WIP - signal types

Classes/AWG.m

@@ -32,7 +32,7 @@ classdef AWG
             %   Detailed explanation goes here
 
             arguments
-                options.preset          = [];         
+                options.preset          = []      ;    
                 options.kover           = 16;
                 options.repetitions     = 1;
                 options.normalize       = 1;
@@ -79,9 +79,18 @@ classdef AWG
 
         end
 
-        function data_out = process_channel(obj,data_in)
+        function elec_out = process_channel(obj,data_in)
             %METHOD1 Summary of this method goes here
             %   Detailed explanation goes here
+            arguments(Input)
+                obj
+                data_in Informationsignal
+            end
+            
+            arguments(Output)
+                elec_out Electricalsignal
+            end
+
             obj.signal_length = length(data_in);
 
             if obj.normalize
@@ -96,24 +105,24 @@ classdef AWG
 
             % 1. Quantize the signal
             if obj.bit_resolution>0
-                data_out = obj.quantization(data_in) ;
+                elec_out = obj.quantization(data_in) ;
             else
-                data_out = data_in;
+                elec_out = data_in;
             end
 
             % 2. Sample and hold + repeat (data_out: 1xsignal length)
-            data_out = repmat(data_out,obj.repetitions,obj.kover);
-            data_out = reshape(data_out',[],1);
+            elec_out = repmat(elec_out,obj.repetitions,obj.kover);
+            elec_out = reshape(elec_out',[],1);
 
             % 3. Add skew
             if obj.skew_active
-                data_out = obj.skew(data_out);
+                elec_out = obj.skew(elec_out);
             end         
 
             % 4. Apply LPF on the signal
             if obj.lpf_active
                 lpf = Filter('filtdegree',4,"f_cutoff",obj.f_cutoff,"fsamp",obj.kover*obj.fdac,"filterType",filtertypes.bessel_inp);
-                data_out = lpf.process(data_out);
+                elec_out = lpf.process(elec_out);
 %                 obj.H_lpf = obj.buildFilter(1);
 %                 data_out = obj.lpf(data_out) ;
             end

Classes/Electricalsignal.m

@@ -7,10 +7,10 @@ classdef Electricalsignal < Signal
     end
     
     methods
-        function obj = Electricalsignal(signal, fsym, fsimu)
+        function obj = Electricalsignal(signal)
             %ELECTRICALSIGNAL Construct an instance of this class
             %   Detailed explanation goes here
-            obj = obj@Signal(signal, fsym, fsimu);
+            obj = obj@Signal(signal);
             
         end
         

Classes/Informationsignal.m

@@ -0,0 +1,25 @@
+classdef Informationsignal < Signal
+    %OPTICALSIGNAL Summary of this class goes here
+    %   Detailed explanation goes here
+
+    properties
+        nase
+        lambda_nm
+    end
+
+    methods
+        function obj = Informationsignal(signal)
+            %OPTICALSIGNAL Construct an instance of this class
+            %   Detailed explanation goes here
+            obj = obj@Signal(signal);
+            
+        end
+
+        function outputArg = method1(obj,inputArg)
+            %METHOD1 Summary of this method goes here
+            %   Detailed explanation goes here
+            outputArg = obj.Property1 + inputArg;
+        end
+    end
+end
+

Classes/Signal.m

@@ -9,14 +9,14 @@ classdef Signal
     end
     
     methods
-        function obj = Signal(signal, fsym)
+        function obj = Signal(signal)
             %SIGNAL Construct an instance of this class
             %   Detailed explanation goes here
             obj.signal = signal;
             
-            obj.fsym = fsym;
+            obj.fsym = 0;
 
-            obj.fsimu = fsym;
+            obj.fsimu = 0;
 
         end