The Photon Detection Efficiency Calculator (SiPM) is a useful tool for calculating photon detection efficiency (PDE). This simple calculator accepts gain, afterpulsing probability, crosstalk probability, wavelength, and resilience as inputs and produces PDE in a matter of seconds.
Photon Detection Efficiency Calculator: This free online photon detection efficiency calculator can help you quickly and easily compute the value of Silicon Photomultipliers (SiPM). SiPMs can detect fast signals as little as a single photon. Learn how to use the PDE formula to calculate the Photon Detection Efficiency of SiPM sensitivity in simple steps. Important information such as photon detection efficiency and solved examples can also be found on this page.
In the sections below, you'll find a detailed step-by-step process for calculating SiPM's photon detection efficiency. To achieve the desired effect, obtain the steps and carefully follow them.
The photon detection efficiency of SiPMs is measured and evaluates their sensitivity. The following is the PDE formula
PDE = (R x h x c)/[e x λ x G(1 + P_XT) (1 + P_AP)]
The sensor's responsiveness can also be calculated using this PDE calculation.
The following is the procedure how to use the Photon Detection Efficiency calculator
For more concepts check out physicscalculatorpro.com to get quick answers by using this free tool.
1. What is the definition of photon detection efficiency?
The ratio of the number of photons released by microcells to the number of incident photons is called the photon detection efficiency.
2. What does SIPM stand for?
Silicon Photomultiplier (SIPM) is an acronym for Silicon Photomultiplier. It's a solid-state photodetector that generates a current pulse of 10^5 to 10^6 electrons in response to photon absorption.
3. What is the process of converting a photon to an electron?
The "photovoltaic" effect transforms photons into electrons in photovoltaics (photo meaning light, and voltaic meaning electricity). The photovoltaic effect occurs when photons from the sun strike the surface of a silicon semiconductor material, causing free electrons to be liberated from the atoms.
4. How can photons dislodge electrons?
When a photon collides with an electron, some of its energy is used to remove the electron. The photon's remaining energy is transferred to a free negative charge known as a photoelectron.
5. When a photon collides with a solar cell, what happens?
When photons of light strike our solar cell, their energy separates electron-hole pairs. Each photon with sufficient energy will generally liberate exactly one electron, as well as a free hole.