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This commit is contained in:
Silas Oettinghaus
2024-04-19 10:31:36 +02:00
parent 025498d120
commit ed17953407
30 changed files with 3261 additions and 1580 deletions
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33
Classes/01_transmit/AWG.m
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@@ -4,7 +4,6 @@ classdef AWG
properties(Access=public)
preset
kover %oversampling factor e.g. 16
repetitions %repeat the signal to generate a longer sequence?
fdac %needed
@@ -32,7 +31,6 @@ classdef AWG
% Detailed explanation goes here
arguments
options.preset = 'none';
options.kover = 16;
options.repetitions = 1;
options.normalize = 1;
@@ -45,6 +43,7 @@ classdef AWG
options.lpf_active = 0;
options.lpf_type = 0;
options.f_cutoff = 32e9;
options.H_lpf Filter
end
fn = fieldnames(options);
@@ -54,40 +53,34 @@ classdef AWG
end
end
if options.preset == "M8196A"
% M8196A (92GBd) https://www.keysight.com/us/en/product/M8196A/92-gsa-s-arbitrary-waveform-generators.html
obj.dac_max = 0.5;
obj.dac_min = -.5;
obj.f_cutoff = 50e9;
elseif options.preset == "M8199B"
%https://www.keysight.com/us/en/assets/3120-1465/data-sheets/M8199A-128-256-GSa-s-Arbitrary-Waveform-Generator.pdf
% obj.fdac = 256e9;
obj.dac_max = 0.5;
obj.dac_min = -.5;
obj.f_cutoff = 80e9;
end
end
function signalclass_out = process(obj,signalclass_in)
len_in = length(signalclass_in.signal);
% actual processing of the signal (steps 1. - 3.)
% 1-3. actual processing of the signal (normalize->quantize->sample hold)
signalclass_in.signal = obj.process_(signalclass_in.signal);
% 4. Apply LPF on the signal
if obj.lpf_active
lpf = Filter('filtdegree',5,"f_cutoff",obj.f_cutoff,"fsamp",obj.kover*obj.fdac,"filterType",obj.lpf_type);
signalclass_in = lpf.process(signalclass_in);
if isa(obj.H_lpf,'Filter')
%4.A) user already specified a complete filter class when
% initializing the AWG module
signalclass_in = obj.H_lpf.process(signalclass_in);
else
%4.B) just use a standard filter
lpf = Filter('filtdegree',5,"f_cutoff",obj.f_cutoff,"fsamp",obj.kover*obj.fdac,"filterType",obj.lpf_type);
signalclass_in = lpf.process(signalclass_in);
end
end
% cast the inform. signal to electrical signal
signalclass_in = Electricalsignal(signalclass_in,"fs",obj.fdac*obj.kover,"logbook",signalclass_in.logbook);
% append to logbook
lbdesc = ['AWG preset ', obj.preset, 'k_over:',num2str(obj.kover),'. f_dac:',num2str(obj.fdac*1e-9),'GHz. Resolution:',num2str(obj.bit_resolution),' bits.'];
current_class = class(obj);
lbdesc = ['AWG ', current_class , '// k_over:',num2str(obj.kover),'. f_dac:',num2str(obj.fdac*1e-9),'GHz. Resolution:',num2str(obj.bit_resolution),' bits.'];
signalclass_in = signalclass_in.logbookentry(lbdesc);
% write to output