function [modlist,funlist,fun_info]=gammainc_make(typestrlist)
% fun_info is a 1x2 cell. fun_info{1}=>1 result is pointer, 0=>not
% fun_info{2}=>typestr ('r' or 'c' usually)
declare_globals
funname='gammainc';
modlist='';funlist='';
r=[char(10)];
%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%
modlist=[modlist,...
' interface ',funname,'f',r];
if ~iscell(typestrlist)
typestrlist={typestrlist};
end
for i=1:length(typestrlist)
typestr=typestrlist{i};
for m=1:length(typestr)
temp=any(strcmp(typestr(m),{'d','m'})); if temp,typestr(m)='c';end
temp=any(strcmp(typestr(m),{'e','n'})); if temp,typestr(m)='r';end
temp=any(strcmp(typestr(m),{'f','o'})); if temp,typestr(m)='i';end
temp=any(strcmp(typestr(m),{'g','p'})); if temp,typestr(m)='l';end
end
[modlist,funlist,len]=makeheader('gammainc',2,typestr,modlist,funlist,r);
if ((typestr(1)=='r')|(typestr(1)=='i')|(typestr(1)=='c'))
if ((typestr(2)=='r')|(typestr(2)=='i')|(typestr(2)=='c'))
funlist=[funlist,' real, dimension(max(size(in_1,dim=1),size(in_2,dim=1)),max(size(in_1,dim=2),size(in_2,dim=2))) :: out',r];
else
funlist=[funlist,' real, dimension(max(size(in_1,dim=1),1),max(size(in_1,dim=2),1)) :: out',r];
end
else
if ((typestr(2)=='r')|(typestr(2)=='i')|(typestr(2)=='c'))
funlist=[funlist,' real, dimension(max(size(in_2,dim=1),1),max(size(in_2,dim=2),1)) :: out',r];
else
funlist=[funlist,' real, dimension(1,1) :: out',r];
end
end
fun_info{2}='r';
wantsizes=1;
funlist=makesize1(wantsizes,funlist,len,r);
%Here we can insert any global vars or preliminary options %%%%%%
for ii=1:len
if ((typestr(ii)=='r')|(typestr(ii)=='i')|(typestr(ii)=='c'))
if typestr(ii)=='c'
funlist=[funlist,' complex mat',num2str(ii),'(size(in_',num2str(ii),',1),size(in_',num2str(ii),',2))',r];
else
funlist=[funlist,' real mat',num2str(ii),'(size(in_',num2str(ii),',1),size(in_',num2str(ii),',2))',r];
end
else
if typestr(ii)=='t'
funlist=[funlist,' complex mat',num2str(ii),'(1,1)',r];
else
funlist=[funlist,' real mat',num2str(ii),'(1,1)',r];
end
end
end
funlist=[funlist,' integer i,j',r];
funlist=makesize2(wantsizes,funlist,len,r,typestr);
%Here we can insert type dependant things %%%%%%%%%%%%%%%%%%%%%%%
for ii=1:length(typestr)
switch ii
case 1
switch typestr(ii)
case 'r'
funlist=[funlist,[' mat1=in_1',r]];
case 'c'
funlist=[funlist,[' mat1=in_1',r]];
case 'i'
funlist=[funlist,[' mat1=in_1',r]];
case 's'
funlist=[funlist,[' mat1(1,1)=in_1',r]];
case 't'
funlist=[funlist,[' mat1(1,1)=in_1',r]];
case 'u'
funlist=[funlist,[' mat1(1,1)=in_1',r]];
end
case 2
switch typestr(ii)
case 'r'
funlist=[funlist,[' mat2=in_2',r]];
case 'c'
funlist=[funlist,[' mat2=in_2',r]];
case 'i'
funlist=[funlist,[' mat2=in_2',r]];
case 's'
funlist=[funlist,[' mat2(1,1)=in_2',r]];
case 't'
funlist=[funlist,[' mat2(1,1)=in_2',r]];
case 'u'
funlist=[funlist,[' mat2(1,1)=in_2',r]];
end
end
end
%And now the kernel %%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%
kernel=[''];
kernel=[kernel,' if (in_1_m==1) then',r];
kernel=[kernel,' if (in_1_n==1) then',r];
kernel=[kernel,' if (in_2_m==1) then',r];
kernel=[kernel,' if (in_2_n==1) then ! scalar x scalar',r];
kernel=[kernel,' out(1,1)=dgamit(mat2(1,1),mat1(1,1))/mat1(1,1)**(-mat2(1,1))',r];
kernel=[kernel,' else ! scalar x row',r];
kernel=[kernel,' do i=1,in_2_n',r];
