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fixed some typos

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This commit is contained in:
Andreas Pfau 2019-05-19 22:09:04 +02:00
parent d64f17ff3c
commit 615106144a
20 changed files with 40 additions and 40 deletions
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2
matlab/AddCPWPort.m
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@ -17,7 +17,7 @@ function [CSX,port] = AddCPWPort( CSX, prio, portnr, materialname, start, stop,
% is false) % is false)
% 'FeedShift' shift to port from start by a given distance in drawing % 'FeedShift' shift to port from start by a given distance in drawing
% units. Default is 0. Only active if 'ExcitePort' is set! % units. Default is 0. Only active if 'ExcitePort' is set!
% 'Feed_R' Specifiy a lumped port resistance. Default is no lumped % 'Feed_R' Specify a lumped port resistance. Default is no lumped
% port resistance --> port has to end in an ABC. % port resistance --> port has to end in an ABC.
% 'MeasPlaneShift' Shift the measurement plane from start t a given distance % 'MeasPlaneShift' Shift the measurement plane from start t a given distance
% in drawing units. Default is the middle of start/stop. % in drawing units. Default is the middle of start/stop.

6
matlab/AddCoaxialPort.m
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@ -20,7 +20,7 @@ function [CSX,port] = AddCoaxialPort( CSX, prio, portnr, pec_name, materialname,
% set to 0 (default) for a passive port % set to 0 (default) for a passive port
% 'FeedShift' shift to port from start by a given distance in drawing % 'FeedShift' shift to port from start by a given distance in drawing
% units. Default is 0. Only active if 'ExciteAmp' is set! % units. Default is 0. Only active if 'ExciteAmp' is set!
% 'Feed_R' Specifiy a lumped port resistance. Default is no lumped % 'Feed_R' Specify a lumped port resistance. Default is no lumped
% port resistance --> port has to end in an ABC. % port resistance --> port has to end in an ABC.
% 'MeasPlaneShift' Shift the measurement plane from start t a given distance % 'MeasPlaneShift' Shift the measurement plane from start t a given distance
% in drawing units. Default is the middle of start/stop. % in drawing units. Default is the middle of start/stop.
@ -213,7 +213,7 @@ if (excite_amp~=0)
CSX = AddCylindricalShell(CSX,[PortNamePrefix 'port_excite_' num2str(portnr)],0 ,ex_start,ex_stop,0.5*(r_i+r_o),(r_o-r_i)); CSX = AddCylindricalShell(CSX,[PortNamePrefix 'port_excite_' num2str(portnr)],0 ,ex_start,ex_stop,0.5*(r_i+r_o),(r_o-r_i));
end end
%% resitance at start of coaxial line %% resistance at start of coaxial line
ex_start = start; ex_start = start;
ex_stop = stop; ex_stop = stop;
ex_stop(idx_prop_n) = ex_start(idx_prop_n); ex_stop(idx_prop_n) = ex_start(idx_prop_n);
@ -227,6 +227,6 @@ elseif feed_R == 0
CSX = AddBox( CSX, pec_name, prio, ex_start, ex_stop ); CSX = AddBox( CSX, pec_name, prio, ex_start, ex_stop );
CSX = AddCylindricalShell(CSX, pec_name, prio ,ex_start, ex_stop, 0.5*(r_i+r_o),(r_o-r_i)); CSX = AddCylindricalShell(CSX, pec_name, prio ,ex_start, ex_stop, 0.5*(r_i+r_o),(r_o-r_i));
else else
error('openEMS:AddMSLPort','MSL port with resitance <= 0 it not possible'); error('openEMS:AddMSLPort','MSL port with resistance <= 0 it not possible');
end end
end end

