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fixed merge conflict

master
Wouter Horlings 7 年之前
父節點
88205abb4d 983d5d319a
當前提交
18a54097c9
共有 18 個文件被更改，包括 1196 次插入 和 207 次删除
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  1. +23
    -0
      Componenten Fourierkastjes.txt
  2. +1
    -0
      Equipment/prologix_discovery.m
  3. 二進制
      Manuals/GPIB-protocol/ab48_11.pdf
  4. 二進制
      OOequipment/Experiment6.zip
  5. 二進制
      OOequipment/FourierHarmonics.mlx
  6. 二進制
      OOequipment/RC_TransferFunction_solution.mlx
  7. +39
    -0
      OOequipment/debug/RC_TransferFunction_sub.m
  8. +17
    -0
      OOequipment/debug/discovery.m
  9. 二進制
      OOequipment/debug/errorlist.mat
  10. +57
    -0
      OOequipment/debug/test.m
  11. +2
    -2
      OOequipment/initializeEquipment.m
  12. +268
    -0
      OOequipment/subfiles/ChannelClass.m
  13. +87
    -16
      OOequipment/subfiles/EquipmentClass.m
  14. +44
    -26
      OOequipment/subfiles/FunctionGeneratorClass.m
  15. +0
    -161
      OOequipment/subfiles/Oscilloscope.m
  16. +238
    -0
      OOequipment/subfiles/OscilloscopeClass.m
  17. +2
    -2
      OOequipment/subfiles/TriggerClass.m
  18. +418
    -0
      OOequipment/subfiles/html/Channel.html

+ 23
- 0
Componenten Fourierkastjes.txt 查看文件

@@ -0,0 +1,23 @@
Aantallen zijn per kastje. D = verkrijgbaar bij Digi-Key; M = verkrijgbaar bij Mouser.

Condensatoren (4x): 100nF 2.5% Siemens MKP Axiaal 14x19mm
M Vervanger: Vishay MKP1839410163
Weerstanden (4x): 20kOhm 1% 50ppm/k 2.5x6.2mm
D/M Vervanger: Vishay RN55C2002FB14
Spoelen (4x):
D Kern, onderhelft: B65701T1000A48 (levertijd één maand)
- Kern, bovenhelft: B65701D1000A48 (slecht verkrijgbaar; mogelijkkan de schroefdraad die in de B65701T1000A48 geplakt zit verwijderd worden om een B65701D1000A48 te maken. B65701T1000A48 lijkt bij Digi-Key beide helften te bevatten.)
D/M Stelschroef: B65679E0002X022 (B65679E0003X022 bestaat ook, maar het kernmateriaal hierop is iets dunner. De air-gap kan dan dus niet volledig gesloten worden, en aangezien de originele spoel met 485 windingen een zelfinductie van maximaal 237mH heeft, moet deze, met een kern met een A_L van 1000nH, wel volledig gesloten kunnen worden.)
D(/M) Mount: B65705B0003X000 (Momenteel niet op voorraad bij Mouser.)
D/M Draadhouder: B65702B0000T001
Draad:
D 0.25mm (31m): Vergelijkbaar met CNC Tech 600232 (3.5km, AWG32)
D 0.35mm (16m): Vergelijkbaar met CNC Tech 600228 (1.4km, AWG28)
D 0.45mm (11m): Vergelijkbaar met CNC Tech 600226 (0.9km, AWG26)
D 0.60mm (7m): CNC Tech 600224 (0.5km, AWG24)
BNC-Connector (2x):
D/M Vergelijkbaar met Amphenol 031-5431-10RFX
Schakelaars (4x):
D/M Vergelijkbaar met C&K 7101MD9ABE
Behuizing (1x): Niet meer te vinden
M Vervanger: Hammond 1402B of 1402BV (voorraad beperkt, levertijd daarna drie weken)

+ 1
- 0
Equipment/prologix_discovery.m 查看文件

@@ -25,6 +25,7 @@ remote_port = 3040;

%% setup dsp to send and recieve udp packets.
udpconnection = udp('255.255.255.255',3040);
udpconnection.LocalHost = '10.0.0.10';
%hudpr = dsp.UDPReceiver('LocalIPPort',local_port);
% hudps = dsp.UDPSender('RemoteIPAddress','255.255.255.255','RemoteIPPort',remote_port,'LocalIPPortSource','Property','LocalIPPort',local_port);
% start recieving udp packets


二進制
Manuals/GPIB-protocol/ab48_11.pdf 查看文件


二進制
OOequipment/Experiment6.zip 查看文件


二進制
OOequipment/FourierHarmonics.mlx 查看文件


二進制
OOequipment/RC_TransferFunction_solution.mlx 查看文件


+ 39
- 0
OOequipment/debug/RC_TransferFunction_sub.m 查看文件

@@ -0,0 +1,39 @@
%% Transfer function of a RC-network
% This script will run automated measurements for you. Note that all frequencies
% are given in Hertz.
%% Component Values
% Fill in the measured values in the following code box.
%%
R = 3.2942e3; %Ohm
C = 315.82e-9;%Farad
%%
% Give the desired begin and end frequency as well as number of steps:

f_start = 10; %Hz
f_stop = 1e3; %Hz
%%
% Do not edit the following code box.

f = 10.^linspace(log10(f_start),log10(f_stop),500);
%% Theoratical Curves
% Give the equations for the magnitude:
%%
A = -10*log10(1+(2*pi*f*R*C).^2);
%%
% For the phase:

P = -atan(2*pi*f*R*C);
%%
% For the cut-off frequency:

Fc = 1/(2*pi*R*C);
%%
% And both asymptotes where $f >> f_c$ and $f << f_c$:

S_smaller = 0*f; %smaller than cut-off frequency
S_larger = -20*log10(2*pi*f*R*C); %larger than cut-off frequency
%% Running the Measurement
%%
n_steps = 5;
amplitude = 10;
RC_TransferFunction_script;

+ 17
- 0
OOequipment/debug/discovery.m 查看文件

@@ -0,0 +1,17 @@

ipPrefix='10.0.0';
ipPrefixRegex = '10\.0\.0';
if ispc()
system(['for /L %a in (1,1,254) do @start /b ping ' ipPrefix '.%a -w 100 -n 2 >nul']);
[~,arptable] = system('arp -a');
ipaddresses = regexp(arptable,[ipPrefixRegex '\.(25[0-5]|2[0-4][0-9]|[01]?[0-9]?[0-9])(?=[-a-f0-9\s]*?dynamic)'],'match');
elseif isunix()
[~,ipaddresses] = system(['echo $(seq 254) | xargs -P255 -I% -d" " ping -W 1 -c 1 ' ipPrefix '.% | grep -P -o "[0-1].*?(?=:)"']);
elseif ismac()
[~,ipaddresses] = system(['seq 254 | xargs -n1 -P255 -I% -- sh -c "ping -W1 -c1 ' ipPrefix '.% &>/dev/null && echo ' ipPrefix '.%"']);
else
end


%% find prologix

二進制
OOequipment/debug/errorlist.mat 查看文件


+ 57
- 0
OOequipment/debug/test.m 查看文件

@@ -0,0 +1,57 @@
for i = 1:5e6:15e6
fg.write_unsafe(['apply:sin ', num2str(i)])
fg.opc
fg.write_unsafe('func:shape ramp')
fg.opc
end
fg.error

