microscope with a plurality of arrays of photon-counting detector elements

T. Anhut; I. M. Antolovic; D. Schwedt; E. Charbon; C. Bruschini

[171] A 7.5-ps, 60% PDP low-noise SPAD fabricated in CMOS technology

F. Gramuglia; P. Keshavarzian; E. Kizilkan; M.-L. Wu; C. Bruschini  et al.

[172] Large-format SPAD arrays and imagers for molecular imaging

C. Bruschini; E. Charbon; F. Gramuglia; E. Ripiccini; A. A. Muntean  et al.

[173] Progress in CMOS SPADs and digital SiPMs for fast timing applications

C. Bruschini; E. Charbon; F. Gramuglia; E. Ripiccini; A. A. Muntean

[174] Blumino: a fully integrated analog SiPM with on-chip time conversion

A. A. Muntean; E. Ripiccini; C. Bruschini; E. Charbon

[175] 2.5 Hz sample rate time-domain near-infrared optical tomography based on SPAD-camera image tissue hemodynamics

J. Jiang; A. d. C. Mata; S. Lindner; E. Charbon; M. Wolf  et al.

[176] A Low-Jitter and Low-Spur Charge-Sampling PLL

J. Gong; E. Charbon; F. Sebastiano; M. Babaie

[177] NIR Fluorescence lifetime macroscopic imaging with a time-gated SPAD camera

X. Michalet; A. Ulku; J. T. Smith; C. Bruschini; S. Weiss  et al.

[178] Light Extraction Enhancement in Inorganic Scintillators for Total-body PET Scanners using Photonic Crystals

F. Gramuglia; E. Ripiccini; V. Gaté; H. Kadiri; D. Turover  et al.

[179] Resolving the Controversy in Biexciton Binding Energy of Cesium Lead Halide Perovskite Nanocrystals through Heralded Single-Particle Spectroscopy

G. Lubin; G. Yaniv; M. Kazes; A. C. Ulku; I. M. Antolovic  et al.

[180] Measurements and analysis of different front-end configurations for monolithic SiGe BiCMOS pixel detectors for HEP applications

F. Martinelli; C. Magliocca; R. Cardella; E. Charbon; G. Iacobucci  et al.

[181] Scaling silicon-based quantum computing using CMOS technology

M. F. Gonzalez-Zalba; S. de Franceschi; E. Charbon; T. Meunier; M. Vinets  et al.

[182] Theoretical minimum uncertainty of single-molecule localizations using a single-photon avalanche diode array

Q. Houwink; D. Kalisvaart; S.-T. Hung; J. Cnossen; D. Fan  et al.

[183] Deep cryogenic operation of 55 nm CMOS SPADs for quantum information and metrology applications

A. Morelle; F. Gramuglia; P. Keshavarzian; C. Bruschini; D. Chong  et al.

[184] A massively scalable Time-to-Digital Converter with a PLL-free calibration system in a commercial 130 nm process

F. Martinelli; P. Valerio; R. Cardarelli; E. Charbon; G. Iacobucci  et al.

[185] Towards the ideal PET detector: a scalable architecture with high intrinsic spatial resolution, DOI and sub-200 ps TOF capability

G. Sportelli; M. G. Bisogni; C. Bruschini; P. Carra; E. Charbon  et al.

[186] FPGA-based SiPM Timestamp Detection Setup for High Timing Resolution TOF-PET Application

N. Lusardi; F. Garzetti; S. Salgaro; N. Corna; E. Ronconi  et al.

[187] Architecture and Characterization of a CMOS 3D-Stacked FSI Multi-Channel Digital SiPM for Time-of-Flight PET Applications

F. Gramuglia; A. A. Muntean; C. A. Fenoglio; E. Venialgo Araujo; M. J. Lee  et al.

[188] SPAD Microcells with 12.1 ps SPTR for SiPMs in TOF-PET Applications

F. Gramuglia; M.-L. Wu; M. J. Lee; C. Bruschini; E. Charbon

[189] Heralded Spectroscopy Reveals Exciton-Exciton Correlations in Single Colloidal Nanocrystals