8
matlab/AddLumpedPort.m
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@ -15,8 +15,8 @@ function [CSX, port] = AddLumpedPort( CSX, prio, portnr, R, start, stop, dir, ex
% dir: direction/amplitude of port (e.g.: [1 0 0], [0 1 0] or [0 0 1]) % dir: direction/amplitude of port (e.g.: [1 0 0], [0 1 0] or [0 0 1])
% excite (optional): if true, the port will be switched on (see AddExcitation()) % excite (optional): if true, the port will be switched on (see AddExcitation())
% Note: for legacy support a string will be accepted % Note: for legacy support a string will be accepted
% V_Probe_Weight: additional weigth for the voltage probes % V_Probe_Weight: additional weight for the voltage probes
% I_Probe_Weight: additional weigth for the current probes % I_Probe_Weight: additional weight for the current probes
% optional (key/values): % optional (key/values):
% 'PortNamePrefix': an prefix to the port name % 'PortNamePrefix': an prefix to the port name
% varargin (optional): additional excitations options, see also AddExcitation % varargin (optional): additional excitations options, see also AddExcitation
@ -25,7 +25,7 @@ function [CSX, port] = AddLumpedPort( CSX, prio, portnr, R, start, stop, dir, ex
% start = [0 -width/2 0]; % start = [0 -width/2 0];
% stop = [0 width/2 height]; % stop = [0 width/2 height];
% [CSX] = AddLumpedPort(CSX, 5 ,1 , 50, start, stop, [0 0 1], true); % [CSX] = AddLumpedPort(CSX, 5 ,1 , 50, start, stop, [0 0 1], true);
% %this defines an active lumped port in z-direction with a 50 Ohm port impedence % %this defines an active lumped port in z-direction with a 50 Ohm port impedance
% %
% openEMS matlab interface % openEMS matlab interface
% ----------------------- % -----------------------
@ -94,7 +94,7 @@ end
% legacy support, will be removed at some point % legacy support, will be removed at some point
if ischar(excite) if ischar(excite)
warning('CSXCAD:AddLumpedPort','depreceated: a string as excite option is no longer supported and will be removed in the future, please use true or false'); warning('CSXCAD:AddLumpedPort','deprecated: a string as excite option is no longer supported and will be removed in the future, please use true or false');
if ~isempty(excite) if ~isempty(excite)
excite = true; excite = true;
else else

10
matlab/AddMSLPort.m
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@ -16,7 +16,7 @@ function [CSX,port] = AddMSLPort( CSX, prio, portnr, materialname, start, stop,
% is false) % is false)
% 'FeedShift' shift to port from start by a given distance in drawing % 'FeedShift' shift to port from start by a given distance in drawing
% units. Default is 0. Only active if 'ExcitePort' is set! % units. Default is 0. Only active if 'ExcitePort' is set!
% 'Feed_R' Specifiy a lumped port resistance. Default is no lumped % 'Feed_R' Specify a lumped port resistance. Default is no lumped
% port resistance --> port has to end in an ABC. % port resistance --> port has to end in an ABC.
% 'MeasPlaneShift' Shift the measurement plane from start t a given distance % 'MeasPlaneShift' Shift the measurement plane from start t a given distance
% in drawing units. Default is the middle of start/stop. % in drawing units. Default is the middle of start/stop.
@ -37,7 +37,7 @@ function [CSX,port] = AddMSLPort( CSX, prio, portnr, materialname, start, stop,
% - the excitation is active and placed at x=start(1) ('ExcitePort', true) % - the excitation is active and placed at x=start(1) ('ExcitePort', true)
% - a 50 Ohm lumped port resistance is placed at x=start(1) ('Feed_R', 50) % - a 50 Ohm lumped port resistance is placed at x=start(1) ('Feed_R', 50)
% - the width-direction is determined by the cross product of the % - the width-direction is determined by the cross product of the
% direction of propagtion (dir='x') and the excitation vector % direction of propagation (dir='x') and the excitation vector
% (evec=[0 0 -1]), in this case it is the y-direction % (evec=[0 0 -1]), in this case it is the y-direction
% - the MSL-metal is created in a xy-plane at a height at z=start(3) % - the MSL-metal is created in a xy-plane at a height at z=start(3)
% --> It is important to define the MSL height in the start coordinate! % --> It is important to define the MSL height in the start coordinate!
@ -95,7 +95,7 @@ for n=1:2:numel(varargin)
end end
elseif (strcmp(varargin{n},'ExcitePort')==1); elseif (strcmp(varargin{n},'ExcitePort')==1);
if ischar(varargin{n+1}) if ischar(varargin{n+1})
warning('CSXCAD:AddMSLPort','depreceated: a string as excite option is no longer supported and will be removed in the future, please use true or false'); warning('CSXCAD:AddMSLPort','deprecated: a string as excite option is no longer supported and will be removed in the future, please use true or false');
if ~isempty(excite) if ~isempty(excite)
excite = true; excite = true;
else else
@ -247,7 +247,7 @@ if excite
CSX = AddBox( CSX, [PortNamePrefix 'port_excite_' num2str(portnr)], prio, ex_start, ex_stop ); CSX = AddBox( CSX, [PortNamePrefix 'port_excite_' num2str(portnr)], prio, ex_start, ex_stop );
end end
%% MSL resitance at start of MSL line %% MSL resistance at start of MSL line
ex_start(idx_prop) = start(idx_prop); ex_start(idx_prop) = start(idx_prop);
ex_stop(idx_prop) = ex_start(idx_prop); ex_stop(idx_prop) = ex_start(idx_prop);
@ -260,6 +260,6 @@ elseif feed_R == 0
%port "resistance" as metal %port "resistance" as metal
CSX = AddBox( CSX, materialname, prio, ex_start, ex_stop ); CSX = AddBox( CSX, materialname, prio, ex_start, ex_stop );
else else
error('openEMS:AddMSLPort','MSL port with resitance <= 0 it not possible'); error('openEMS:AddMSLPort','MSL port with resistance <= 0 it not possible');
end end
end end