%%
% plot y=11*exp(-|x/6|)*sin(x) from x= -12.5 to x=9.4
x = linspace(-10*pi,10*pi,8000);
y = 11.*exp(-abs(x./6)).*sin(x);
plot(x,y,x+20*pi,y)

%%
tic
fg.frequency = 2000;
fg.waveform = 'sinus';
fg.unit = 'Vrms';
fg.frequency = 1e6;
toc

%%



a=-10*log(1+(2*pi*f*r*c)^2);
s=step(2*pi*f-1/(r*c))*(-20*log(2*pi*f*r*c));
p=-atan(2*pi*f*r*c);

%%
f1=100;
phase_diff1 = 0.5;
tp=((1:1000)./1000);
tp2=tp-((phase_diff1*1000/(f1*360))./1000);
% normalizing - 360 is 1 complete phase shift

x=0.8*exp(2*pi*i*signal_freq*tp)+0.4*exp(2*pi*i*20*tp);
y=0.8*exp(2*pi*i*signal_freq*tp2)+0.4*exp(2*pi*i*20*tp);
%%
Fs = (wave1.stop-wave1.start)/wave1.length;
p1=(fft(real(wave1.waveform),1024));
p2=(fft(real(wave2.waveform),1024));

phase_diff=(angle(p1(f1)))-(angle(p2(f1)));


%%
tic

[data,raw] = transferFunction(sc,fg,500,5000,50,10);
figure;
subplot(2,1,1)
semilogx(data.frequency,data.magnitude)
subplot(2,1,2)
semilogx(data.frequency,data.phase);
toc

+ 2
- 2
OOequipment/initializeEquipment.m 查看文件

@@ -1,9 +1,9 @@
if ~exist('theory_only','var') || theory_only == false
if ~exist('functiongenerator','var')
functiongenerator = FunctionGenerator('10.0.0.3',1234,10);
functiongenerator = FunctionGeneratorClass('10.0.0.3',1234,10);
end

if ~exist('oscilloscope','var')
oscilloscope = Oscilloscope('10.0.0.2',5025,2);
oscilloscope = OscilloscopeClass('10.0.0.2',5025,2);
end
end

+ 268
- 0
OOequipment/subfiles/ChannelClass.m 查看文件

@@ -0,0 +1,268 @@
classdef ChannelClass
% CHANNELCLASS is the class for one channel of the oscilloscope. Multiple
% settings for the different channels of the oscilloscope can be changed
% via this class definition
% See also: OSCILLOSCOPECLASS
properties (Hidden, Access = private)
scope % Contains the class of the scope that is parent of this channel.
channelnumber % is the number of the channel on the scope.
end
properties (Dependent)
state %is channel enabled or not
coupling %DC or AC
bandwidth %inputfilter bandwidth
scale %Voltage scale in volt/div
offset %DC offset
probe %probesetting
label %name for channel on scope
type %set decimation mode
probeunit %Define current or voltage probe
end
methods
%Constructor of class
function ch = ChannelClass(scope,channelnumber)
ch.channelnumber = channelnumber;
ch.scope = scope;
end
%% Get.function section
%all get functions pull information from equipment to update
%properties.
function s = get.state(ch)
s = ch.CHAN('state?');
end
function out = get.coupling(ch)
out = ch.CHAN('coup?');
end
function out = get.bandwidth(ch)
out = ch.CHAN('band?');
end
function out = get.offset(ch)
out = ch.CHAN('offs?');
end
function out = get.scale(ch)
out = ch.CHAN('scal?');
end
function out = get.label(ch)
out = ch.CHAN('lab?');
end
function out = get.type(ch)
out = ch.CHAN('type?');
end
function out = get.probeunit(ch)
out = ch.scope.query(['PROB',num2str(ch.channelnumber),':SET:ATT:UNIT?']);
end
function out = get.probe(ch)
out = ch.scope.query(['PROB',num2str(ch.channelnumber),':SET:ATT:MAN?']);
end
%% Set.function section
% This section contains all functions to change settings of a
% channel
function ch = set.state(ch,in)
%STATE Set the channel on or off.
%Options: ON | OFF
ch.CHAN('state',in);
end

function ch = set.coupling(ch,in)
%COUPLING Set coupling to one of the following settings:
%Options: DCLimit | ACLimit | GND
ch.CHAN('coup',in);
end
function ch = set.bandwidth(ch,in)
%BANDWIDTH Set bandwidthlimit. Enable lowpass 20MHz filter
%Options: FULL|B20
ch.CHAN('band',in);
end
function ch = set.offset(ch,in)
%OFFSET Sets the DC offset for channel
%Range: Depend on vertical scale and probe attenuation.
%Increment: Depends on vertical scale and probe attenuation.
%On reset: 0
%Default unit: V
ch.CHAN('offs',in);
end
function ch = set.scale(ch,in)
%SCALE Sets the scale for the channel
% Scale value, given in Volts per division.
% Range: 1e-3 to 10 (without probe attenuation)
% *RST: 5e-3
% Default unit: V/div
ch.CHAN('scal',in);
end
function ch = set.label(ch,in)
%LABEL Sets label of the channel on the scope
ch.CHAN('lab',in);
end
function ch = set.type(ch,in)
%Sets the type of the channel
ch.CHAN('type',in);
end
function ch = set.probeunit(ch,unit)
ch.scope.write(['PROB',num2str(ch.channelnumber),':SET:ATT:UNIT ', unit]);
end
function ch = set.probe(ch,man)
ch.scope.write(['PROB',num2str(ch.channelnumber),':SET:ATT:MAN ', double2str(man)]);
end
%% not set or get function