G. Lubin; R. Tenne; V. J. Yallapragada; S. Karg; G. Yaniv  et al.

[190] Towards the ideal TOF-PET detector: a scalable architecture with uncompromised performance for clinical and total-body applications

G. Sportelli; C. Bruschini; P. Carra; E. Charbon; E. Ciarrocchi  et al.

[191] Engineering Breakdown Probability Profile for PDP and DCR Optimization in a SPAD Fabricated in a Standard 55nm BCD Process

F. Gramuglia; P. Keshavarzian; E. Kizilkan; C. Bruschini; S. S. Tan  et al.

[192] Quanta Burst Photography

S. Ma; S. Gupta; A. C. Ülkü; C. Bruschini; E. Charbon  et al.

[193] CMOS 3D-Stacked FSI Multi-Channel Digital SiPM for Time-of-Flight Vision Applications

F. Gramuglia; A. A. Muntean; C. A. Fenoglio; E. Venialgo Araujo; M. J. Lee  et al.

[194] A 500×500 Dual-Gate SPAD Imager with 100% Temporal Aperture and 1 ns Minimum Gate Width for FLIM and Phasor Imaging Applications

A. C. Ülkü; A. Ardelean; P. Mos; C. Bruschini; E. Charbon

[195] Cryogenic Characterization of 16 nm FinFET Technology for Quantum Computing

H.-C. Han; F. Jazaeri; A. D'Amico; A. Baschirotto; E. Charbon  et al.

[196] Random flip-flop: adding quantum randomness to digital circuits for improved cyber security, artificial intelligence and more

M. Stipčević; M. Batelić; E. Charbon; C. Bruschini; M. I. Antolović

[197] Certification of the efficient random number generation technique based on single-photon detector arrays and time-to-digital converters

A. Stanco; D. G. Marangon; G. Vallone; S. Burri; E. Charbon  et al.

[198] In-depth Cryogenic Characterization of 22 nm FDSOI Technology for Quantum Computation

H.-C. Han; F. Jazaeri; A. D'Amico; Z. Zhao; S. Lehmann  et al.

[199] Blumino: The First Fully Integrated Analog SiPM With On-Chip Time Conversion

A. Muntean; E. Venialgo; A. Ardelean; A. Sachdeva; E. Ripiccini  et al.

[200] Heralded Spectroscopy Reveals Exciton-Exciton Correlations in Single Colloidal Quantum Dots

G. Lubin; R. Tenne; A. C. Ulku; I. M. Antolovic; S. Burri  et al.

[201] Single-photon avalanche diode imaging sensor for subsurface fluorescence LiDAR

P. Bruza; A. Petusseau; A. Ulku; J. Gunn; S. Streeter  et al.

[202] Towards Quantum 3D Imaging Devices

C. Abbattista; L. Amoruso; S. Burri; E. Charbon; F. Di Lena  et al.

[203] Towards quantum 3D imaging devices

G. Massaro; C. Abbattista; L. Amoroso; S. Burri; E. Charbon  et al.

[204] SPAD array technology enables fluctuation-contrast super-resolution in a confocal microscope

R. Tenne; A. Makowski; G. Lubin; I. M. Antolovic; U. Rossman  et al.

[205] Quanta Burst Photography

S. Ma; S. Gupta; A. C. Ülkü; C. Bruschini; E. Charbon  et al.

[206] A Scaling Law for SPAD Pixel Miniaturization

K. Morimoto; E. Charbon

[207] CMOS-based cryogenic control of silicon quantum circuits

X. Xue; B. Patra; J. P. G. van Dijk; N. Samkharadze; S. Subramanian  et al.

[208] A Cryogenic Broadband Sub-1-dB NF CMOS Low Noise Amplifier for Quantum Applications

Y. Peng; A. Ruffino; E. Charbon

[209] Full-field quantum imaging with a single-photon avalanche diode camera

H. Defienne; J. Zhao; E. Charbon; D. Faccio

[210] A Pixel Design of a Branching Ultra-Highspeed Image Sensor

N. H. Ngo; K. Shimonomura; T. Ando; T. Shimura; H. Watanabe  et al.

[211] Light Extraction Enhancement Techniques for Inorganic Scintillators

F. Gramuglia; S. Frasca; E. Ripiccini; E. Venialgo Araujo; V. Gâté  et al.

[212] SwissSPAD3 – a dual-gate photon-counting SPAD sensor for widefield FLIM imaging

