Signals/IQ-Modulation.md

@@ -27,10 +27,10 @@ The I and Q components can contain multiple frequencies which will all be shifte
 IQ modulation can also be used for fast chirps (frequency sweeps), because phase 
 and frequency of the I and Q components can be swiftly changed by the AWG.
 
-# I/Q modulation in pulse_lib
+# I/Q modulation in pulse-lib
 
-Users of pulse_lib don't have to care about the calculation of I and Q outputs.
-They can specify the desired MW pulses after IQ modulation and pulse_lib calculates the I and Q output signals for the AWG.
+Users of pulse-lib don't have to care about the calculation of I and Q outputs.
+They can specify the desired MW pulses after IQ modulation and pulse-lib calculates the I and Q output signals for the AWG.
 
 The user has to specify the I and Q output channels of the AWG as an I/Q pair and pass the frequency of the vector signal generator, the LO frequency.
 For coherent qubit control every qubit needs a channel with the resonant frequency of the qubit.
@@ -100,10 +100,10 @@ $`y(t) = cos(\omega_m t + \frac{a}{2}) cos(\omega_c t) - sin(\omega_m t - \frac{
 $`y(t) = cos(\frac{a}{2}) cos((\omega_c + \omega_m) t) - sin(\frac{a}{2}) sin((\omega_c - \omega_m) t)`$
 
 
-# IQ corrections in pulse_lib
+# I/Q corrections in pulse-lib
 
 A vector signal generator will have options to correct the offset, phase and gain error of the IQ input, but only with a frequency independent correction.
-Pulse_lib can also correct for these errors, where gain and phase corrections are frequency dependent.
+Pulse-lib can also correct for these errors, where gain and phase corrections are frequency dependent.
 
 Example:
   Add gain and phase offset to qubit channels.