function enable(ch)
%ENABLE channel
ch.state('ON');
end

function disable(ch)
%DISABLE channel
ch.state('OFF');
end
function out = frequency(ch)
%FREQUENCY gets the measured frequency of current signal.
%Equal to one over the period.
% See also PERIOD
out = str2double(ch.MEAS('freq'));
end
function out = peak2peak(ch)
%PEAK2PEAK gets the peak2peak value of current signal.
%Equal to AMPLITUDE times two.
out = str2double(ch.MEAS('peak'));
end
function out = period(ch)
%PERIOD Gets the period of the current signal.
%Equal to one over the frequency.
out = str2double(ch.MEAS('per'));
end
function out = amplitude(ch)
%AMPLITUDE Gets the amplitude of the current signal.
%Equal to half the PEAK2PEAK value.
%See also PEAK2PEAK
out = str2double(ch.MEAS('ampl'));
end
function out = mean(ch)
%MEAN Gets the mean value of the current signal.
out = str2double(ch.MEAS('mean'));
end
function out = rms(ch)
%RMS Gets the rms value of the current signal.
out = str2double(ch.MEAS('rms'));
end
function out = phase(ch)
%PHASE gets the phase shift between two signals.
%Cannot be done on a single channel.
out = str2double(ch.MEAS('phas'));
end
function data = waveform(ch,window)
%WAVEFORM allows for the waveform to be downloaded to matlab
% data = WAVEFORM(ch,window) gets the waveform from the scope and
% returns a array of the waveform.
%
% WINDOW can be one of the following options:
%
%*DEFault* (Default option)
% Waveform points that are visible on the screen. At maximum
% waveform rate, the instrument stores more samples than visible
% on the screen, and DEF returns less values than acquired.
%
%*MAXimum*
% All waveform samples that are stored in the memory. Only available
% if acquisition is stopped.
%
%*DMAXimum*
% Display maximum: Waveform samples stored in the current
% waveform record but only for the displayed time range. At maximum
% waveform rate, the instrument stores more samples than
% visible on the screen, and DMAX returns more values than DEF.
% Only available if acquisition is stopped.
%
% See also OSCILLOSCOPECLASS.SETWAVEFORMSETTINGS
ch.scope.single;
if nargin < 2
window = 'DEF';
end
ch.scope.setWaveformSettings(window,'REAL')
data = ch.getWaveform;
end
end
methods (Hidden, Access = private)
function c = CHAN(ch,string,in)
% CHAN checks if the string corresponds with a query or write
% c = CHAN(ch, string, in) Where 'ch' is the channel-object,
% 'string' is a part of the SCPI-command and 'in' is the actual
% value is to be set. 'in' is optional.
if nargin == 2 %If only ch and string are given it can be a query
if strcmp(string(end),'?') %If the string ends with a '?' then it is a query.
c = ch.scope.query(['CHAN',num2str(ch.channelnumber),':',string]);
else %Without 'in' and no string it is a event.
ch.scope.write(['CHAN',num2str(ch.channelnumber),':',string]);
end
else %If there is a third argument then the setting should be uploaded to the scope.
ch.scope.write(['CHAN',num2str(ch.channelnumber),':',string,' ',in]);
end
end
end
methods (Hidden)
function data = getWaveform(ch)
%GETWAVEFORM Downloads and processes the waveform from scope.
header = str2double(ch.CHAN('DATA:HEAD?')); %downloads the dataheader of the waveform that is stored on the scope.
data.start = header(1); %First position in header is starttime in seconds
data.stop = header(2); %Second position in header is stoptime in seconds
data.length = header(3); %Thirth position in header is record length of the waveform in samples.
data.sampletime = str2double(ch.CHAN('DATA:XINC?')); %Sample time is downloaded from scope.
ch.scope.opc; %Wait for scope.
ch.scope.write_unsafe(['CHAN',num2str(ch.channelnumber),':DATA?']); %Send command to download the data.
%NOTE! Must be done with write_unsafe. Normal WRITE would also
%check if there are errors but this will interfere with the
%datastream.
data.data = ch.scope.readWaveform(data.length); %Read data from buffer.
end
function c = MEAS(ch,string)
%MEAS makes all the measurement-functions easier.
%Most of the measurements queries start with
%MEAS<m>:RESult:ACT? Thus goes automatic right now.
c = ch.scope.query(['MEAS',num2str(ch.channelnumber),':RES:ACT?',string]);
end
% function c = CHANsend(ch,string,in)
% c = ['CHAN',num2str(ch.channelnumber),':',string,' ',in];
% end
end
end

OOequipment/subfiles/Equipment.m → OOequipment/subfiles/EquipmentClass.m 查看文件

@@ -1,12 +1,12 @@
classdef Equipment < handle
classdef EquipmentClass < handle
%EQUIPMENT Summary of this class goes here
% Detailed explanation goes here
properties (SetAccess=protected)
name
tcp
channel
locked
name %name of equipment
tcp %TCP-object with connection to equipment
channel %GPIB-channel if equipment is connected via prologix
locked %lock frontpanel
manufacturer
model
serialnumber
@@ -20,13 +20,13 @@ classdef Equipment < handle
end
methods
function ecq = Equipment(ipAddress,port,channel)
function ecq = EquipmentClass(ipAddress,port,channel)
%EQUIPMENT Construct an instance of this class.
% This functions opens the required TCP connection
% for this device. Channel is GPIB-channel on prologix
% converter if used, otherwise set channel to -1.
% Name is queried from device via '*IDN?' command.
ecq.tcp = Equipment.getTCP(ipAddress,port);
ecq.tcp = EquipmentClass.getTCP(ipAddress,port);
ecq.locked = false;
ecq.channel = channel;
ecq.name = ecq.idn();
@@ -74,8 +74,10 @@ classdef Equipment < handle
ecq.write_unsafe('*OPC?');
for i = 1:10
ack = ecq.read;
if strcmp(ack(1),'1')
return
if ~isempty(ack)
if strcmp(ack(1),'1')
return
end
end
end
error('Device is not ready');
@@ -180,7 +182,7 @@ classdef Equipment < handle
%The function will pull all errors from the device error stack.
%This is up to a maximum of 20 errors. If errors have occured
%the function will throw a warning with all the error messages.
for i = 1:20
for i = 1:1
output = ecq.query_unsafe('SYSTem:ERRor?'); %Query error message from device.
% [msgstr, msgid] = lastwarn;
% if strcmp(msgid,'instrument:fscanf:unsuccessfulRead')
@@ -258,14 +260,17 @@ classdef Equipment < handle
methods (Access = protected, Hidden)
function setPrologix(ecq)
%SETPROLOGIX Set the correct default settings
ecq.write_unsafe('++mode 1'); %set device in controller mode
ecq.write_unsafe('++auto 0'); %disable automatic datapull. this avoids errors on equipment.
ecq.write_unsafe('++eoi 1'); %enable end of line character
ecq.write_unsafe('++eos 0'); %Set end of line character
end
function delete(ecq)
%DELETE Destructs the current object.
ecq.unlock;
Equipment.getTCP(ecq.tcp.RemoteHost,-ecq.tcp.RemotePort);
EquipmentClass.getTCP(ecq.tcp.RemoteHost,-ecq.tcp.RemotePort);
end
end
@@ -287,7 +292,7 @@ classdef Equipment < handle
%call) make a struct in the variable.
tcpconnection = struct;
end
[ipname,ipAddress] = Equipment.ip2structname(ipAddress,abs(port)); %Get a structname and a cleaned ipaddress.
[ipname,ipAddress] = EquipmentClass.ip2structname(ipAddress,abs(port)); %Get a structname and a cleaned ipaddress.
if port > 0 %if port number is positive a connection is made.

