www.gusucode.com > rf 工具箱matlab源码程序 > rf/+rfckt/@coaxial/coaxial.m
classdef (CaseInsensitiveProperties,TruncatedProperties) ...
coaxial < rfckt.basetxline
%rfckt.coaxial class
% rfckt.coaxial extends rfckt.basetxline.
%
% rfckt.coaxial properties:
% Name - Property is of type 'string' (read only)
% nPort - Property is of type 'int32' (read only)
% AnalyzedResult - Property is of type 'handle' (read only)
% LineLength - Property is of type 'MATLAB array'
% StubMode - Property is of type 'StubModeTypeDATATYPE enumeration:
% {'NotAStub','Series','Shunt','None'}'
% Termination - Property is of type 'TerminationTypeDATATYPE
% enumeration: {'NotApplicable','Open','Short','None'}'
% OuterRadius - Property is of type 'MATLAB array'
% InnerRadius - Property is of type 'MATLAB array'
% MuR - Property is of type 'MATLAB array'
% EpsilonR - Property is of type 'MATLAB array'
% LossTangent - Property is of type 'MATLAB array'
% SigmaCond - Property is of type 'MATLAB array'
%
% rfckt.coaxial methods:
% calckl - H, FREQ) returns e^(-kl)
% checkproperty - Check the properties of the object.
properties
%OUTERRADIUS Property is of type 'MATLAB array'
OuterRadius = 2.57e-3;
end
methods
function set.OuterRadius(obj,value)
if ~isequal(obj.OuterRadius,value)
% DataType = 'MATLAB array'
obj.OuterRadius = setpositive(obj,value,'OuterRadius', ...
false,false,false);
end
end
end % set and get functions for OuterRadius
properties
%INNERRADIUS Property is of type 'MATLAB array'
InnerRadius = 0.725e-3;
end
methods
function set.InnerRadius(obj,value)
if ~isequal(obj.InnerRadius,value)
% DataType = 'MATLAB array'
obj.InnerRadius = setpositive(obj,value,'InnerRadius', ...
false,false,false);
end
end
end % set and get functions for InnerRadius
properties
%MUR Property is of type 'MATLAB array'
MuR = 1;
end
methods
function set.MuR(obj,value)
if ~isequal(obj.MuR,value)
% DataType = 'MATLAB array'
obj.MuR = setpositive(obj,value,'MuR', ...
false,false,false);
end
end
end % set and get functions for MuR
properties
%EPSILONR Property is of type 'MATLAB array'
EpsilonR = 2.3;
end
methods
function set.EpsilonR(obj,value)
if ~isequal(obj.EpsilonR,value)
% DataType = 'MATLAB array'
obj.EpsilonR = setpositive(obj,value,'EpsilonR', ...
false,false,false);
end
end
end % set and get functions for EpsilonR
properties
%LOSSTANGENT Property is of type 'MATLAB array'
LossTangent = 0;
end
methods
function set.LossTangent(obj,value)
if ~isequal(obj.LossTangent,value)
% DataType = 'MATLAB array'
obj.LossTangent = setpositive(obj,value,'LossTangent' ...
,true,false,false);
end
end
end % set and get functions for LossTangent
properties
%SIGMACOND Property is of type 'MATLAB array'
SigmaCond = inf;
end
methods
function set.SigmaCond(obj,value)
if ~isequal(obj.SigmaCond,value)
% DataType = 'MATLAB array'
obj.SigmaCond = setpositive(obj,value,'SigmaCond', ...
false,true,false);
end
end
end % set and get functions for SigmaCond
properties (Hidden)
%SIGMADIEL Property is of type 'MATLAB array'
SigmaDiel = 0;
end
methods
function set.SigmaDiel(obj,value)
if ~isequal(obj.SigmaDiel,value)
% DataType = 'MATLAB array'
obj.SigmaDiel = setsigmadiel(obj,value,'SigmaDiel');
end
end
end % set and get functions for SigmaDiel
properties (Hidden)
%ISSUEWARNINGFORNONZEROSIGMADIEL Property is of type 'bool'
IssueWarningforNonzeroSigmaDiel = true;
end
methods % constructor block
function h = coaxial(varargin)
%COAXIAL Constructor.