A. C. Ülkü; A. Ardelean; P. Mos; E. Charbon; C. Bruschini

[213] Quantum super-resolved imaging with SPAD array

G. Lubin; R. Tenne; I. M. Antolovic; E. Charbon; C. Bruschini  et al.

[214] Super-resolved confocal fluctuation microscopy using a SPAD array

A. Makowski; R. Tenne; G. Lubin; A. Sroda; I. M. Antolovic  et al.

[215] Megapixel time-gated SPAD image sensor for scientific imaging applications

K. Morimoto; A. Ardelean; M.-L. Wu; A. C. Ulku; I. M. M. Antolovic  et al.

[216] The Michelangelo step: removing scalloping and tapering effects in high aspect ratio through silicon vias

S. Frasca; R. C. Leghziel; I. N. Arabadzhiev; B. Pasquier; G. F. M. Tomassi  et al.

[217] A Fully-Integrated 40-nm 5-6.5 GHz Cryo-CMOS System-on-Chip with I/Q Receiver and Frequency Synthesizer for Scalable Multiplexed Readout of Quantum Dots

A. Ruffino; Y. Peng; T.-Y. Yang; J. Michniewicz; M. F. Gonzalez-Zalba  et al.

[218] Superluminal Motion-Assisted Four-Dimensional Light-in-Flight Imaging

K. Morimoto; M.-L. Wu; A. Ardelean; E. Charbon

[219] Welcome to the IEEE OPEN JOURNAL OF THE SOLID-STATE CIRCUITS SOCIETY (OJ-SSCS)

F. Aflatouri; L. Breems; E. Charbon; Q. Fan; H. Hashemi  et al.

[220] Low-power image sensor system with single-photon avalanche diode photodetectors

I. Antolovic; C. Bruschini; E. Charbon

[221] Probe Design Optimization for Time-Domain NIROT "Pioneer" System for Imaging the Oxygenation of the Preterm Brain

A. Di Costanzo-Mata; J. Jiang; S. Lindner; C. Zhang; E. Charbon  et al.

[222] Cryogenic CMOS Circuits and Systems: Challenges and Opportunities in Designing the Electronic Interface for Quantum Processors

E. Charbon; M. Babaie; A. Vladimirescu; F. Sebastiano

[223] Integrated multiplexed microwave readout of silicon quantum dots in a cryogenic CMOS chip

A. Ruffino; T.-Y. Yang; J. Michniewicz; Y. Peng; E. Charbon  et al.

[224] A 256x128 3D-Stacked (45nm) SPAD FLASH LiDAR with 7-Level Coincidence Detection and Progressive Gating for 100m Range and 10klux Background Light

P. Padmanabhan; C. Zhang; M. Cazzaniga; B. Efe; A. R. Ximenes  et al.

[225] Direct time-of-flight SPAD image sensors for light detection and ranging

P. Padmanabhan

[226] A 1GS/s 6-to-8b 0.5mW/Qubit Cryo-CMOS SAR ADC for Quantum Computing in 40nm CMOS

G. Kiene; A. Catania; R. Overwater; P. Bruschi; E. Charbon  et al.

[227] High sensitivity single-photon avalanche diode array

I. Antolovic; C. Bruschini; E. Charbon

[228] Cryogenic CMOS Integrated Circuits for Scalable Readout of Silicon Quantum Computers

A. Ruffino

[229] System and method for removing scalloping and tapering effects in high aspect ratio through-silicon vias of wafers

S. Frasca; E. Charbon; S. Carrara; R. Leghziel

[230] A 2.7mW 45fS(rms)-Jitter Cryogenic Dynamic-Amplifier-Based PLL for Quantum Computing Applications

J. Gong; E. Charbon; F. Sebastiano; M. Babaie

[231] In Phantom Validation of Time-Domain Near-Infrared Optical Tomography Pioneer for Imaging Brain Hypoxia and Hemorrhage

