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Commit f00cd612 authored by Olivier Bonnefon's avatar Olivier Bonnefon
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fix bug about w1 edo

parent c4259b69
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AEDESINTER_AUTOROUTES_ADAPTIV/POSTSIMU/computeBS.edp
View file @ f00cd612
real BSScore=0;
include "defUsedDep.edp";
int indexYear=CURYEAR-2003;
BSScore=0;
indexYear=LASTYEAR-2003;
cmpData=0;
for (int i=0;i<114;i++){
if (useDep[i]==0)
continue;
cmpData++;
real lBS=0;
//premier terme
lBS= (1-vdepP[i])^2;
if (Tobs[indexYear*114+i] == 0)
if (Tobs[indexYear*114+i] == 1)
lBS+=-1;
BSScore+=lBS*lBS;
cout<<lBS*lBS<<endl;
//second terme
lBS= (1-vdepP[i])*vdepP[i];
if (Tobs[indexYear*114+i] == 1)
lBS= 2*(1-vdepP[i])*vdepP[i];
if (Tobs[indexYear*114+i] == 2)
lBS+= -1;
BSScore+=lBS*lBS;
cout<<lBS*lBS<<endl;
//troisieme terme
lBS= (vdepP[i])^2;
if (Tobs[indexYear*114+i] == 2)
if (Tobs[indexYear*114+i] == 3)
lBS+= -1;
BSScore+=lBS*lBS;
cout<<lBS*lBS<<endl;
cout<<"Tobs[indexYear*114+i]="<<Tobs[indexYear*114+i]<<" vdepP[i]="<<vdepP[i]<<" BSSCORE="<<BSScore<<endl<<endl;
}
BSScore=BSScore/(2.0*cmpData);
cout<<"n datas="<<cmpData<<endl;
AEDESINTER_AUTOROUTES_ADAPTIV/POSTSIMU/defP.edp
View file @ f00cd612
real[int] vdepP(114);
real coefP=1;
for (int i=0;i<114;i++){
vdepP[i]=1;
if (coefP*vdepMax[i]<1)
vdepP[i]=coefP*vdepMax[i];
cout<<" vdepP[i]="<<vdepP[i]<<endl;
}
AEDESINTER_AUTOROUTES_ADAPTIV/POSTSIMU/loopOnSimu.edp
View file @ f00cd612
......@@ -5,8 +5,9 @@ include "../defGeomGen.edp"
include "../defDofsGen.edp"
include "../buildTobs.edp"
//string MODE="DOVISU";
string MODE="COMPUTEBS";
string SRCDIR="/home/olivierb/aedes/AEDESINTER_AUTOROUTES_ADAPTIV/";
string MODE="DOVISU";
//string MODE="COMPUTEBS";
include "defVdepMax.edp"
include "initVdepMax.edp"
......@@ -15,71 +16,11 @@ include "../postTraitementLoad.edp"
int curStep=0;
int numRun=0;
int size;
CURYEAR=2019;
CURYEAR=2015;
{
cout<<"../SAVE/u2d0_"+string(CURYEAR)+"_rep_"+string(numRun)<<endl;
GetSizeVec(size,"../SAVE/u2d0_"+string(CURYEAR)+"_rep_"+string(numRun));
real[int] u0(size);
//cout<<"size="<<size<<" "<<Vh0.ndof<<endl;
int nbDays=size/Vh0.ndof;
int nbDays;
include "loadState.edp";
LoadVec(u0,"../SAVE/u2d0_"+string(CURYEAR)+"_rep_"+string(numRun));
GetSizeVec(size,"../SAVE/u2d1_"+string(CURYEAR)+"_rep_"+string(numRun));