% H = RFCKT.COAXIAL('PROPERTY1', VALUE1, 'PROPERTY2',
% VALUE2, ...) returns a coaxial transmission line object, H,
% based on the properties specified by the input arguments in the
% PROPERTY/VALUE pairs. Any properties you do not specify retain
% their default values, which can be viewed by typing
% 'h = rfckt.coaxial'.
%
% A coaxial object has the following properties. All the
% properties are writable except for the ones explicitly noted
% otherwise.
%
% Property Name Description
% ---------------------------------------------------------------
% Name - Object name. (read only)
% nPort - Number of ports. (read only)
% AnalyzedResult - Analyzed result. It is generated during
% analysis (read only)
% LineLength - Line length (m)
% StubMode - 'NotAStub', 'Series' or 'Shunt'
% Termination - 'NotApplicable', 'Open' or 'Short'
% OuterRadius - Outer radius (m)
% InnerRadius - Inner radius (m)
% MuR - Relative permeability constant
% EpsilonR - Relative permittivity constant
% LossTangent - Loss tangent of dielectric
% SigmaCond - Conductivity of conductor (S/m)
%
% rfckt.coaxial methods:
%
% Analysis
% analyze - Analyze an RFCKT object in frequency domain
%
% Plots and Charts
% circle - Draw circles on a Smith chart
% loglog - Plot the specified parameters on the X-Y plane
% with logarithmic scales for both the
% X- and Y- axes
% plot - Plot the specified parameters on the X-Y plane
% plotyy - Plot the specified parameters on the X-Y plane
% with y tick labels on the left and right
% polar - Plot the specified parameters on a polar plane
% chart
% semilogx - Plot the specified parameters on the X-Y plane
% with logarithmic scale for the X-axis
% semilogy - Plot the specified parameters on the X-Y plane
% with logarithmic scale for the Y-axis
% smith - Plot the specified parameters on a Smith chart
% table - Display the specified parameters in a table
%
% Parameters and Formats
% listformat - List the valid formats for a parameter
% listparam - List the valid parameters that can be
% visualized
%
% Data Access and Restoration
% calculate - Calculate the specified parameters
% getz0 - Get the characteristic impedance of
% transmission line object
% extract - Extract the specified network parameters
%
% To get detailed help on a method from the command line, type
% 'help rfckt.coaxial/<METHOD>', where METHOD is one of the
% methods listed above. For instance, 'help rfckt.coaxial/plot'.
%
% Example:
%
% % Create a coaxial transmission line
% h = rfckt.coaxial('OuterRadius', 0.0045)
% % Do frequency domain analysis at the given frequency
% f = .9e9:1e8:3e9; % Simulation frequency
% analyze(h,f); % Do frequency domain
% analysis
% % List valid parameters and formats for visualization
% listparam(h)
% listformat(h, 'S21')
% % Get the txline characteristic impedance
% z0 = getz0(h)
% % Visualize the analyzed results
% figure(1)
% plot(h, 'S21', 'dB'); % Plot S21 in dB on the
% X-Y plane
% figure(2)
% smith(h, 'GammaIN', 'zy'); % Plot GAMMAIN on a
% ZY Smith chart
%
% See also RFCKT, RFCKT.TXLINE, RFCKT.RLCGLINE, RFCKT.TWOWIRE,
% RFCKT.PARALLELPLATE, RFCKT.MICROSTRIP, RFCKT.CPW, RFDATA
% Copyright 2003-2010 The MathWorks, Inc.
%UDD % h = rfckt.coaxial;
set(h, 'Name', 'Coaxial Transmission Line');
% Check the read only properties
checkreadonlyproperty(h, varargin, {'Name', 'nPort', 'RFdata', ...
'AnalyzedResult', 'Z0', 'PV', 'Loss'});
% Set the values for the properties
if nargin % If nargin is zero, next statement will print
set(h, varargin{:});
end
checkproperty(h);
end % coaxial
end % constructor block
methods % method signatures
y = calckl(h,freq)
checkproperty(h)
end % method signatures
end % classdef