1993
DOI: 10.1364/ao.32.003894
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Photon counting techniques with silicon avalanche photodiodes

Abstract: The properties of avalanche photodiodes and associated electronics required for photon counting in the Geiger and the sub-Geiger modes are reviewed. When the Geiger mode is used, there are significant improvements reported in overall photon detection efficiencies (approaching 70% at 633 nm), and a timing jitter (under 200 ps) is achieved with passive quenching at high overvoltages (20-30 V). The results obtained by using an active-mode fast quench circuit capable of switching overvoltages as high as 15 V (givi… Show more

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Cited by 258 publications
(161 citation statements)
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“…The thick depletion layer mitigates the carrier diffusion issues found in bulk Si SPADS but with a photon timing resolution of 350 ps measured in a time-correlated single photon counting setup with an active quenching configuration [42]. The Slik TM device also shows high quantum efficiency, achieving above 50% between 540 and 850 nm wavelength [41] and single photon detection efficiency greater than 50% between 600 and 800 nm wavelength at room temperature in a passive quenching configuration at an overbias of 20 V [10]. Practical considerations limit the potential use of the Slik TM device in array format, such as the requirement of a suitable cooling system due to the high power dissipation associated with very high breakdown voltages.…”
Section: Bulk Si Apdsmentioning
confidence: 99%
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“…The thick depletion layer mitigates the carrier diffusion issues found in bulk Si SPADS but with a photon timing resolution of 350 ps measured in a time-correlated single photon counting setup with an active quenching configuration [42]. The Slik TM device also shows high quantum efficiency, achieving above 50% between 540 and 850 nm wavelength [41] and single photon detection efficiency greater than 50% between 600 and 800 nm wavelength at room temperature in a passive quenching configuration at an overbias of 20 V [10]. Practical considerations limit the potential use of the Slik TM device in array format, such as the requirement of a suitable cooling system due to the high power dissipation associated with very high breakdown voltages.…”
Section: Bulk Si Apdsmentioning
confidence: 99%
“…A revised structure from the previous reach-through avalanche diode is the Slik TM device [41]. The thick depletion layer mitigates the carrier diffusion issues found in bulk Si SPADS but with a photon timing resolution of 350 ps measured in a time-correlated single photon counting setup with an active quenching configuration [42].…”
Section: Bulk Si Apdsmentioning
confidence: 99%
“…SLIK devices employed as SPAD in the SPCM-AQR by PKI are built in special ultra-pure high-resistivity silicon wafers with a dedicated and proprietary technological process [10]. The device structure with a thick depletion layer (about 30 m) provides very good QE (better than 50% from 540 to 850 nm wavelength) but requires very high operating voltage (typically 400 V), produces high power dissipation during the avalanche (about 8 W), and limits the photon-timing resolution as quoted in Section I.…”
Section: Spad Devices and Quenching Circuitsmentioning
confidence: 99%
“…The available single-photon detectors based on fast PMTs can attain better than 100-ps FWHM resolution, but they have inadequate QE because of the intrinsic limits of the photocathodes. The commercially available single-photon counting modules (SPCM-AQR) by PerkinElmer (PKI) based on the SLIK silicon avalanche diode detector [10] have very good QE and low noise, but they have inadequate time resolution. In fact, the typical FWHM value of the SPCM-AQR is 350 ps and the intrinsic limit of SLIK devices, which can be attained operating the detector with different circuits, lies between 220 and 150 ps [11], [12].…”
Section: Introductionmentioning
confidence: 99%
“…A lidar system based on small and highly efficient semiconductor lasers is now feasible due to recent developments in the laser and detector technologies. The recent development of high detection eflicie_v (50%), silicon-based photon-counting detectors (Dautet, 1993), when combined with high laser pulse repetition rates and long receiver integration times make miniature lidar systems feasible.…”
Section: Introductionmentioning
confidence: 99%