Update readme

README.md

@@ -1,17 +1,12 @@
-In this folder you will find some supplementary material regarding the article
-"DMI Influence on the Integration, Leakage and Threshold Property of Domain Wall based Neurons".
-In particular:
-
-	- The folder "DW_Leaking_40nmTrack_DMI0d1em3" contains some material about the simulation
-	  of the Leaking of the DW in the 40 nm wide track when the DMI coefficient is 0.1x10^-3 mJ/m^2:
-		1) the .mx3 script used to run the simulation in Mumax;
-		2) the plots of the Demagnetization, Anisotropy, Exchange and Total energies;
-		3) A gif of the movement of the DW along the track. Each second corresponds to
-		   1 ns of the simulation. 
-
-	- The folder "LIFNeuron_DMI0d1em3_CurrentPulse_On8ns_Off40ns" contains some material about
-	  the simulation of the response to current pulses of the LIF neuron, for a DMI coefficient of
-	  0.1x10^-3 mJ/m^2 and current pulses of 7e11 A/m^2:
-		1) the .mx3 script used to run the simulation in Mumax;
-		2) A gif of the movement of the DW along the track. Each second corresponds to
-		   1 ns of the simulation.
+In this folder you will find some supplementary material regarding the article
+"DMI Influence on the Integration, Leakage and Threshold Property of Domain Wall based Neurons".
+In particular:
+
+1. The folder "DW_Leaking_40nmTrack_DMI0d1em3" contains some material about the simulation of the Leaking of the DW in the 40 nm wide track when the DMI coefficient is 0.1x10^-3 mJ/m^2:
+	+ the .mx3 script used to run the simulation in Mumax;
+	+ the plots of the Demagnetization, Anisotropy, Exchange and Total energies;
+	+ a gif of the movement of the DW along the track. Each second corresponds to 1 ns of the simulation. 
+
+2. The folder "LIFNeuron_DMI0d1em3_CurrentPulse_On8ns_Off40ns" contains some material about the simulation of the response to current pulses of the LIF neuron, for a DMI coefficient of 0.1x10^-3 mJ/m^2 and current pulses of 7e11 A/m^2:
+	+ the .mx3 script used to run the simulation in Mumax;
+	+ a gif of the movement of the DW along the track. Each second corresponds to 1 ns of the simulation.