10
matlab/AddStripLinePort.m
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@ -68,7 +68,7 @@ evec0 = evec ./ sum(evec); % evec0 is a unit vector
%set defaults %set defaults
feed_shift = 0; feed_shift = 0;
feed_R = inf; %(default is open, no resitance) feed_R = inf; %(default is open, no resistance)
excite = false; excite = false;
measplanepos = nan; measplanepos = nan;
PortNamePrefix = ''; PortNamePrefix = '';
@ -84,12 +84,12 @@ for n=1:2:numel(varargin)
end end
elseif (strcmp(varargin{n},'Feed_R')==1); elseif (strcmp(varargin{n},'Feed_R')==1);
feed_R = varargin{n+1}; feed_R = varargin{n+1};
if (numel(feed_R)>1) if (numel(feed_shift)>1)
error 'Feed_R must be a scalar value' error 'Feed_R must be a scalar value'
end end
elseif (strcmp(varargin{n},'MeasPlaneShift')==1); elseif (strcmp(varargin{n},'MeasPlaneShift')==1);
measplanepos = varargin{n+1}; measplanepos = varargin{n+1};
if (numel(measplanepos)>1) if (numel(feed_shift)>1)
error 'MeasPlaneShift must be a scalar value' error 'MeasPlaneShift must be a scalar value'
end end
elseif (strcmp(varargin{n},'ExcitePort')==1); elseif (strcmp(varargin{n},'ExcitePort')==1);
@ -263,7 +263,7 @@ if excite
CSX = AddBox( CSX, [PortNamePrefix 'port_excite_2_' num2str(portnr)], prio, ex_start, ex_stop-height_vector ); CSX = AddBox( CSX, [PortNamePrefix 'port_excite_2_' num2str(portnr)], prio, ex_start, ex_stop-height_vector );
end end
%% MSL resitance at start of MSL line %% MSL resistance at start of MSL line
ex_start(idx_prop) = start(idx_prop); ex_start(idx_prop) = start(idx_prop);
ex_stop(idx_prop) = ex_start(idx_prop); ex_stop(idx_prop) = ex_start(idx_prop);
@ -278,6 +278,6 @@ elseif feed_R == 0
CSX = AddBox( CSX, materialname, prio, ex_start, ex_stop+height_vector ); CSX = AddBox( CSX, materialname, prio, ex_start, ex_stop+height_vector );
CSX = AddBox( CSX, materialname, prio, ex_start, ex_stop-height_vector ); CSX = AddBox( CSX, materialname, prio, ex_start, ex_stop-height_vector );
else else
error('openEMS:AddMSLPort','MSL port with resitance <= 0 it not possible'); error('openEMS:AddMSLPort','MSL port with resistance <= 0 it not possible');
end end
end end

2
matlab/ConvertHDF5_VTK.m
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@ -15,7 +15,7 @@ function ConvertHDF5_VTK(hdf_file, vtk_prefix, varargin)
% 'FieldName': field name written to vtk, e.g. 'E-Field' % 'FieldName': field name written to vtk, e.g. 'E-Field'
% 'weight': field weighting % 'weight': field weighting
% %
% for more optional aguments have a look at ReadHDF5Dump % for more optional augments have a look at ReadHDF5Dump
% %
% example: % example:
% % read time-domian data from hdf5, perform dft and dump as vtk % % read time-domian data from hdf5, perform dft and dump as vtk