real[int] u1(size);
LoadVec(u1,"../SAVE/u2d1_"+string(CURYEAR)+"_rep_"+string(numRun));
GetSizeVec(size,"../SAVE/u2d2_"+string(CURYEAR)+"_rep_"+string(numRun));
real[int] u2(size);
LoadVec(u2,"../SAVE/u2d2_"+string(CURYEAR)+"_rep_"+string(numRun));
GetSizeVec(size,"../SAVE/u2d3_"+string(CURYEAR)+"_rep_"+string(numRun));
real[int] u3(size);
LoadVec(u3,"../SAVE/u2d3_"+string(CURYEAR)+"_rep_"+string(numRun));
GetSizeVec(size,"../SAVE/u2d4_"+string(CURYEAR)+"_rep_"+string(numRun));
real[int] u4(size);
LoadVec(u4,"../SAVE/u2d4_"+string(CURYEAR)+"_rep_"+string(numRun));
GetSizeVec(size,"../SAVE/u2d5_"+string(CURYEAR)+"_rep_"+string(numRun));
real[int] u5(size);
LoadVec(u5,"../SAVE/u2d5_"+string(CURYEAR)+"_rep_"+string(numRun));
GetSizeVec(size,"../SAVE/u2d6_"+string(CURYEAR)+"_rep_"+string(numRun));
real[int] u6(size);
LoadVec(u6,"../SAVE/u2d6_"+string(CURYEAR)+"_rep_"+string(numRun));
GetSizeVec(size,"../SAVE/u2d7_"+string(CURYEAR)+"_rep_"+string(numRun));
real[int] u7(size);
LoadVec(u7,"../SAVE/u2d7_"+string(CURYEAR)+"_rep_"+string(numRun));
GetSizeVec(size,"../SAVE/u2d8_"+string(CURYEAR)+"_rep_"+string(numRun));
real[int] u8(size);
LoadVec(u8,"../SAVE/u2d8_"+string(CURYEAR)+"_rep_"+string(numRun));
GetSizeVec(size,"../SAVE/u2d9_"+string(CURYEAR)+"_rep_"+string(numRun));
real[int] u9(size);
LoadVec(u9,"../SAVE/u2d9_"+string(CURYEAR)+"_rep_"+string(numRun));
GetSizeVec(size,"../SAVE/u2d10_"+string(CURYEAR)+"_rep_"+string(numRun));
real[int] u10(size);
LoadVec(u10,"../SAVE/u2d10_"+string(CURYEAR)+"_rep_"+string(numRun));
GetSizeVec(size,"../SAVE/u2d11_"+string(CURYEAR)+"_rep_"+string(numRun));
real[int] u11(size);
LoadVec(u11,"../SAVE/u2d11_"+string(CURYEAR)+"_rep_"+string(numRun));
GetSizeVec(size,"../SAVE/u2d12_"+string(CURYEAR)+"_rep_"+string(numRun));
real[int] u12(size);
LoadVec(u12,"../SAVE/u2d12_"+string(CURYEAR)+"_rep_"+string(numRun));
GetSizeVec(size,"../SAVE/u2d13_"+string(CURYEAR)+"_rep_"+string(numRun));
real[int] u13(size);
LoadVec(u13,"../SAVE/u2d13_"+string(CURYEAR)+"_rep_"+string(numRun));
GetSizeVec(size,"../SAVE/u2d14_"+string(CURYEAR)+"_rep_"+string(numRun));
real[int] u14(size);
LoadVec(u14,"../SAVE/u2d14_"+string(CURYEAR)+"_rep_"+string(numRun));
int nbCallSave=0;
int firstStep=364-nbDays;
for ( curStep=firstStep;curStep<364;curStep++){
......
