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function out=_mainPlot(typeOfPlot,argList)
global prefViewType reqMatrixArgs defaultFigureUserData defaultAxesUserData defaultLeafUserData IMD MAXCOL
win=get('current_figure');
currentAxes=get('current_axes');
IMD=win.immediate_drawing;
win.immediate_drawing="off";
if typeof(argList(1))=='pltlibH'
if argList(1).handle.type=='Axes' // plotlib axes graphic handle
currentAxes=argList(1).handle;
argList(1)=null();
else
_error(sprintf('%s : handle should be an axes handle',typeOfPlot));
end
elseif currentAxes.user_data.nextPlot=='erase'
_cla('reset');
end
previous_view=currentAxes.view
currentAxes.visible='on';
_start=1;
hdl=[];
data_bounds=%inf*[1 -1 1 -1 1 -1];
_axes_ppty_value_list=list();
x_scale='n';
y_scale='n';
if currentAxes.user_data.nextPlot=="add"
currentView=currentAxes.view;
end
while _start <= length(argList)
_ref_size=[];
_found_a_string=0;
for i=_start:length(argList) // finding the number of matrix/function args
_type(i)=type(argList(i));
if _type(i)==10
_found_a_string=1;
break
else
_checkTypeAndDimensions(argList(i),i,typeOfPlot,[1,13]);
end
end
_e=defaultLeafUserData;
_e.typeOfPlot=typeOfPlot;
_e.parent=currentAxes;
_a=defaultAxesUserData;
_first=_start;
_last=i-_found_a_string;
nb_matrix_args=_last-_first+1;
if nb_matrix_args > 0 // XData, YData,... mode => nb_matrix_args == 0
if or(typeOfPlot==["plot";"semilogx";"semilogy";"loglog"]) & nb_matrix_args > 1
_last=_start+1;
nb_matrix_args=2;
elseif typeOfPlot=="plot3" & nb_matrix_args > 3
_last=_start+2;
nb_matrix_args=3;
end
_without_xy=or(nb_matrix_args==reqMatrixArgs(typeOfPlot)(1,:)) & (size(reqMatrixArgs(typeOfPlot),1)==2);
_with_opt_arg=%f;
if size(reqMatrixArgs(typeOfPlot),2)==2
_with_opt_arg=or(nb_matrix_args==reqMatrixArgs(typeOfPlot)(:,2)); // Optional argument is used
end
_matrix_args=_first:_last;
if and(nb_matrix_args~=reqMatrixArgs(typeOfPlot)) // Checking the total number of arguments
_errorText=string(reqMatrixArgs(typeOfPlot)(1));
for i=2:length(reqMatrixArgs(typeOfPlot))-1
_errorText=_errorText+", "+string(reqMatrixArgs(typeOfPlot)(i))
end
if length(reqMatrixArgs(typeOfPlot))>1
_errorText=_errorText+" or "+string(reqMatrixArgs(typeOfPlot)($));
end
_error(sprintf("%s : expecting %s matrix arguments",typeOfPlot,_errorText));
end
if or(typeOfPlot==["triplot";"trimesh";"tripcolor";"trisurf";"trisurfl"]); // Connectivity matrix
_checkTypeAndDimensions(argList(_start),_start,typeOfPlot,1,[3,-1]);
_start=_start+1;
end
if or(typeOfPlot==["mesh";"pcolor";"surf";"surfl"])
if _without_xy // no (_X,_Y) pair
_checkTypeAndDimensions(argList(_start),_start,typeOfPlot,1);
_ref_size=size(argList(_start)); // size of _Z
_start=_start+1;
elseif _type(_start:_start+1)==1
if isvector(argList(_start)) & isvector(argList(_start+1)) //(_X,_Y) pair but vector type
_ref_size=[length(argList(_start+1)),length(argList(_start))]; // size of meshgrid(_X,_Y)