4
matlab/DelayFidelity.m
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@ -79,12 +79,12 @@ radfield ./= radnorm;
%initialize radiated field in fully populated frequency domain %initialize radiated field in fully populated frequency domain
rad_f = zeros([numel(nf2ff.theta), numel(nf2ff.phi), numel(fport)]); rad_f = zeros([numel(nf2ff.theta), numel(nf2ff.phi), numel(fport)]);
rad_f(:, :, f_ind) = radfield; % assign selected frequencies rad_f(:, :, f_ind) = radfield; % assign selected frequencies
exc_f = reshape(exc_f, [1,1,numel(exc_f)]); %make exc_f confomant with rad_f exc_f = reshape(exc_f, [1,1,numel(exc_f)]); %make exc_f conformant with rad_f
cr_f = rad_f .* conj(exc_f); % calculate cross correlation cr_f = rad_f .* conj(exc_f); % calculate cross correlation
% calculate the cross correlation in time domain (analytic signal) % calculate the cross correlation in time domain (analytic signal)
cr = ifft(cr_f(:, :, 1:end-1), [], 3) * (numel(fport) -1); % twice the FFT normalization (sqrt^2) because product of two normalized functions cr = ifft(cr_f(:, :, 1:end-1), [], 3) * (numel(fport) -1); % twice the FFT normalization (sqrt^2) because product of two normalized functions
%search for the maxiumum of the envelope %search for the maximum of the envelope
[fidelity, delay_ind] = max(abs(cr), [], 3); [fidelity, delay_ind] = max(abs(cr), [], 3);
delay = (delay_ind - 1) * dt * 2; % double time step because of single-sided FFT delay = (delay_ind - 1) * dt * 2; % double time step because of single-sided FFT
nf2ff_out = nf2ff; %possibly needed for plotting the far field and other things nf2ff_out = nf2ff; %possibly needed for plotting the far field and other things

6
matlab/DumpFF2VTK.m
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@ -5,16 +5,16 @@ function DumpFF2VTK(filename, farfield, thetaRange, phiRange, varargin)
% %
% input: % input:
% filename: filename of VTK file, existing file will be overwritten % filename: filename of VTK file, existing file will be overwritten
% farfield: farfield in V/m % farfield: far field in V/m
% thetaRange: theta range in deg % thetaRange: theta range in deg
% phiRange: phi range in deg % phiRange: phi range in deg
% %
% variable input: % variable input:
% 'scale': - linear scale of plot, doesn't affect gain values % 'scale': - linear scale of plot, doesn't affect gain values
% 'logscale': - if set, show farfield with logarithmic scale % 'logscale': - if set, show far field with logarithmic scale
% - set the dB value for point of origin % - set the dB value for point of origin
% - values below will be clamped % - values below will be clamped
% 'maxgain': - add max gain in dB to normalized farfield % 'maxgain': - add max gain in dB to normalized far field
% - only valid if logscale is set % - only valid if logscale is set
% - default is 0dB % - default is 0dB
% %

4
matlab/GetField_Interpolation.m
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@ -3,9 +3,9 @@ function [field_i mesh_i] = GetField_Interpolation(field, mesh, lines, varargin)
% %
% Get an interpolated field, e.g. read by ReadHDF5Dump % Get an interpolated field, e.g. read by ReadHDF5Dump
% %
% homogen interpolation given by a 3x1 vector: e.g. [21,1,101] % homogeneous interpolation given by a 3x1 vector: e.g. [21,1,101]
% %
% abitrary interpolation on a given mesh: % arbitrary interpolation on a given mesh:
% e.g.: mesh_interp{1} = linspace(0, 1,101) * 1e-3; % e.g.: mesh_interp{1} = linspace(0, 1,101) * 1e-3;
% mesh_interp{2} = linspace(0,0.5, 51) * 1e-3; % mesh_interp{2} = linspace(0,0.5, 51) * 1e-3;
% mesh_interp{3} = linspace(0,0.2, 21) * 1e-3; % mesh_interp{3} = linspace(0,0.2, 21) * 1e-3;

