Photon Detection: Efficiency and Coating

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Covers optical and electronic shot noise, focusing on signal-to-noise ratio calculations and the impact of quantum efficiency on detectivity.

Provides an overview of ideal detectors, focusing on their theory, noise limitations, and performance metrics in optical detection systems.

Explores optical amplification effects on SNR and noise figure in photonic systems.

Explores amplitude and phase modulation, noise figures, and detector noise in fiber amplifiers.

Explores noise in electronics, covering average power, signal-to-noise ratio, deterministic and random signals, and noise amplification.

Explores electrical metrology, emphasizing noise and signal analysis, covering topics such as charges, currents, voltages, and various noise sources.

Discusses the electronics, noise characteristics, and measurement circuits of photodiodes, including their applications in imaging systems.

Explores noise sources in data acquisition, including thermal, shot, and amplifier noise, as well as the effects of ADC noise.

Explores PC1D modeling for solar cell spectral response analysis.

Explores noise sources, Fluctuation-Dissipation Theorem, amplifier noise, interference effects, and quantization error in electrical systems.

Discusses the formalism of noise in photodetectors, focusing on detection limits and the relationship between input power and output current.

Explores stress-based frequency tuning in micro/nanomechanical devices, covering black body radiation, optical nonlinearity, NETD, and dynamic range.

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