J. Jiang; S. Lindner; A. Di Costanzo-Mata; C. Zhang; E. Charbon  et al.

[232] A 6-to-8GHz 0.17mW/Qubit Cryo-CMOS Receiver for Multiple Spin Qubit Readout in 40nm CMOS Technology

B. Prabowo; G. Zheng; M. Mehrpoo; B. Patra; P. Harvey-Collard  et al.

[233] Large-Format Time-Gated SPAD Cameras for Real-Time Phasor-Based FLIM

A. C. Ülkü

[234] Fluorescence lifetime imaging with a megapixel SPAD camera and neural network lifetime estimation

V. Zickus; M.-L. Wu; K. Morimoto; V. Kapitany; A. Fatima  et al.

[235] Toward the Super Temporal Resolution Image Sensor with a Germanium Photodiode for Visible Light

N. H. Ngo; A. Q. Nguyen; F. M. Bufler; Y. Kamakura; H. Mutoh  et al.

[236] Designing a DDS-Based SoC for High-Fidelity Multi-Qubit Control

J. P. G. van Dijk; B. Patra; S. Pellerano; E. Charbon; F. Sebastiano  et al.

[237] Roadmap toward the 10 ps time-of-flight PET challenge

P. Lecoq; C. Morel; J. O. Prior; D. Visvikis; S. Gundacker  et al.

[238] CMOS 3D-Stacked FSI Multi-Channel Digital SiPM for Time-of-Flight PET Applications

F. Gramuglia; A. A. Muntean; E. Venialgo Araujo; M.-J. Lee; S. Lindner  et al.

[239] Light Extraction Enhancement Techniques for Inorganic Scintillators

F. Gramuglia; S. Frasca; E. Ripiccini; E. Venialgo Araujo; V. Gâté  et al.

[240] Introduction to the Special Issue on the 2020 IEEE International Solid-State Circuits Conference (ISSCC)

P. Mohseni; E. Charbon

[241] A Scalable Cryo-CMOS Controller for the Wideband Frequency-Multiplexed Control of Spin Qubits and Transmons

J. P. G. Van Dijk; B. Patra; S. Subramanian; X. Xue; N. Samkharadze  et al.

[242] Dynamic time domain near-infrared optical tomography based on a SPAD camera

J. Jiang; A. d. C. Mata; S. Lindner; E. Charbon; M. Wolf  et al.

[243] Quanta burst photography

S. Ma; S. Gupta; A. C. Ülkü; C. Bruschini; E. Charbon  et al.

[244] Design of a highly scalable TOF-PET detector: the UTOFPET project

E. Ciarrocchi; M. G. Bisogni; N. Camarlinghi; P. Carra; M. Morrocchi  et al.

[245] Image reconstruction for novel time domain near infrared optical tomography: towards clinical applications

J. Jiang; A. D. C. Mata; S. Lindner; C. Zhang; E. Charbon  et al.

[246] Quanta burst photography

S. Ma; S. Gupta; A. C. Ulku; C. Bruschini; E. Charbon  et al.

[247] Image scanning microscopy with quantum and classical correlations

R. Tenne; D. Oron; Y. Silberberg; B.-e. Raphael; U. Rossman  et al.

[248] Efficient random number generation techniques for CMOS single-photon avalanche diode array exploiting fast time tagging units

A. Stanco; D. G. Marangon; G. Vallone; S. Burri; E. Charbon  et al.

[249] A Wideband Low-Power Cryogenic CMOS Circulator for Quantum Applications

A. Ruffino; Y. Peng; F. Sebastiano; M. Babaie; E. Charbon

[250] High fill-factor miniaturized SPAD arrays with a guard-ring-sharing technique

K. Morimoto; E. Charbon

[251] Megapixel time-gated SPAD image sensor for 2D and 3D imaging applications

K. Morimoto; A. Ardelean; M.-L. Wu; A. C. Ulku; I. M. Antolovic  et al.

[252] Multimodal imaging combining time-domain near-infrared optical tomography and continuous-wave fluorescence molecular tomography