2
matlab/GetField_TD2FD.m
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@ -2,7 +2,7 @@ function field = GetField_TD2FD(field, freq)
% function field = GetField_TD2FD(field, freq) % function field = GetField_TD2FD(field, freq)
% %
% Transforms time-domain field data into the frequency domain % Transforms time-domain field data into the frequency domain
% Autocorrects the half-timestep offset of the H-field % Auto-corrects the half-timestep offset of the H-field
% %
% example: % example:
% freq = linspace(0,1e9,100); %target frequency vector (Hz) % freq = linspace(0,1e9,100); %target frequency vector (Hz)

2
matlab/PlotHDF5FieldData.m
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@ -25,7 +25,7 @@ mesh = ReadHDF5Mesh(file);
fields = ReadHDF5FieldData(file); fields = ReadHDF5FieldData(file);
if (mesh.type==0) if (mesh.type==0)
% cartesian mesh % Cartesian mesh
[X Y Z] = meshgrid(mesh.lines{1},mesh.lines{2},mesh.lines{3}); [X Y Z] = meshgrid(mesh.lines{1},mesh.lines{2},mesh.lines{3});
for n=1:numel(fields.TD.values) for n=1:numel(fields.TD.values)
% since Matlab 7.1SP3 the field needs to be reordered % since Matlab 7.1SP3 the field needs to be reordered

4
matlab/ReadHDF5Mesh.m
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@ -4,7 +4,7 @@ function hdf_mesh = ReadHDF5Mesh(file)
% Get the raw mesh data stored in the hdf5 dump file created by openEMS % Get the raw mesh data stored in the hdf5 dump file created by openEMS
% %
% returns: % returns:
% hdf_mesh.type (0-> cartesian, 1-> cylindrical mesh type) % hdf_mesh.type (0-> Cartesian, 1-> cylindrical mesh type)
% hdf_mesh.names (e.g. 'Mesh/y') % hdf_mesh.names (e.g. 'Mesh/y')
% hdf_mesh.lines (e.g. [0,1,2,3,4]) % hdf_mesh.lines (e.g. [0,1,2,3,4])
% %
@ -56,7 +56,7 @@ hdf_mesh.type=0;
function hdf_mesh = ReadHDF5Mesh_octave(file) function hdf_mesh = ReadHDF5Mesh_octave(file)
hdf = load( '-hdf5', file ); hdf = load( '-hdf5', file );
hdf_mesh.names = fieldnames(hdf.Mesh); hdf_mesh.names = fieldnames(hdf.Mesh);
hdf_mesh.type = 0; % cartesian mesh hdf_mesh.type = 0; % Cartesian mesh
for n=1:numel(hdf_mesh.names) for n=1:numel(hdf_mesh.names)
hdf_mesh.lines{n} = hdf.Mesh.(hdf_mesh.names{n}); hdf_mesh.lines{n} = hdf.Mesh.(hdf_mesh.names{n});
hdf_mesh.names{n} = ['/Mesh/' hdf_mesh.names{n}]; hdf_mesh.names{n} = ['/Mesh/' hdf_mesh.names{n}];

2
matlab/RunOpenEMS.m
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@ -4,7 +4,7 @@ function RunOpenEMS(Sim_Path, Sim_File, opts, Settings)
% Run an openEMS simulation. % Run an openEMS simulation.
% %
% arguments: % arguments:
% Sim_Path: specifiy the simulation folder (folder must exist!) % Sim_Path: specify the simulation folder (folder must exist!)
% Sim_File: xml-filename to simulate, created by WriteOpenEMS % Sim_File: xml-filename to simulate, created by WriteOpenEMS
% %
% optional arguments % optional arguments

2
matlab/RunOpenEMS_MPI.m
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@ -100,7 +100,7 @@ end
if isfield(Settings.MPI,'Hosts') if isfield(Settings.MPI,'Hosts')
disp( 'Remote simulation done... copying back results and cleaning up...' ); disp( 'Remote simulation done... copying back results and cleaning up...' );
if (strncmp(work_path,'/tmp/',5)~=1) % savety precaution... if (strncmp(work_path,'/tmp/',5)~=1) % safety precaution...
error('openEMS:RunOpenEMS','working path invalid for deletion'); error('openEMS:RunOpenEMS','working path invalid for deletion');
end end