_start=_start+2;
end
end
elseif or(typeOfPlot==["quiver";"quiver3"])
if _without_xy // no (_X,_Y) pair
_checkTypeAndDimensions(argList(_start),_start,typeOfPlot,1);
_ref_size=size(argList(_start)); // size of _Z
_start=_start+1;
end
elseif or(typeOfPlot==["plot";"semilogx";"semilogy";"loglog"])
if _without_xy // no _X
_checkTypeAndDimensions(argList(_start),_start,typeOfPlot,1);
_ref_size=size(argList(_start)); // size of _Y
_start=_start+1;
elseif _type(_start:_start+1)==1
if isvector(argList(_start)) & ~isvector(argList(_start+1))
if or(length(argList(_start))==size(argList(_start+1)))
_ref_size=size(argList(_start+1));
_start=_start+2;
end
end
end
end
if _ref_size==[]
_checkTypeAndDimensions(argList(_start),_start,typeOfPlot,1);
_ref_size=size(argList(_start));
_checkTypeAndDimensions(argList(_start+1),_start+1,typeOfPlot,1,_ref_size); // All other cases : parse (_X,_Y) of same size
_start=_start+2;
end
for i=_start:_last
if _with_opt_arg & or(typeOfPlot==["quiver";"quiver3"]) & i==_last // looking for field factor
_checkTypeAndDimensions(argList(i),i,typeOfPlot,1,[1,1]);
elseif _with_opt_arg & or(typeOfPlot==["surfl"]) & i==_last // looking for light vector
_checkTypeAndDimensions(argList(i),i,typeOfPlot,1,[1,3;3,1;1,2;2,1]);
elseif or(typeOfPlot==["fill";"fill3"]) & i==_last // vector or matrix for the color
_checkTypeAndDimensions(argList(i),i,typeOfPlot,1,[1,_ref_size(2);_ref_size]);
elseif or(typeOfPlot==["tripcolor";"trisurf"]) & i==_last // vector or matrix for the color
_checkTypeAndDimensions(argList(i),i,typeOfPlot,1,[1,size(argList(1),2);_ref_size]);
elseif _type(i)==1 // matrix with size of _X
_checkTypeAndDimensions(argList(i),i,typeOfPlot,1,_ref_size);
// elseif _type(i)==13 & ~ _without_xy // Scilab function
// [nArgOut1,vectInput]=check3dFun(typeOfPlot,argList(i),argList(_first),argList(_first+1));
// if ~vectInput | (nArgOut1~=1 & nArgOut1~=3)
// _error(sprintf('%s : function must return 1 or 3 output arguments and accept matrix inputs',typeOfPlot));
// end
else
_error(sprintf("%s : expecting 2 matrix arguments before function",typeOfPlot));
end
end
_start=_last+1;
if or(typeOfPlot==["plot";"semilogx";"semilogy";"loglog"])
if _without_xy
_e.YData=argList(_matrix_args(1));
if isvector(_e.YData)
_e.YData=_e.YData(:);
end
_e.XData=1:size(_e.YData,1);
else
[_e.XData,_e.YData]=argList(_matrix_args(1:2));
if isvector(_e.YData)
_e.YData=_e.YData(:);
end
end
if isvector(_e.XData)
_e.XData=_e.XData(:);
if length(_e.XData)==size(_e.YData,2)
_e.YData=_e.YData';
end
_e.XData=_e.XData(:,ones(size(_e.YData,2),1));
end
_e.ZData=0*_e.YData;
_e.CData=0*_e.YData;
if or(typeOfPlot==["loglog";"semilogx"])
_axes_ppty_value_list($+1)="XScale";
_axes_ppty_value_list($+1)="log";
x_scale='l';
end
if or(typeOfPlot==["loglog";"semilogy"])
_axes_ppty_value_list($+1)="YScale";
_axes_ppty_value_list($+1)="log";
y_scale='l';
end
elseif typeOfPlot=="plot3"
