Using the following steps RF droop correction macro can be deployed.

1. Bring-up the device in the configuration as per requirement.
2. Send tones and measure the amplitude at the edge of the band (±∆F + FNCO) and at the center of the band (FNCO).
3. Figure 2-2 demonstrates a plot of amplitude Vs frequency of a channel A transmitter (TXA) which is configures with NCO frequency (FNCO) at 2 GHz and transmitter data rate (Fdata) of 983 MHz.
   Figure 2-2 Amplitude without RF Droop vs Frequency
4. As mentioned before we need three measurements for amplitude at FNCO and ±∆F + FNCO. Let us take ∆F= Fdata × 0.35 ≈ 340 MHz, hence the values use for function call are determined as follows.

   Variable	Value obseved	Calculation	Final value for C-AFE function call.
   afeInst	Single device	0	0
   txChSel	TXA	0 for TXA	0
   bandNo	Band0	0-Band0	0x0
   ncoNo	NCO1	0 for NCO1	0
   deltaFreq	340 MHz	∆F × 216/Fdata	Int(22667)
   Amplitude(Ac) at FNCO =2000MHz	-9.51 dBm	NA	NA
   Amplitude(A1) at FNCO + ∆F =2340 MHz	-10.122 dBm	NA	NA
   Amplitude(A2) at FNCO -∆F =1660 MHz	-8.933 dbm	NA	NA
   RHS	0.61 dbm	Ac - A1	NA
   LHS	-0.577 dbm	Ac - A2	NA
   amp1	NA	int(10**(RHS/20)*2**15)	Int(35151)
   amp2	NA	int(10**(LHS/20)*2**15)	Int(30661)

5. Additionally, the function for the previous example can be called by the following command:

   CAFÉ.configureTxRfDroop(0 ,0 ,0 ,0, int (22667), int (35151), int (30661))

6. The previous procedure must be repeated for every Transmitter channel.