4
matlab/RunOpenEMS_Parallel.m
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@ -7,9 +7,9 @@ function [stdout, stderr] = RunOpenEMS_Parallel(Sim_Paths, Sim_Files, opts, Sett
% This function relies on InitQueue etc. % This function relies on InitQueue etc.
% %
% input: % input:
% Sim_Paths: cell array of pathes to simulate by RunOpenEMS % Sim_Paths: cell array of paths to simulate by RunOpenEMS
% Sim_Files: filename or cell array of filenames to simulate % Sim_Files: filename or cell array of filenames to simulate
% opts: openEMS options. sa RunOpenEMS % opts: openEMS options. see also RunOpenEMS
% Settings: use the settings to define multiple host for simulation % Settings: use the settings to define multiple host for simulation
% e.g.: Settings.SSH.bin ='<path_to_openEMS>/openEMS.sh'; % e.g.: Settings.SSH.bin ='<path_to_openEMS>/openEMS.sh';
% Settings.SSH.host_list = {'list','of','hosts'}; % Settings.SSH.host_list = {'list','of','hosts'};

2
matlab/SetCustomExcite.m
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@ -2,7 +2,7 @@ function FDTD = SetCustomExcite(FDTD,f0,funcStr)
% function FDTD = SetCustomExcite(FDTD,f0,funcStr) % function FDTD = SetCustomExcite(FDTD,f0,funcStr)
% %
% f0 : nyquist rate % f0 : nyquist rate
% funcStr : string desribing the excitation function e(t) % funcStr : string describing the excitation function e(t)
% %
% see also SetSinusExcite SetGaussExcite % see also SetSinusExcite SetGaussExcite
% %

2
matlab/calcLumpedPort.m
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@ -24,7 +24,7 @@ function [port] = calcLumpedPort( port, SimDir, f, varargin)
% port.it.time current time vector % port.it.time current time vector
% %
% % output signals/values in frequency domain (FD): % % output signals/values in frequency domain (FD):
% port.f the given frequency fector % port.f the given frequency factor
% port.uf.tot/inc/ref total, incoming and reflected voltage % port.uf.tot/inc/ref total, incoming and reflected voltage
% port.if.tot/inc/ref total, incoming and reflected current % port.if.tot/inc/ref total, incoming and reflected current
% %

4
matlab/optimizer_asco_sim.m
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@ -5,9 +5,9 @@ function optimizer_asco_sim( optimdir, inputfile, outputfile, simfun )
% %
% tasks: % tasks:
% - set correct matlab path % - set correct matlab path
% - evaluate inputfile % - evaluate input file
% - start simulation or get result from cache % - start simulation or get result from cache
% - postprocess simulation results % - post-process simulation results
% - create output file (important: needs single \n at the first line and double \n at the last line!) % - create output file (important: needs single \n at the first line and double \n at the last line!)
error( nargchk(4,4,nargin) ); error( nargchk(4,4,nargin) );

2
matlab/physical_constants.m
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@ -4,7 +4,7 @@
% Bronstein 3rd ed., 1997, pp. 945-946 % Bronstein 3rd ed., 1997, pp. 945-946
C0 = 299792458; % m/s C0 = 299792458; % m/s
c0 = C0; %constans in capital letters, c0 for legacy support c0 = C0; % constants in capital letters, c0 for legacy support
MUE0 = 4e-7*pi; % N/A^2 MUE0 = 4e-7*pi; % N/A^2
EPS0 = 1/(MUE0*C0^2); % F/m EPS0 = 1/(MUE0*C0^2); % F/m

2
matlab/plotFF3D.m
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@ -9,7 +9,7 @@ function h = plotFF3D(nf2ff,varargin)
% variable input: % variable input:
% 'freq_index': - use the given frequency index, see nf2ff.freq % 'freq_index': - use the given frequency index, see nf2ff.freq
% - default is 1 % - default is 1
% 'logscale': - if set, show farfield with logarithmic scale % 'logscale': - if set, show far field with logarithmic scale
% - set the dB value for point of origin % - set the dB value for point of origin
% - values below will be clamped % - values below will be clamped
% 'normalize': - true/false, normalize linear plot % 'normalize': - true/false, normalize linear plot