@@ -329,7 +334,7 @@ classdef Equipment < handle
function num = forceNum(input)
%FORCENUM Throws an error if the input is not numeric.
if ~Equipment.isnum(input)
if ~EquipmentClass.isnum(input)
error('Input should be a (single) number.');
end
num = input;
@@ -344,10 +349,13 @@ classdef Equipment < handle
end
function output = optionnum2str(input)
%OPTIONNUM2STR Change numeric or string input to string output
if isnum(input)
output = num2str(input);
else
output = num2str(real(input));
elseif ischar(input)
output = input;
else
error("Expected a character array or numeric value as input");
end
end
@@ -356,8 +364,71 @@ classdef Equipment < handle
%structname to store stuff in struct (especially for GETTCP).
%cleanip is a shortened ip without leading zeros.
cleanip = regexprep(ipAddress,'(?:(?<=\.)|^)(?:0+)(?=\d)','');
Equipment.iptest(cleanip);
EquipmentClass.iptest(cleanip);
structname = matlab.lang.makeValidName(['ip',cleanip,'_',num2str(port)]);
end
function ipaddress = getInterfaceIP()
%GETINTERFACEIP gets the local ipaddresses on this machine.
if ispc
% Code to run on Windows plaform
[status,result]=system('ipconfig');
if ~(status == 0)
error('Failed to find local IP address');
end
ipaddress = regexp(result,'(?<=\n IPv4 Address[ \.]*: )([0-9]{1,3}\.?){4}','match');
elseif ismac
% Code to run on Mac platform
[status,result]=system('ifconfig');
if ~(status == 0)
error('Failed to find local IP address');
end
ipaddress = regexp(result,'(25[0-5]|2[0-4][0-9]|[01]?[0-9]?[0-9])\.(25[0-5]|2[0-4][0-9]|[01]?[0-9]?[0-9])\.(25[0-5]|2[0-4][0-9]|[01]?[0-9]?[0-9])\.(25[0-5]|2[0-4][0-9]|[01]?[0-9]?[0-9])(?=\/)','match');
elseif isunix
% Code to run on Unix platform
[status,result]=system('ip addr show');
if ~(status == 0)
error('Failed to find local IP address');
end
ipaddress = regexp(result,'(25[0-5]|2[0-4][0-9]|[01]?[0-9]?[0-9])\.(25[0-5]|2[0-4][0-9]|[01]?[0-9]?[0-9])\.(25[0-5]|2[0-4][0-9]|[01]?[0-9]?[0-9])\.(25[0-5]|2[0-4][0-9]|[01]?[0-9]?[0-9])(?=\/)','match');
else
error('Platform not supported');
end
end
function prologixIP = discoverPrologix()
%DISCOVERPROLOGIX attemts to find the prologix on the network.
%It will broadcast on all interfaces and return the ipaddress
%of the prologix. Not build for multiple prologixs on a single
%network.
persistent storedipaddress; %store the ipaddress of the prologix
if ~isempty(storedipaddress)
prologixIP = storedipaddress;
return
end
remotehost = '255.255.255.255'; %set broadcast address
remoteport = 3040; %set remoteport that is used for the prologix discoverprotocol
timeout = 1; %set timeout on package.
% magic string to request ipaddress from prologix: ['5a' '00' '5b' 'db' 'ff' 'ff' 'ff' 'ff' 'ff' 'ff' '00' '00']
magic_msg = uint8([90 0 91 219 255 255 255 255 255 255 00 00]);
ipaddress = EquipmentClass.getInterfaceIP(); %get all interface addresses from getInterfaceIP.
%create an UDPconnection-object for each interface.
udpconnection = cellfun(@(ip) udp(remotehost,remoteport,'LocalHost',ip,'Timeout',timeout),ipaddress,'UniformOutput',0);
cellfun(@fopen,udpconnection); %open all udpconnections
cellfun(@(udpconnection) fwrite(udpconnection,magic_msg),udpconnection); %broadcast the magic_msg via all udpconnections
for i = 1:10
answer = cellfun(@fread,udpconnection,'UniformOutput',0); %read all udpInputBuffers for response from prologix
ack = ~cellfun(@isempty,answer); %check if prologix responded on one of the interfaces.
if sum(ack) > 0 %true if recieved response
msg = answer{ack}; %put message from answer cell in to msg variable
prologixIP = num2str(msg(21:24)','%d.%d.%d.%d'); %get ipaddress from msg.
cellfun(@fclose,udpconnection); %close all connections
storedipaddress = prologixIP; %store ip-address for next functioncall
return
end
end
cellfun(@fclose,udpconnection); %close all connections
prologixIP = ''; %nothing found, return empty chararray.
end
end
end

OOequipment/subfiles/FunctionGenerator.m → OOequipment/subfiles/FunctionGeneratorClass.m 查看文件

@@ -1,41 +1,39 @@
classdef FunctionGenerator < Equipment
% FUNCTION_GENERATOR Control a function generator.
% fg = FUNCTION_GENERATOR('IP', PORT, GPIB_CHAN) connects
classdef FunctionGeneratorClass < EquipmentClass
% FUNCTIONGENERATORCLASS Control a function generator.
% fg = FUNCTIONGENERATORCLASS('IP', PORT, GPIB_CHAN) connects
% to a function generator on IPv4 address 'IP', on port
% 'PORT' and GPIO channel 'GPIB_CHAN', using the Equipment
% class.
%
% See also EQUIPMENT, OSCILLOSCOPE, DIGITALMULTIMETER.
% See also EQUIPMENTCLASS, OSCILLOSCOPECLASS, DIGITALMULTIMETERCLASS.
properties (Dependent)
%Dependent properties; stored on function generator,
% read from or written to function generator when required.
waveform
frequency
voltage
unit
offset
load
output
waveform %Waveform shape
frequency %Frequency setting in hertz
voltage %Amplitude setting as defined by FUNCTIONGENERATORCLASS.UNIT
unit %unit of amplitude: VPP|VRMS|DBM|DEFault
offset %Offset setting in volt
load %output impedence setting 50|inf
output %output enable setting. Only available on 332xx and newer.
end
methods
function fg = FunctionGenerator(ipAddress,port,channel)
% FUNCTION_GENERATOR Control a function generator.
% fg = FUNCTION_GENERATOR('IP', PORT, GPIB_CHAN) connects
function fg = FunctionGeneratorClass(ipAddress,port,channel)
% FUNCTIONGENERATORCLASS Control a function generator.
% fg = FUNCTIONGENERATORCLASS('IP', PORT, GPIB_CHAN) connects
% to a function generator on IPv4 address 'IP', on port
% 'PORT' and GPIO channel 'GPIB_CHAN', using the Equipment
% class.
%
% See also EQUIPMENT, OSCILLOSCOPE, DIGITALMULTIMETER.
fg@Equipment(ipAddress,port,channel);
% See also EQUIPMENTCLASS, OSCILLOSCOPECLASS, DIGITALMULTIMETERCLASS.
fg@EquipmentClass(ipAddress,port,channel);
end

function w = get.waveform(fg)
%Get the function generator waveform setting on waveform
% variable access, using the corresponding SCPI command.
w = FunctionGenerator.getWave(fg.query('FUNCtion:SHAPe?'));
w = FunctionGeneratorClass.getWave(fg.query('FUNCtion:SHAPe?'));
end
function f = get.frequency(fg)
@@ -53,7 +51,7 @@ classdef FunctionGenerator < Equipment
function u = get.unit(fg)
%Get function generator output voltage unit setting on offset
% variable access, using the corresponding SCPI command.
u = FunctionGenerator.getUnit(fg.query('VOLTage:UNIT?'));
u = FunctionGeneratorClass.getUnit(fg.query('VOLTage:UNIT?'));
end