kernel=[kernel,' out(1,i)=dgamit(mat2(1,i),mat1(1,1))/mat1(1,1)**(-mat2(1,i))',r];
kernel=[kernel,' enddo',r];
kernel=[kernel,' endif',r];
kernel=[kernel,' else',r];
kernel=[kernel,' if (in_2_n==1) then ! scalar x column',r];
kernel=[kernel,' do i=1,in_2_m',r];
kernel=[kernel,' out(i,1)=dgamit(mat2(i,1),mat1(1,1))/mat1(1,1)**(-mat2(i,1))',r];
kernel=[kernel,' enddo',r];
kernel=[kernel,' else ! scalar x matrix',r];
kernel=[kernel,' do i=1,in_2_m',r];
kernel=[kernel,' do j=1,in_2_n',r];
kernel=[kernel,' out(i,j)=dgamit(mat2(i,j),mat1(1,1))/mat1(1,1)**(-mat2(i,j))',r];
kernel=[kernel,' enddo',r];
kernel=[kernel,' enddo',r];
kernel=[kernel,' endif',r];
kernel=[kernel,' endif',r];
kernel=[kernel,' else',r];
kernel=[kernel,' if (in_2_m==1) then',r];
kernel=[kernel,' if (in_2_n==1) then ! row x scalar',r];
kernel=[kernel,' do i=1,in_1_n',r];
kernel=[kernel,' out(1,i)=dgamit(mat2(1,1),mat1(1,i))/mat1(1,i)**(-mat2(1,1))',r];
kernel=[kernel,' enddo',r];
kernel=[kernel,' else ! row x row',r];
kernel=[kernel,' do i=1,in_1_n',r];
kernel=[kernel,' out(1,i)=dgamit(mat2(1,i),mat1(1,i))/mat1(1,i)**(-mat2(1,i))',r];
kernel=[kernel,' enddo',r];
kernel=[kernel,' endif',r];
kernel=[kernel,' endif',r];
kernel=[kernel,' endif',r];
kernel=[kernel,' else',r];
kernel=[kernel,' if (in_1_n==1) then',r];
kernel=[kernel,' if (in_2_m==1) then',r];
kernel=[kernel,' if (in_2_n==1) then ! column x scalar',r];
kernel=[kernel,' do i=1,in_2_m',r];
kernel=[kernel,' out(i,1)=dgamit(mat2(1,1),mat1(i,1))/mat1(i,1)**(-mat2(1,1))',r];
kernel=[kernel,' enddo',r];
kernel=[kernel,' else ! column x row',r];
kernel=[kernel,' ! error',r];
kernel=[kernel,' endif',r];
kernel=[kernel,' else',r];
kernel=[kernel,' if (in_1_n==1) then ! column x column',r];
kernel=[kernel,' do i=1,in_1_m',r];
kernel=[kernel,' out(i,1)=dgamit(mat2(i,1),mat1(i,1))/mat1(i,1)**(-mat2(i,1))',r];
kernel=[kernel,' enddo',r];
kernel=[kernel,' else ! column x matrix',r];
kernel=[kernel,' ! error',r];
kernel=[kernel,' endif',r];
kernel=[kernel,' endif',r];
kernel=[kernel,' else',r];
kernel=[kernel,' if (in_2_m==1) then',r];
kernel=[kernel,' if (in_2_n==1) then ! matrix x scalar',r];
kernel=[kernel,' do i=1,in_1_m',r];
kernel=[kernel,' do j=1,in_1_n',r];
kernel=[kernel,' out(i,j)=dgamit(mat2(1,1),mat1(i,j))/mat1(i,j)**(-mat2(1,1))',r];
kernel=[kernel,' enddo',r];
kernel=[kernel,' enddo',r];
kernel=[kernel,' else ! matrix x row',r];
kernel=[kernel,' ! error',r];
kernel=[kernel,' endif',r];
kernel=[kernel,' else',r];
kernel=[kernel,' if (in_2_n==1) then ! matrix x column',r];
kernel=[kernel,' ! error',r];
kernel=[kernel,' else ! matrix x matrix',r];
kernel=[kernel,' do i=1,in_1_m',r];
kernel=[kernel,' do j=1,in_1_n',r];
kernel=[kernel,' out(i,j)=dgamit(mat2(i,j),mat1(i,j))/mat1(i,j)**(-mat2(i,j))',r];
kernel=[kernel,' enddo',r];
kernel=[kernel,' enddo',r];
kernel=[kernel,' endif',r];
kernel=[kernel,' endif',r];
kernel=[kernel,' endif',r];
kernel=[kernel,' endif',r];
funlist=[funlist,kernel];
%End of the function %%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%
funlist=[funlist,' end function ',funname,'f_',typestr,r];
if strcmp(typestr,typestrlist{length(typestrlist)})
else
funlist=[funlist,r];
end
end
%And end the module %%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%
modlist=[modlist...
' end interface ',funname,'f',char(10)];
fun_info{1}=0;