File : fntest_x.inc used by : fnsqr.gms [html] fnexp.gms [html] fnlog.gms [html] fnlog2.gms [html] fnlog10.gms [html] fnsqrt.gms [html] fncos.gms [html] fnsin.gms [html] fnsinh.gms [html] fncosh.gms [html] fntanh.gms [html] fnfact.gms [html] fngamma.gms [html] fngamma2.gms [html] fnatan.gms [html] fnerrf.gms [html] fnerrf2.gms [html] fnentro.gms [html] fnentro2.gms [html] fnsigmo.gms [html] fnsigmo2.gms [html] fntan.gms [html] fnacos.gms [html] fnacosx.gms [html] fnasin.gms [html] fnasinx.gms [html] fncentr.gms [html] fncentr2.gms [html] fncentr3.gms [html] fnloggamma.gms [html] fnlogit.gms [html]
* N.B. This file may be included multiple times,
* so put declarations in fnset_x.inc if necessary
$if not defined reps reps = 0;
$if not defined reps0 reps0 = reps;
$if not defined reps1 reps1 = reps;
$if not defined reps2 reps2 = reps;
$if not defined aeps aeps = 0;
$if not defined aeps0 aeps0 = aeps;
$if not defined aeps1 aeps1 = aeps;
$if not defined aeps2 aeps2 = aeps;
$if not defined relToInput relToInput = 0;
* option zeroRes = 2.0e-299;
set TT(T);
data(T, 'f_a') = abs(data(T, 'f')-data(T, 'f_'));
data(T, 'fx_a') = abs(data(T, 'fx')-data(T, 'fx_'));
data(T,'fxx_a') = abs(data(T,'fxx')-data(T,'fxx_'));
if {relToInput,
tmp(T) = max(1,abs(data(T,'x')));
data(T, 'f_r') = data(T, 'f_a') / tmp(T);
data(T, 'fx_r') = data(T, 'fx_a') / tmp(T);
data(T,'fxx_r') = data(T,'fxx_a') / tmp(T);
else
tmp(T) = abs(data(T,'f_'));
TT(T) = tmp(T) > 0;
data(T, 'f_r') = INF;
data(T , 'f_r')$(data(T, 'f_a') eq 0) = 0;
data(TT, 'f_r') = data(TT, 'f_a') / tmp(TT);
tmp(T) = abs(data(T,'fx_'));
TT(T) = tmp(T) > 0;
data(T, 'fx_r') = INF;
data(T , 'fx_r')$(data(T, 'fx_a') eq 0) = 0;
data(TT, 'fx_r') = data(TT, 'fx_a') / tmp(TT);
tmp(T) = abs(data(T,'fxx_'));
TT(T) = tmp(T) > 0;
data(T, 'fxx_r') = INF;
data(T ,'fxx_r')$(data(T,'fxx_a') eq 0) = 0;
data(TT,'fxx_r') = data(TT, 'fxx_a') / tmp(TT);
};
data(T,'rc_e') = abs(data(T,'rc')-data(T,'rc_'));
data(T,'ec_e') = abs(data(T,'ec')-data(T,'ec_'));
badTV(T,V) = no;
badTV(T,fV(V)) = ((data(T, 'f_a') > aeps0) and (data(T, 'f_r') > reps0));
badTV(T,fxV(V)) = ((data(T, 'fx_a') > aeps1) and (data(T, 'fx_r') > reps1));
badTV(T,fxxV(V)) = ((data(T,'fxx_a') > aeps2) and (data(T,'fxx_r') > reps2));
badTV(T,rcV(V)) = data(T,'rc_e');
badTV(T,ecV(V)) = data(T,'ec_e');
badT(T) = sum{badTV(T,V), yes};
badTV(badT,inV) = yes;
failures(T,V) = 0;
fail2(T,V) = 0;
failures(badT,V) = data(badT,V);
fail2(badTV) = failures(badTV);
display 'failed tests', failures, fail2;
* display data;
scalar nTests, nErrors;
nTests = card(T);
nErrors = card(badT);
display 'absolute tolerance: ', aeps0, aeps1, aeps2;
display 'relative tolerance: ', reps0, reps1, reps2;
display 'data points tested: ', nTests;
display ' errors: ', nErrors;
$if set FAILGDX execute_unload '%FAILGDX%', badT, failures, fail2, aeps, aeps0, aeps1, aeps2, reps, reps0, reps1, reps2;
abort$(nErrors) 'There were errors';