function o = get.offset(fg)
@@ -65,7 +63,7 @@ classdef FunctionGenerator < Equipment
function l = get.load(fg)
%Get function generator load setting on load variable
% access, using the corresponding SCPI command.
l = FunctionGenerator.getLoad(fg.query('OUTPut:LOAD?'));
l = FunctionGeneratorClass.getLoad(fg.query('OUTPut:LOAD?'));
end
function out = get.output(fg)
@@ -79,7 +77,7 @@ classdef FunctionGenerator < Equipment
function fg = set.waveform(fg,w)
%Set function generator waveform setting on waveform variable
% access, using the corresponding SCPI command.
fg.write(['FUNCtion:SHAPe ' FunctionGenerator.getWave(w)]);
fg.write(['FUNCtion:SHAPe ' FunctionGeneratorClass.getWave(w)]);
end

function fg = set.frequency(fg,f)
@@ -99,7 +97,7 @@ classdef FunctionGenerator < Equipment
function fg = set.unit(fg,u)
%Set function generator output voltage unit setting on unit
% variable access, using the corresponding SCPI command.
fg.write(['VOLTage:UNIT ' FunctionGenerator.getUnit(u)]);
fg.write(['VOLTage:UNIT ' FunctionGeneratorClass.getUnit(u)]);
end

function fg = set.offset(fg,o)
@@ -112,16 +110,37 @@ classdef FunctionGenerator < Equipment
function fg = set.load(fg,l)
%Set function generator load setting on load variable access,
% using the corresponding SCPI command.
fg.write(['OUTPut:LOAD ' FunctionGenerator.getLoad(l)]);
fg.write(['OUTPut:LOAD ' FunctionGeneratorClass.getLoad(l)]);
end
function fg = set.output(fg,out)
if strcmp(fg.model(1:3),'335') || strcmp(fg.model(1:3),'332')
fg.write(['OUTP ' Equipment.optionnum2str(out)])
fg.write(['OUTP ' EquipmentClass.optionnum2str(out)])
end
end
function downloadwaveform(fg,waveform,name)
switch fg.model
case '33120A'
downloadwaveform_legacy(fg,waveform,name);
otherwise
downloadwaveform_new(fg,waveform,name);
end
end
function downloadwaveform_legacy(fg,waveform,name)
name_trunc = name(1:min(length(name),8));
fg.opc;
fg.write_noerror(['data volatile' num2str(waveform,',%0.4f')]);
fg.opc;
fg.error;
fg.write_noerror(['data:copy ' name_trunc]);
fg.opc;
fg.error;
fg.write(['func:user' name_trunc]);
end
function downloadwaveform_new(fg,waveform,name)
fg.disableEOI;
fg.write_unsafe(['data:arb ' name ',']);
fg.enableEOI;
@@ -136,7 +155,6 @@ classdef FunctionGenerator < Equipment
x = linspace(-periods*pi,periods*pi,1600);
y = exp(-abs(x./6)).*sin(x)./0.8;
fg.downloadwaveform(y,'scintilla');
end
end


+ 0
- 161
OOequipment/subfiles/Oscilloscope.m 查看文件

@@ -1,161 +0,0 @@
classdef Oscilloscope < Equipment
%OSCILLOSCOPE Summary of this class goes here
% Detailed explanation goes here
properties
nchannels
horizontalPosition
timescale
ch1
ch2
ch3
ch4
trigger
acquisition
end
methods
function sc = Oscilloscope(ipAddress,port,nchannels)
%OSCILLOSCOPE Construct an instance of this class
% Detailed explanation goes here
sc@Equipment(ipAddress,port,-1);
sc.trigger = Trigger(sc);
sc.nchannels = nchannels;
for i = 1:nchannels
sc.(['ch',num2str(i)]) = Channel(sc,i);
end
end
function clear(sc)
sc.messageclose;
sc.write_unsafe('*cls');
flushinput(sc.tcp);
end
function s = get.acquisition(sc)
s = sc.query('ACQ:STAT?');
end
function run(sc)
sc.write_noerror('RUN');
end
function single(sc)
sc.write_noerror('SING');
end
function stop(sc)
sc.write_noerror('STOP');
end
function auto(sc)
sc.write_noerror('AUT');
end
function enable_channels(sc)
sc.write('CHAN:AON')
end
function disable_channels(sc)
sc.write('CHAN:AOFF')
end
function setMeasurement(sc,measurement,type,source1,source2)
prefix = ['MEAS',num2str(measurement),':'];
fprintf(num2str(nargin))
if nargin < 5
source2 = 'CH2';
if nargin < 4
source1 = 'CH1';
end
end
source = [source1,', ',source2];
sc.write([prefix,'SOUR ',source]);
sc.write([prefix,'MAIN ',type]);
end
function m = getMeasurement(sc,measurement)
m = str2double(sc.query(['MEAS',num2str(measurement),':RES:ACT?']));
end
function setWaveformSettings(sc,window,format,type)
if nargin < 4
type = 'HRES';
if nargin < 3
format = 'REAL';
if nargin < 2
window = 'DEF';
end
end
end
sc.clear;
sc.write(['CHAN:TYPE ',type]);
sc.write(['FORM ',format]);
sc.write('FORM:BORD MSBF');
sc.write(['CHAN:DATA:POIN ',window]);
sc.single;
end
function data = readWaveform(sc,datalength)
prefixstring = fscanf(sc.tcp,'%c',2);
prefixlength = str2double(prefixstring(2));
fscanf(sc.tcp,'%c',prefixlength);
data = sc.bin_read_float(datalength);
flushinput(sc.tcp);
end
function data = waveform(sc,channels,window,type)
if nargin < 4
type = 'HRES';
if nargin < 3
window = 'DEF';
if nargin < 2
channels = 1:sc.nchannels;
end
end
end
sc.enable_channels;
sc.setWaveformSettings(window,'REAL',type);
for i = channels
curcha = ['ch',num2str(i)];
wave = sc.(curcha).getWaveform;
data.(curcha) = wave.data;
end
data.sampletime = wave.sampletime;
data.length = wave.length;
end
function message(sc,msg)
sc.messageclose;
sc.write(['DISP:DIAL:MESS ''',msg,''''])
end
function messageclose(sc)
sc.opc;
sc.write_unsafe('DISP:DIAL:CLOS');
end
% function data = waveform(ch,cha)
% ch.scope.clear;
% ch.scope.write('CHAN1:TYPE HRES');
% ch.scope.write('FORM REAL');
% ch.scope.write('FORM:BORD MSBF');
% ch.scope.write('CHAN1:DATA:POIN DEF');
% ch.scope.write('SING');
% header = str2num(ch.scope.query('CHAN1:DATA:HEAD?'));
% ch.scope.write_unsafe('CHAN1:DATA?');
% prefixstring = fscanf(ch.scope.tcp,'%c',2);
% prefixlength = str2double(prefixstring(2));
% datalength = fscanf(ch.scope.tcp,'%c',prefixlength);
% data = fread(ch.scope.tcp,header(3),'float');
% flushinput(ch.scope.tcp);
% end
end
end