AEDESINTER_AUTOROUTES_ADAPTIV/buildTobs.edp 0 → 120000
View file @ f00cd612
../DATA_AEDES/SRC/buildTobs.edp
\ No newline at end of file
AEDESINTER_AUTOROUTES_ADAPTIV/cas1.edp
View file @ f00cd612
......@@ -12,8 +12,11 @@ include "buildTobs.edp";
include "defDataAssimilation.edp";
int numRun=0;
int NnumRun=10;
string SAVEDIR="/home/olivierb/aedes/AEDESINTER_AUTOROUTES_ADAPTIV/SAVE/WORK_VERSION/";
int NnumRun=1;
string SAVEDIR="/home/olivierb/aedes/AEDESINTER_AUTOROUTES_ADAPTIV/SAVE/";
string LOADDIR="/home/olivierb/aedes/AEDESINTER_AUTOROUTES_ADAPTIV/SAVE/";
string SRCDIR="./";
/*
if (ARGV.n>2){
numRun=atoi(ARGV[2]);
NnumRun=10;
......@@ -21,10 +24,89 @@ if (ARGV.n>2){
if (ARGV.n>3){
NnumRun=atoi(ARGV[3]);
}
*/
/*
u: pop adulte
w1: oeuf diaposant en début d'hier
w0: oeuf ayant passe l'hiver
Simulation avec assimilation de 2008 a 1019
---------------------------------------------
* 2008 --> 2009
T0 = 1 fev 2008
IC=0
dc u=0 jusqu'au 1 septembre
1 septembre assimilation des donnees 2008 avec thetaAssim=1
Sauvegarde ds SAVE/u2d0_2008_rep_0
en fin d'annee t= 31 dec : interAnnualStage.edp
calcul de w0 a partir de w1
sauvegarde de w1 dans SAVE/w1s2d0_0_2008
sauvegarde de w0 dans SAVE/w0s2d0_0_2008
* 2009 --> 2010
T0 = 1 fev 2008
u=0 w1=0 ou touche pas a w0
simulation Sauvegarde ds SAVE/u2d0_2009_rep_0
sauvegarde de w1 dans SAVE/w1s2d0_0_2009
sauvegarde de w0 dans SAVE/w0s2d0_0_2009
ect
Simulation sans assimilation de FIRSTYEAR a FIRSTYEAR+k
--------------------------------------------------------
Il s'agit de simuler la periode du 1 fev FIRSTYEAR au 31 dec FIRSTYEAR+(k-1) sans assimilation de donnee.
Principe: on simule seleument la derinere annee FIRSTYEAR+(k-1) a partir des de la simu FIRSTYEAR+((k-1)-1)
FIRSTYEAR ds {2009,..,2019}
k ds {1,..,2020-FIRSTYEAR} (note NBPREDYEAR=k dans le code)
ie, couple (FIRSTYEAR,k)possible :
* pour FIRSTYEAR=2019
(2019,1)
* pour FIRSTYEAR=2018
(2018,1), (2018,2)
*
*
* pour FIRSTEYEAR=2009
(2009,1),(2009,2),...,(2009,11)
Sauvegarde des trajectoires des etat de pop
si k=1: ie simulation de l'annee FIRSTYEAR sans assimilation
------------------------------------------------------------
On utilise la simulation de 2008 a 2019 avec assimilation de donnees:
-> Etat initial a partir des oeufs diaposant de l'annee FIRSTYEAR ayant passe l'hiver,
c'est a dire w0s2d5_0_$(FIRSTYEAR-1) (ici 0 est le num de repete)
si k>1: ie simulation de l'annee FIRSTYEAR+(k-1) sans assimilation
------------------------------------------------------------------
On utilise la simulation FIRSTYEAR+(k-1):
-> Etat initial a partir des oeufs diaposant de l'annee FIRSTYEAR+(k-1) ayant passe l'hiver,
c'est a dire w0s2d4_0_$(k-1)_$FIRSTYEAR (ici 0 est le num de repete)
pour tout k:
-> sauvegarde de la population d'adulte au cours de l'annee FIRSTYEAR+(k-1) dans
u2d5_$k_$FIRSTYEAR_rep_0 (ici 0 est le num de repete) (code: saveState.edp)
-> sauvegarde de la population d'oeufs diaposant ayant passe l'hiver (code: saveIntraAnnuel.edp)