W. Ren; J. Jiang; A. D. C. Mata; A. Kalyanov; J. Ripoll  et al.

[253] Wide-field time-gated phasor analysis of visible fluorescence through highly scattering medium

R. Ankri; A. Basu; A. C. Ülkü; C. Bruschini; E. Charbon  et al.

[254] Wide-Field Time-Gated SPAD Imager for Phasor-Based FLIM Applications

A. C. Ülkü; A. Ardelean; I. M. Antolovic; S. Weiss; E. Charbon  et al.

[255] Wide-field time-gated SPAD imager for phasor-based FLIM applications

A. Ulku; A. Ardelean; M. Antolovic; S. Weiss; E. Charbon  et al.

[256] Quantum imaging with SPAD arrays (Conference Presentation)

G. Lubin; R. Tenne; I. M. Antolovic; E. Charbon; C. Bruschini  et al.

[257] Realizing quantum image scanning microscopy with novel detectors

G. Lubin; R. Tenne; I. M. Antolovic; E. Charbon; C. Bruschini  et al.

[258] Characterization and Analysis of On-Chip Microwave Passive Components at Cryogenic Temperatures

B. Patra; M. Mehrpoo; A. Ruffino; F. Sebastiano; E. Charbon  et al.

[259] 19.3 A 200dB FoM 4-to-5GHz Cryogenic Oscillator with an Automatic Common-Mode Resonance Calibration for Quantum Computing Applications

J. Gong; Y. Chen; F. Sebastiano; E. Charbon; M. Babaie

[260] Megapixel SPAD cameras for time-resolved applications

K. Morimoto

[261] A Cryogenic CMOS Parametric Amplifier

M. Mehrpoo; F. Sebastiano; E. Charbon; M. Babaie

[262] Light microscope with photon-counting detector elements and imaging method

T. Anhut; I. M. Antolovic; D. Schwedt; C. Bruschini; E. Charbon

[263] A Cryo-CMOS Digital Cell Library for Quantum Computing Applications

E. Schriek; F. Sebastiano; E. Charbon

[264] A 10-to-12 GHz 5mW Charge-Sampling PLL Achieving 50 fsec RMS Jitter,-258.9 dB FOM and-65 dBc Reference Spur

J. Gong; F. Sebastiano; E. Charbon; M. Babaie

[265] Characterization and Modeling of Mismatch in Cryo-CMOS

P. A. '. Hart; M. Babaie; E. Charbon; A. Vladimirescu; F. Sebastiano

[266] Subthreshold Mismatch in Nanometer CMOS at Cryogenic Temperatures

P. A. T. Hart; M. Babaie; E. Charbon; A. Vladimirescu; F. Sebastiano

[267] Direct time-of-flight depth sensor architecture and method for operating of such a sensor

P. Padmanabhan; C. Zhang; E. Charbon

[268] Cryo-CMOS Interfaces for Large-Scale Quantum Computers

F. Sebastiano; J. P. G. van Dijk; P. A 't Hart; B. Patra; J. van Staveren  et al.

[269] Time-Resolved NIROT 'Pioneer' System for Imaging Oxygenation of the Preterm Brain: Preliminary Results

A. Di Costanzo-Mata; J. Jiang; S. Lindner; L. Ahnen; C. Zhang  et al.

[270] Cryo-CMOS for Analog/Mixed-Signal Circuits and Systems

J. van Dijk; P. 't Hart; G. Kiene; R. Overwater; P. Padalia  et al.

[271] Reconfigurable logic circuit

N. Mentens; F. Regazzoni; E. Charbon

[272] A Scalable Cryo-CMOS 2-to-20GHz Digitally Intensive Controller for 4x32 Frequency Multiplexed Spin Qubits/Transmons in 22nm FinFET Technology for Quantum Computers

B. Patra; J. P. G. van Dijk; S. Subramanian; A. Corna; X. Xue  et al.

[273] System, device and method for quantum correlation measurement with single photon avalanche diode arrays

I. M. Antolovic; C. Bruschini; E. Charbon; G. Lubin; R. Tenne  et al.

[274] Light microscope with reconfigurable sensor array