+ 238
- 0
OOequipment/subfiles/OscilloscopeClass.m 查看文件

@@ -0,0 +1,238 @@
classdef OscilloscopeClass < EquipmentClass
%OSCILLOSCOPE is the classdef for a Oscilloscope
% This oscilloscope object can contain multiple channels and trigger
% settings.
% EQUIPMENT is the parent class of OSCILLOSCOPE
% This class contains objects for each channel and the trigger.
% See also: TRIGGER, CHANNEL
properties
nchannels %number of channels the scope has
horizontalPosition %horizontal position in seconds
timescale %horizontal scale in seconds/div
ch1 %channel 1 object
ch2 %channel 2 object (empty if NCHANNELS < 2)
ch3 %channel 3 object (empty if NCHANNELS < 3)
ch4 %channel 4 object (empty if NCHANNELS < 4)
trigger %trigger object
end
properties (Dependent)
acquisition %acquisition setting (stop|run|single)
end
methods
function sc = OscilloscopeClass(ipAddress,port,nchannels)
%OSCILLOSCOPE Construct an instance of this class
% This constructor creates a new scope object.
sc@EquipmentClass(ipAddress,port,-1); %make this object a child of the EQUIPMENT class
sc.trigger = TriggerClass(sc); %create a trigger object
sc.nchannels = min(nchannels,4); %Set number of channels with a maximum of 4.
%more channels is possible but this requires more properties.
for i = 1:nchannels %create a channel object for each channel
sc.(['ch',num2str(i)]) = ChannelClass(sc,i);
end
end
function clear(sc)
%CLEAR is used to clear the oscilloscope.
% closes the message on screen
% sends the clear command to the scope and flushes the
% TCP-buffer.
sc.messageclose;
sc.write_unsafe('*cls');
flushinput(sc.tcp);
end
function s = get.acquisition(sc)
%ACQUISITION returns the acquisition state from the scope.
s = sc.query('ACQ:STAT?');
end
function run(sc)
%RUN sets the ACQUISITION state to run.
sc.write_noerror('RUN');
end
function single(sc)
%SINGLE sets the ACQUISITION state to single
%After running a single acquisition the scope will go to STOP
sc.write_noerror('SING');
end
function stop(sc)
%STOP sets the ACQUISITION state to stop.
%Stops the signal acquisition imidiatly. Use SINGLE to run one
%single waveform acquisition before stopping.
%See also RUN, SINGLE
sc.write_noerror('STOP');
end
function auto(sc)
%AUTO sends the autoset command to the scope.
%It should be noted that this function can result in aliassing
%of the wave acquisition.
sc.write_noerror('AUT');
end
function enable_channels(sc,channels)
%ENABLE_CHANNELS enables all available channels on scope.
if nargin < 2
sc.write('CHAN:AON');
else
for i = channels
sc.(['ch' num2str(i)]).enable;
end
end
end
function disable_channels(sc,channels)
%DISABLE_CHANNELS disables all available channels on scope.
if nargin < 2
sc.write('CHAN:AOFF');
else
for i = channels
sc.(['ch' num2str(i)]).disable;
end
end
end
function setMeasurement(sc,measurement,type,source1,source2)
%SETMEASUREMENT sets the measurement slots on the scope.
%SETMEASUREMENT(sc, measurement, type, source1 [,source2]);
%sets one of the measurement place with 'measurement', this can
%be a value in the range 1 till 4. 'source1' and 'source2' give
%on what channel the measurement should be applied. This should
%be done in de form of 'CH<m>' where <m> = 1..4. The default
%settings are: source1 = 'CH1' and source2 = 'CH2'
%With 'type' a measurement type can be selected. Some of the
%measurements require at least 2 channels.
%
%SINGLE CHANNEL:
% FREQuency | PERiod | PEAK | UPEakvalue | LPEakvalue |
% PPCount | NPCount | RECount | FECount | HIGH | LOW |
% AMPLitude | MEAN | RMS | RTIMe | FTIMe | PDCYcle |
% NDCYcle | PPWidth | NPWidth | CYCMean | CYCRms |
% STDDev | CYCStddev | BWIDth | POVershoot | NOVershoot
%
%DOUBLE CHANNEL:
% DELay | PHASe
prefix = ['MEAS',num2str(measurement),':']; %define the prefix for the SCPI command.
%fprintf(num2str(nargin))
%set the default values.
if nargin < 5
source2 = 'CH2';
if nargin < 4
source1 = 'CH1';
end
end
source = [source1,', ',source2]; %set the sources suffix
sc.write([prefix,'SOUR ',source]); %set the sources for the measurementposition
sc.write([prefix,'MAIN ',type]); %set the measurementtype for the measurementposition
end
function m = getMeasurement(sc,measurement)
%GETMEASUREMENT pulls the value from measurementposition.
%m = GETMEASUREMENT(sc,measurement) will return the value that
%was acquired from the measurementslot (given as
%'measurement') as a double.
m = str2double(sc.query(['MEAS',num2str(measurement),':RES:ACT?']));
end
function setWaveformSettings(sc,window,format,type)
%SETWAVEFORMSETTINGS sets the settings to acquire the waveform
%Before the waveform can be downloaded the aquisition settings
%for the channels and/or scope must be set:
%SETWAVEFORMSETTINGS(sc,window,format,type) where:
%'window'
% Set the acquisition window of the waveform. Possible settings
% are: DEF (default option) | MAX | DMAX
% See also CHANNELCLASS.WAVEFORM
%
%'format'
% Set the dataformat of the data. ASCii|REAL (default option)|UINTeger
%
%'type'
% Set resolution mode. SAMPle (default option)| PDETect | HRESolution
if nargin < 4
type = 'HRES';
if nargin < 3
format = 'REAL';
if nargin < 2
window = 'DEF';
end
end
end
sc.clear;
sc.write(['CHAN:TYPE ',type]); %set resolution
sc.write(['FORM ',format]); %set dataformat
sc.write('FORM:BORD MSBF'); %set bitorder to Most Significant Bit First
sc.write(['CHAN:DATA:POIN ',window]); %set window length
sc.single; %run sigle acquisition
end
function data = readWaveform(sc,datalength)
%READWAVEFORM download waveform from oscilloscope
%Downloads the data from oscilloscope with BIN_READ_FLOAT.
%Datastream is constructed as follows:
% #41024<value1><value2>…<value n>
%#4 = number of digits of the following number (= 4 in the example)
%in the code these two are stored as 'prefixstring'.
%1024 = number of following data bytes.
%This breaks if there the TCP-buffer was not cleared before the
%SCPI-command 'CHAN:DATA?' was send.
prefixstring = fscanf(sc.tcp,'%c',2);%read the first 2 characters of the tcp-buffer and store in prefixstring.
prefixlength = str2double(prefixstring(2));%change the second character of prefixstring to double. (this leaves the # behind)
fscanf(sc.tcp,'%c',prefixlength);%read the number of characters equal to the number from the prefixlength.
data = sc.bin_read_float(datalength); %run the function from the EQUIPMENTCLASS to download all the data.
flushinput(sc.tcp);%after the download make sure that nothing is left behind in the tcpbuffer.
end
function data = waveform(sc,channels,window,type)
%WAVEFORM downloads waveform of one or more channels.
%data = WAVEFORM(sc,channels,window,type) returns a struct with
%all waveformdata from the scope. This includes the sampletime
%and data length.
%'channels' is an array of all the channels that the function
%should acquire.
%'window' is the width of the data acquisition.
%'type' is the resolution mode.
%See also: SETWAVEFORMSETTINGS
if nargin < 4
type = 'HRES'; %default resolution is high resolution
if nargin < 3
window = 'DEF'; %default windowsize is DEFault
if nargin < 2
channels = 1:sc.nchannels; %default selection channels is all channels
end
end
end
sc.enable_channels(channels);%enable the channels for the acquisition
sc.setWaveformSettings(window,'REAL',type);%Set the correct settings
for i = channels
curcha = ['ch',num2str(i)]; %make string for current channel
wave = sc.(curcha).getWaveform; %get waveformdata from current channel
data.(curcha) = wave.data; %store wavefromdata from wave-struct into data-struct.
end
data.sampletime = wave.sampletime; %together with the waveforms add sampletime and datalength to data-struct.
data.length = wave.length;
end
function message(sc,msg)
%MESSAGE Print message on screen of oscilloscope.
sc.messageclose;
sc.write(['DISP:DIAL:MESS ''',msg,''''])%send message
end
function messageclose(sc)
%MESSAGECLOSE Close message on the screen of oscillscope.
sc.opc; %wait on ready from scope.
sc.write_unsafe('DISP:DIAL:CLOS'); %clear message
end
end
end