de l'annee FIRSTYEAR+k dans w0s2d4_0_$(k)_$FIRSTYEAR (ici 0 est le num de repete)
dans le repertoire POSTSIMU, Puis calcul des Brier Score pour tout les couples (FIRSTYEAR,k) a partir des sauvegarde u2d5_$k_$FIRSTYEAR_rep_0
*/
if (ARGV.n>2){
FIRSTYEAR=atoi(ARGV[2]);
}
if (ARGV.n>3){
NBPREDYEAR=atoi(ARGV[3]);
if (NBPREDYEAR<=0){
cout<<"usage, Freefem++ cas1.edp FIRSTYEAR>=2008 NBPREDYEAR>=0\n";
exit(0);
}
LASTYEAR=FIRSTYEAR+NBPREDYEAR-1;
}
int scenarioLow=0;
int scenarioMedian=1;
int scenarioHight=2;
int scenario=scenarioLow;
int scenario=scenarioMedian;
int seed = 1234+numRun;
int callSolver=1;
randinit ( seed );
......@@ -52,20 +134,23 @@ real deathrate=12;
real mupowm1=0;
int freqVtk=100000;
real Tw=1.0;
real Rstar=0.14*365.0;
//real Rstar=0.14*365.0;
real timeScal=365;
string GDDTHRESHOLD="GDD_269/";
if (scenario==scenarioLow){
Rstar=0.12*365;
//Rstar=0.12*365;
Tw=2;
GDDTHRESHOLD="GDD_294/";
SAVEDIR="/home/olivierb/aedes/AEDESINTER_AUTOROUTES_ADAPTIV/SAVE/LOW/";
}
if (scenario==scenarioMedian){
//Rstar=0.12*365;
Tw=1;
GDDTHRESHOLD="GDD_269/";
}
if (scenario==scenarioHight){
Rstar=0.15*365;
//Rstar=0.15*365;
Tw=0;
GDDTHRESHOLD="GDD_246/";
SAVEDIR="/home/olivierb/aedes/AEDESINTER_AUTOROUTES_ADAPTIV/SAVE/HIGHT/";
}
real K=1.0;
......@@ -141,22 +226,27 @@ func real J(real[int] & u)
//include "buildMatGenW01.edp";
cout<<"end ic\n";
ofstream infoFileNull("infosimu.txt");
// ofstream infoFileNull("infosimu.txt");
//nbCallSave=0;
cout<<"begin loop\n";
for (CURYEAR=FIRSTYEAR; CURYEAR<=LASTYEAR; CURYEAR++){
if (NBPREDYEAR>0)
CURYEAR=FIRSTYEAR+NBPREDYEAR-1;
else
CURYEAR=FIRSTYEAR;
for (CURYEAR=CURYEAR; CURYEAR<=LASTYEAR; CURYEAR++){
nbCallSave=0;
if (CURYEAR>2019){
real p;
p=randreal1();
int rg=p/0.2+1;
CURYEARRAND=2011+rg;
CURYEARRAND=2008+rg;
if (CURYEARRAND>2019)
CURYEARRAND=2019;
cout<<"CURYEAR "<<CURYEAR<<" use data "<<CURYEARRAND<<endl;
}
ofstream infoFile("infosimu.txt",append);
if (CURYEAR==2011){
// ofstream infoFile("infosimu.txt",append);
if (CURYEAR==2008){
//nbSteps=nbSteps2011;
T0=1-122.0/365.0;
}else{
......@@ -175,13 +265,15 @@ func real J(real[int] & u)
w1max=-100000;
RRmin=100000;
RRmax=-100000;
if (CURYEAR!=FIRSTYEAR){
// if (CURYEAR!=FIRSTYEAR){
include "zeroAdultAndW1.edp";
}
// }
plot(w0s2d0,w0s2d1,w0s2d2,w0s2d3,w0s2d4,w0s2d5,w0s2d6,w0s2d7,w0s2d8,w0s2d9,w0s2d10,w0s2d11,w0s2d12,w0s2d13,w0s2d14,cmm=string(CURYEAR),value=true,fill=true,wait=true);
if (CURYEAR>=2010)
plot(u2d0,u2d1,u2d2,u2d3,u2d4,u2d5,u2d6,u2d7,u2d8,u2d9,u2d10,u2d11,u2d12,u2d13,uk2d14,cmm="uk k="+"curT="+string(curT),value=true,fill=true,wait=true);
cout<<"doing adaptiv timestepping "<<endl;//with nbSteps="<<nbSteps<<endl;
include "timeSteppingGenAdaptiv.edp";
printInfoYear(infoFile);
// printInfoYear(infoFile);
printInfoYear(cout);
/*
......@@ -221,7 +313,7 @@ func real J(real[int] & u)
real resTllh;
for (int ii=0; ii<NnumRun;ii++)
//for (int ii=0; ii<NnumRun;ii++)
resTllh=J(u6);
//grad6=DJ(u6);
//cout<<"PostTrait "<<grad6(0)<<" "<<grad6(1)<<" "<<grad6(2)<<" "<<grad6(3)<<" "<<grad6(4)<<endl;;
......
