Carson's rule describes the bandwidth that contains 98 percent of the power of a signal transmitted by the modulation of this quantity; such signals may be decoded by a Foster-Seeley discriminator. Bode plots have this quantity on the x axis plotted against magnitude and phase. An upper bound for this quantity to prevent a folding phenomenon called the aliasing problem is named for (*) Nyquist. Amplitude is inversely proportional to this quantity in pink noise, and the amplification of amplitude for certain values of this quantity is called resonance. This quantity, multiplied by two pi and divided by velocity, gives the wavenumber. For 10 points, name this quantity, which for light is equal
Carson's rule describes the bandwidth that contains 98 percent of the power of a signal transmitted by the modulation of this quantity; such signals may be decoded by a Foster-Seeley discriminator. Bode plots have this quantity on the x axis plotted against magnitude and phase. An upper bound for this quantity to prevent a folding phenomenon called the aliasing problem is named for (*) Nyquist. Amplitude is inversely proportional to this quantity in pink noise, and the amplification of amplitude for certain values of this quantity is called resonance. This quantity, multiplied by two pi and divided by velocity, gives the wavenumber. For 10 points, name this quantity, which for light is equal to c over the wavelength.
Carson's rule describes the bandwidth that contains 98 percent of the power of a signal transmitted by the modulation of this quantity; such signals may be decoded by a Foster-Seeley discriminator.
frequency