OOequipment/subfiles/Trigger.m → OOequipment/subfiles/TriggerClass.m 查看文件

@@ -1,4 +1,4 @@
classdef Trigger
classdef TriggerClass
%TRIGGER Summary of this class goes here
% Detailed explanation goes here
@@ -17,7 +17,7 @@ classdef Trigger
end
methods
function tr = Trigger(scope)
function tr = TriggerClass(scope)
tr.scope = scope;
end

+ 418
- 0
OOequipment/subfiles/html/Channel.html 查看文件

@@ -0,0 +1,418 @@

<!DOCTYPE html
PUBLIC "-//W3C//DTD HTML 4.01 Transitional//EN">
<html><head>
<meta http-equiv="Content-Type" content="text/html; charset=utf-8">
<!--
This HTML was auto-generated from MATLAB code.
To make changes, update the MATLAB code and republish this document.
--><title>Channel</title><meta name="generator" content="MATLAB 9.4"><link rel="schema.DC" href="http://purl.org/dc/elements/1.1/"><meta name="DC.date" content="2018-03-24"><meta name="DC.source" content="Channel.m"><style type="text/css">
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</style></head><body><div class="content"><pre class="codeinput"><span class="keyword">classdef</span> Channel
<span class="comment">% CHANNEL is the class for one channel of the oscilloscope. Multiple</span>
<span class="comment">% settings for the different channels of the oscilloscope can be changed</span>
<span class="comment">% via this class definition</span>

<span class="keyword">properties</span> (Hidden, Access = private)
scope <span class="comment">% Contains the class of the scope that is parent of this channel.</span>
channelnumber <span class="comment">% is the number of the channel on the scope.</span>
<span class="keyword">end</span>
<span class="keyword">properties</span> (Dependent)
state
coupling
bandwidth
scale
offset
probe
label
type
probeunit
<span class="keyword">end</span>

<span class="keyword">methods</span>
<span class="keyword">function</span> ch = Channel(scope,channelnumber)
ch.channelnumber = channelnumber;
ch.scope = scope;
<span class="keyword">end</span>

<span class="keyword">function</span> s = get.state(ch)
s = ch.CHAN(<span class="string">'state?'</span>);
<span class="keyword">end</span>

<span class="keyword">function</span> out = get.coupling(ch)
out = ch.CHAN(<span class="string">'coup?'</span>);
<span class="keyword">end</span>

<span class="keyword">function</span> out = get.bandwidth(ch)
out = ch.CHAN(<span class="string">'band?'</span>);
<span class="keyword">end</span>

<span class="keyword">function</span> out = get.offset(ch)
out = ch.CHAN(<span class="string">'offs?'</span>);
<span class="keyword">end</span>

<span class="keyword">function</span> out = get.scale(ch)
out = ch.CHAN(<span class="string">'scal?'</span>);
<span class="keyword">end</span>

<span class="keyword">function</span> out = get.label(ch)
out = ch.CHAN(<span class="string">'lab?'</span>);
<span class="keyword">end</span>

<span class="keyword">function</span> out = get.type(ch)
out = ch.CHAN(<span class="string">'type?'</span>);
<span class="keyword">end</span>

<span class="keyword">function</span> out = get.probeunit(ch)
out = ch.scope.query([<span class="string">'PROB'</span>,num2str(ch.channelnumber),<span class="string">':SET:ATT:UNIT?'</span>]);
<span class="keyword">end</span>

<span class="keyword">function</span> out = get.probe(ch)
out = ch.scope.query([<span class="string">'PROB'</span>,num2str(ch.channelnumber),<span class="string">':SET:ATT:MAN?'</span>]);
<span class="keyword">end</span>

<span class="keyword">function</span> ch = set.state(ch,in)
ch.CHAN(<span class="string">'state'</span>,in);
<span class="keyword">end</span>

<span class="keyword">function</span> ch = set.coupling(ch,in)
ch.CHAN(<span class="string">'coup'</span>,in);
<span class="keyword">end</span>

<span class="keyword">function</span> ch = set.bandwidth(ch,in)
ch.CHAN(<span class="string">'band'</span>,in);
<span class="keyword">end</span>

<span class="keyword">function</span> ch = set.offset(ch,in)
ch.CHAN(<span class="string">'offs'</span>,in);
<span class="keyword">end</span>

<span class="keyword">function</span> ch = set.scale(ch,in)
ch.CHAN(<span class="string">'scal'</span>,in);
<span class="keyword">end</span>

<span class="keyword">function</span> ch = set.label(ch,in)
ch.CHAN(<span class="string">'lab'</span>,in);
<span class="keyword">end</span>

<span class="keyword">function</span> ch = set.type(ch,in)
ch.CHAN(<span class="string">'type'</span>,in);
<span class="keyword">end</span>

<span class="keyword">function</span> out = frequency(ch)
out = str2double(ch.MEAS(<span class="string">'freq'</span>));
<span class="keyword">end</span>

<span class="keyword">function</span> out = peak2peak(ch)
out = str2double(ch.MEAS(<span class="string">'peak'</span>));
<span class="keyword">end</span>

<span class="keyword">function</span> out = period(ch)
out = str2double(ch.MEAS(<span class="string">'per'</span>));
<span class="keyword">end</span>

<span class="keyword">function</span> out = amplitude(ch)
out = str2double(ch.MEAS(<span class="string">'ampl'</span>));
<span class="keyword">end</span>

<span class="keyword">function</span> out = mean(ch)
out = str2double(ch.MEAS(<span class="string">'mean'</span>));
<span class="keyword">end</span>

<span class="keyword">function</span> out = rms(ch)
out = str2double(ch.MEAS(<span class="string">'rms'</span>));
<span class="keyword">end</span>

<span class="keyword">function</span> out = phase(ch)
out = str2double(ch.MEAS(<span class="string">'phas'</span>));
<span class="keyword">end</span>