[_e.XData,_e.YData,_e.ZData]=argList(_matrix_args(1:3));
if isvector(_e.XData)
_e.XData=_e.XData(:);
_e.YData=_e.YData(:);
_e.ZData=_e.ZData(:);
end
_e.CData=0*_e.ZData(:);
elseif or(typeOfPlot==["quiver";"quiver3"])
if typeOfPlot=="quiver"
if _without_xy
[_e.UData,_e.VData]=argList(_matrix_args(1:2));
[_e.XData,_e.YData]=meshgrid(1:size(_e.UData,2),1:size(_e.UData,1));
else
[_e.XData,_e.YData,_e.UData,_e.VData]=argList(_matrix_args(1:4));
end
_e.ZData=0*_e.UData;
_e.WData=_e.ZData;
else
if _without_xy
[_e.ZData,_e.UData,_e.VData,_e.WData]=argList(_matrix_args(1:4));
[_e.XData,_e.YData]=meshgrid(1:size(_e.UData,2),1:size(_e.UData,1));
else
[_e.XData,_e.YData,_e.ZData,_e.UData,_e.VData,_e.WData]=argList(_matrix_args(1:6));
end
end
if _with_opt_arg
_e.AutoScaleFactor=argList(_matrix_args($));
else
_e.AutoScaleFactor=1;
end
elseif or(typeOfPlot==["pcolor";"surf";"mesh";"surfl";"fill";"fill3"]) // surface plots (plot3, quiver and quiver3 produce lines)
if _without_xy
_e.ZData=argList(_matrix_args(1));
_e.XData=1:size(_e.ZData,2);
_e.YData=1:size(_e.ZData,1);
else
[_e.XData,_e.YData,_e.ZData]=argList(_matrix_args(1:3));
end
if or(typeOfPlot==["mesh";"surfl"])
_e.CData=0*_e.ZData;
else
_e.CData=argList(_matrix_args($));
end
if or(typeOfPlot==["pcolor"])
_e.ZData=0*_e.ZData;
elseif typeOfPlot=="fill"
_e.ZData=0*_e.XData;
end
if _with_opt_arg & or(typeOfPlot==["surfl";"trisurfl"])
_e.light=argList(_matrix_args($));
end
elseif or(typeOfPlot==['trimesh','trisurf','trisurfl','tripcolor'])
[_e.Faces,x,y,z]=argList(_matrix_args(1:4));
_e.Faces=_e.Faces($:-1:1,:);
if typeOfPlot=='tripcolor'
_e.Vertices=[x(:) y(:) 0*z(:)];
_e.FaceVertexCData=z(:);
else
_e.Vertices=[x(:) y(:) z(:)];
if typeOfPlot=='trisurf'
_e.FaceVertexCData=argList(_matrix_args($));
else
_e.FaceVertexCData=0*z(:);
end
end
if _with_opt_arg & or(typeOfPlot==["trisurfl"])
_e.light=argList(_matrix_args($));
end
elseif typeOfPlot=="triplot"
[_e.Faces,x,y]=argList(_matrix_args(1:3));
_e.Faces=_e.Faces($:-1:1,:);
_e.Vertices=[x(:) y(:) 0*x(:)];
_e.FaceVertexCData=0*x(:);
_e.typeOfPlot='trimesh';
end
end
// End of matrix arguments parsing, start of property/value pairs
[_leaf_ppty_value_list,_start]=_parse_leaf_ppty_value(_e.typeOfPlot,argList,_start);
h=_update_leaf(_e,_leaf_ppty_value_list);
hdl=[hdl;h];
end // while _start <= length(argList)
_compute_data_bounds(currentAxes,hdl,x_scale+y_scale+'n');
if currentAxes.user_data.nextPlot=='erase'
currentAxes.view=prefViewType(typeOfPlot);
_update_axes(currentAxes,_axes_ppty_value_list,%t);
else
//currentAxes.view=currentView;
end
for i=1:size(hdl,'*')
user_data=hdl(i).user_data;
user_data.DisplayName=sprintf('data %d',i);;
hdl(i).user_data=user_data;
end
currentAxes.user_data.currentColor=[1 1];
currentAxes.user_data.currentLineStyle=1;
win.immediate_drawing=IMD;
out=mlist(['pltlibH','handle'],hdl);
endfunction
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