According to Kasap's Optoelectronics and Photonics: Principles and Practices and precious few other sources, the equation used to calculate the multiplication factor for an avalanche photodiode is named 3 for one guy with this surname.
According to Kasap's Optoelectronics and Photonics: Principles and Practices and precious few other sources, the equation used to calculate the multiplication factor for an avalanche photodiode is named 3 for one guy with this surname. Another guy with this surname developed a theorem, widely used to create high-frequency equivalent circuits, that basically allows one to replace an impedance Z branch between voltages V1 and V2 with an equivalent impedance branch from each of V1 and V2 to 6 ground. In multistage amplifiers, pole splitting is induced and stability increased in a type of frequency compensation named for that guy with this surname if a (*) capacitor is placed across the input to output of the high-gain stage(s). For an amplifier with a voltage gain of −A and an impedance connected input to 9 output, an effect discovered by that guy gives the input impedance for a resistor or inductor as a factor of 1 + A smaller. For 10 points, give this surname attached to said effect, which also causes a feedback capacitorin the voltage gain stage of an amplifier to appear a factor of 1 + A larger.
According to Kasap's Optoelectronics and Photonics: Principles and Practices and precious few other sources, the equation used to calculate the multiplication factor for an avalanche photodiode is named 3 for one guy with this surname.
Miller [or: John Milton Miller]