<span class="keyword">function</span> ch = set.probeunit(ch,unit)
ch.scope.write([<span class="string">'PROB'</span>,num2str(ch.channelnumber),<span class="string">':SET:ATT:UNIT '</span>, unit]);
<span class="keyword">end</span>

<span class="keyword">function</span> ch = set.probe(ch,man)
ch.scope.write([<span class="string">'PROB'</span>,num2str(ch.channelnumber),<span class="string">':SET:ATT:MAN '</span>, man]);
<span class="keyword">end</span>

<span class="keyword">function</span> data = waveform(ch,window)
ch.scope.single;
<span class="keyword">if</span> nargin &lt; 2
window = <span class="string">'DEF'</span>;
<span class="keyword">end</span>
ch.scope.setWaveformSettings(window,<span class="string">'REAL'</span>)
data = ch.getWaveform;
<span class="keyword">end</span>

<span class="keyword">function</span> data = getWaveform(ch)
header = str2num(ch.CHAN(<span class="string">'DATA:HEAD?'</span>));
data.length = header(3);
data.start = header(1);
data.stop = header(2);
data.sampletime = str2double(ch.CHAN(<span class="string">'DATA:XINC?'</span>));
ch.scope.opc;
ch.scope.write_unsafe([<span class="string">'CHAN'</span>,num2str(ch.channelnumber),<span class="string">':DATA?'</span>]);
data.data = ch.scope.readWaveform(data.length);
<span class="keyword">end</span>

<span class="keyword">end</span>

<span class="keyword">methods</span> (Hidden, Access = private)
<span class="keyword">function</span> c = CHAN(ch,string,in)
<span class="keyword">if</span> nargin == 2
<span class="keyword">if</span> strcmp(string(end),<span class="string">'?'</span>)
c = ch.scope.query([<span class="string">'CHAN'</span>,num2str(ch.channelnumber),<span class="string">':'</span>,string]);
<span class="keyword">else</span>
ch.scope.write([<span class="string">'CHAN'</span>,num2str(ch.channelnumber),<span class="string">':'</span>,string]);
<span class="keyword">end</span>
<span class="keyword">else</span>
ch.scope.write([<span class="string">'CHAN'</span>,num2str(ch.channelnumber),<span class="string">':'</span>,string,<span class="string">' '</span>,in]);
<span class="keyword">end</span>
<span class="keyword">end</span>

<span class="keyword">function</span> c = MEAS(ch,string)
c = ch.scope.query([<span class="string">'MEAS'</span>,num2str(ch.channelnumber),<span class="string">':RES:ACT?'</span>,string]);
<span class="keyword">end</span>

<span class="comment">% function c = CHANsend(ch,string,in)</span>
<span class="comment">% c = ['CHAN',num2str(ch.channelnumber),':',string,' ',in];</span>
<span class="comment">% end</span>
<span class="keyword">end</span>
<span class="keyword">end</span>
</pre><pre class="codeoutput error">Not enough input arguments.

Error in Channel (line 24)
ch.channelnumber = channelnumber;
</pre><p class="footer"><br><a href="https://www.mathworks.com/products/matlab/">Published with MATLAB&reg; R2018a</a><br></p></div><!--
##### SOURCE BEGIN #####
classdef Channel
% CHANNEL is the class for one channel of the oscilloscope. Multiple
% settings for the different channels of the oscilloscope can be changed
% via this class definition
properties (Hidden, Access = private)
scope % Contains the class of the scope that is parent of this channel.
channelnumber % is the number of the channel on the scope.
end
properties (Dependent)
state
coupling
bandwidth
scale
offset
probe
label
type
probeunit
end
methods
function ch = Channel(scope,channelnumber)
ch.channelnumber = channelnumber;
ch.scope = scope;
end
function s = get.state(ch)
s = ch.CHAN('state?');
end
function out = get.coupling(ch)
out = ch.CHAN('coup?');
end
function out = get.bandwidth(ch)
out = ch.CHAN('band?');
end
function out = get.offset(ch)
out = ch.CHAN('offs?');
end
function out = get.scale(ch)
out = ch.CHAN('scal?');
end
function out = get.label(ch)
out = ch.CHAN('lab?');
end
function out = get.type(ch)
out = ch.CHAN('type?');
end
function out = get.probeunit(ch)
out = ch.scope.query(['PROB',num2str(ch.channelnumber),':SET:ATT:UNIT?']);
end
function out = get.probe(ch)
out = ch.scope.query(['PROB',num2str(ch.channelnumber),':SET:ATT:MAN?']);
end
function ch = set.state(ch,in)
ch.CHAN('state',in);
end
function ch = set.coupling(ch,in)
ch.CHAN('coup',in);
end
function ch = set.bandwidth(ch,in)
ch.CHAN('band',in);
end
function ch = set.offset(ch,in)
ch.CHAN('offs',in);
end
function ch = set.scale(ch,in)
ch.CHAN('scal',in);
end
function ch = set.label(ch,in)
ch.CHAN('lab',in);
end
function ch = set.type(ch,in)
ch.CHAN('type',in);
end
function out = frequency(ch)
out = str2double(ch.MEAS('freq'));
end
function out = peak2peak(ch)
out = str2double(ch.MEAS('peak'));
end
function out = period(ch)
out = str2double(ch.MEAS('per'));
end
function out = amplitude(ch)
out = str2double(ch.MEAS('ampl'));
end
function out = mean(ch)
out = str2double(ch.MEAS('mean'));
end
function out = rms(ch)
out = str2double(ch.MEAS('rms'));
end
function out = phase(ch)
out = str2double(ch.MEAS('phas'));
end
function ch = set.probeunit(ch,unit)
ch.scope.write(['PROB',num2str(ch.channelnumber),':SET:ATT:UNIT ', unit]);
end
function ch = set.probe(ch,man)
ch.scope.write(['PROB',num2str(ch.channelnumber),':SET:ATT:MAN ', man]);
end
function data = waveform(ch,window)
ch.scope.single;
if nargin < 2
window = 'DEF';
end
ch.scope.setWaveformSettings(window,'REAL')
data = ch.getWaveform;
end
function data = getWaveform(ch)
header = str2num(ch.CHAN('DATA:HEAD?'));
data.length = header(3);
data.start = header(1);
data.stop = header(2);
data.sampletime = str2double(ch.CHAN('DATA:XINC?'));
ch.scope.opc;
ch.scope.write_unsafe(['CHAN',num2str(ch.channelnumber),':DATA?']);
data.data = ch.scope.readWaveform(data.length);
end
end
methods (Hidden, Access = private)
function c = CHAN(ch,string,in)
if nargin == 2
if strcmp(string(end),'?')
c = ch.scope.query(['CHAN',num2str(ch.channelnumber),':',string]);
else
ch.scope.write(['CHAN',num2str(ch.channelnumber),':',string]);
end
else
ch.scope.write(['CHAN',num2str(ch.channelnumber),':',string,' ',in]);
end
end
function c = MEAS(ch,string)
c = ch.scope.query(['MEAS',num2str(ch.channelnumber),':RES:ACT?',string]);
end
% function c = CHANsend(ch,string,in)
% c = ['CHAN',num2str(ch.channelnumber),':',string,' ',in];
% end
end
end
##### SOURCE END #####
--></body></html>

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