IEEE Transactions on Electron Devices · 2003 · 327 citations · 10 references
EngineeringElectrical EngineeringMicroelectronicsOptoelectronicsSensorsCharge-coupled DevicesDetector TechnologyNoise In Electronic DevicesNoise In Semiconductor DevicesPhotodetectorsSemiconductor DetectorsAvalanche NoiseAvalanche PhotodiodesElectron MultiplicationExcess NoiseGainMultiplication NoiseNoise In PhotodiodesQuantum Efficiency
Electron multiplying charge-coupled devices (EMCCDs) enable imaging with subelectron noise up to video frame rates and beyond, providing the multiplication gain is sufficiently high. The ultra-low noise, high resolution, high-quantum efficiency, and robustness to over exposure make these sensors ideally suited to applications traditionally served by image intensifiers. One important performance parameter of such low-light imaging systems is the noise introduced by the gain process. This work investigates the noise introduced by the electron multiplication within the EMCCD. The theory and measurements of the excess noise factor are presented. The measurement technique for determining the excess noise factor is described in detail. The results show that the noise performance matches that of the ideal staircase avalanche photodiode. A Monte Carlo method for simulating the low-light level images is demonstrated and the results compared with practical experience.
10
<i>Mathematical Methods in the Physical Sciences</i>
Mary L. Boas, Jacques E. Romain · Physics Today · 1967 · 627 citations
Mathematical Methods in the Physical Sciences.
Louis A. Pipes, Mary L. Boas · American Mathematical Monthly · 1967 · 251 citations