AEDESINTER_AUTOROUTES_ADAPTIV/casNoAssim.edp 0 → 100755
View file @ f00cd612
load "iovtk"
load "resizeCSR"
load "BinaryIO";
include "myMacro.edp";
include "defGeomGen.edp"
include "defDofsGen.edp"
include "defTigerVar.edp"
include "defSimuParamsGen.edp";
include "paramsTS.edp";
include "buildTobs.edp";
include "defDataAssimilation.edp";
thetaAssim=0;
int numRun=0;
int NnumRun=1;
string SAVEDIR="/home/olivierb/aedes/AEDESINTER_AUTOROUTES_ADAPTIV/SAVE_BUFF/";
string LOADDIR="/home/olivierb/aedes/AEDESINTER_AUTOROUTES_ADAPTIV/SAVE_NOASSIM/";
string SRCDIR="./";
/*
if (ARGV.n>2){
numRun=atoi(ARGV[2]);
NnumRun=10;
}
if (ARGV.n>3){
NnumRun=atoi(ARGV[3]);
}
*/
/*
u: pop adulte
w1: oeuf diaposant en début d'hier
w0: oeuf ayant passe l'hiver
Simulation avec assimilation de 2008 a 1019
---------------------------------------------
* 2008 --> 2009
T0 = 1 fev 2008
IC=0
dc u=0 jusqu'au 1 septembre
1 septembre assimilation des donnees 2008 avec thetaAssim=1
Sauvegarde ds SAVE/u2d0_2008_rep_0
en fin d'annee t= 31 dec : interAnnualStage.edp
calcul de w0 a partir de w1
sauvegarde de w1 dans SAVE/w1s2d0_0_2008
sauvegarde de w0 dans SAVE/w0s2d0_0_2008
* 2009 --> 2010
T0 = 1 fev 2008
u=0 w1=0 ou touche pas a w0
simulation Sauvegarde ds SAVE/u2d0_2009_rep_0
sauvegarde de w1 dans SAVE/w1s2d0_0_2009
sauvegarde de w0 dans SAVE/w0s2d0_0_2009
ect
Simulation sans assimilation de FIRSTYEAR a FIRSTYEAR+k
--------------------------------------------------------
Il s'agit de simuler la periode du 1 fev FIRSTYEAR au 31 dec FIRSTYEAR+(k-1) sans assimilation de donnee.
Principe: on simule seleument la derinere annee FIRSTYEAR+(k-1) a partir des de la simu FIRSTYEAR+((k-1)-1)
FIRSTYEAR ds {2009,..,2019}
k ds {1,..,2020-FIRSTYEAR} (note NBPREDYEAR=k dans le code)
ie, couple (FIRSTYEAR,k)possible :
* pour FIRSTYEAR=2019
(2019,1)
* pour FIRSTYEAR=2018
(2018,1), (2018,2)
*
*
* pour FIRSTEYEAR=2009
(2009,1),(2009,2),...,(2009,11)
Sauvegarde des trajectoires des etat de pop
si k=1: ie simulation de l'annee FIRSTYEAR sans assimilation
------------------------------------------------------------
On utilise la simulation de 2008 a 2019 avec assimilation de donnees:
-> Etat initial a partir des oeufs diaposant de l'annee FIRSTYEAR ayant passe l'hiver,
c'est a dire w0s2d5_0_$(FIRSTYEAR-1) (ici 0 est le num de repete)
si k>1: ie simulation de l'annee FIRSTYEAR+(k-1) sans assimilation
------------------------------------------------------------------
On utilise la simulation FIRSTYEAR+(k-1):
-> Etat initial a partir des oeufs diaposant de l'annee FIRSTYEAR+(k-1) ayant passe l'hiver,
c'est a dire w0s2d4_0_$(k-1)_$FIRSTYEAR (ici 0 est le num de repete)
pour tout k:
-> sauvegarde de la population d'adulte au cours de l'annee FIRSTYEAR+(k-1) dans
u2d5_$k_$FIRSTYEAR_rep_0 (ici 0 est le num de repete) (code: saveState.edp)
-> sauvegarde de la population d'oeufs diaposant ayant passe l'hiver (code: saveIntraAnnuel.edp)
de l'annee FIRSTYEAR+k dans w0s2d4_0_$(k)_$FIRSTYEAR (ici 0 est le num de repete)
dans le repertoire POSTSIMU, Puis calcul des Brier Score pour tout les couples (FIRSTYEAR,k) a partir des sauvegarde u2d5_$k_$FIRSTYEAR_rep_0
*/
if (ARGV.n>2){
FIRSTYEAR=atoi(ARGV[2]);
}
if (ARGV.n>3){
NBPREDYEAR=atoi(ARGV[3]);
if (NBPREDYEAR<=0){
cout<<"usage, Freefem++ cas1.edp FIRSTYEAR>=2008 NBPREDYEAR>=0\n";
exit(0);
}
LASTYEAR=FIRSTYEAR+NBPREDYEAR-1;
}
int scenarioLow=0;
int scenarioMedian=1;
int scenarioHight=2;
int scenario=scenarioMedian;
int seed = 1234+numRun;
int callSolver=1;
randinit ( seed );
//include "defPluginVaraibleGen.edp"
//real nu=0.0;//1.0;//2D to 1D
//real mu=0.0;//0.5;//1D to 2D /ok
//real alpha1D=0.0;
int freqAff=1000;
real B0=0;
real betamodel=0;
real alphaw0,alphaw1;
//exp(-2*h0/365)=0.8;
//h0=-365*ln(0.8)/2=40.7;
alphaw0=40.7;
alphaw1=1;
//h0 tel que exp(-(2 jour)*h0) = 0.8
//exp(-2*h0/364)=0.8
//h0/364~0.1
//h0=36.4
//real lifeexpectancy=1.0/12.0;
real h0=36.4;
//deathrate=1/lifeexpected
real deathrate=12;
real mupowm1=0;
int freqVtk=100000;
real Tw=1.0;
//real Rstar=0.14*365.0;
real timeScal=365;
string GDDTHRESHOLD="GDD_269/";
if (scenario==scenarioLow){
//Rstar=0.12*365;
Tw=2;
GDDTHRESHOLD="GDD_294/";
}
if (scenario==scenarioMedian){
//Rstar=0.12*365;
Tw=1;
GDDTHRESHOLD="GDD_269/";
}
if (scenario==scenarioHight){
//Rstar=0.15*365;
Tw=0;
GDDTHRESHOLD="GDD_246/";
}
real K=1.0;
//real Ru2=(Rstar-deathrate)/K;
real maxGt=0.11*365.0;
real Ru2=maxGt + deathrate;
include "defOutputGen.edp";
real[int] u6(6);
//real[int] grad6(6);
include "inputParam.edp";
cout<<"u6="<<u6<<endl;
real dirichlet0=1;
include "defParamsGen.edp";
include "mat1D2Duseful.edp";
include "postTraitementLoad.edp";
//system("export OUTPUTDIR="+OUTPUTDIR+";./outputScript.sh");
real gamma0min=100000;
real gamma0max=-100000;
real gamma1min=100000;
real gamma1max=-100000;
real w0min=100000;
real w0max=-100000;
real w1min=100000;
real w1max=-100000;
real RRmin=100000;
real RRmax=-100000;
macro printInfoYear(XX){
XX<<"simulation year "<<CURYEAR<<" ended"<<endl;
XX<<"uminDensity="<<uminDensity<<endl;
XX<<"umaxDensity="<<umaxDensity<<endl;
XX<<"w0min="<<w0min<<endl;
XX<<"w0max="<<w0max<<endl;
XX<<"w1min="<<w1min<<endl;
XX<<"w1max="<<w1max<<endl;
XX<<"gamma0min="<<h0*gamma0min<<endl;
XX<<"gamma0max="<<h0*gamma0max<<endl;
XX<<"gamma1min="<<gamma1min<<endl;
XX<<"gamma1max="<<gamma1max<<endl;
XX<<"RRmin="<<RRmin<<endl;
XX<<"RRmax="<<RRmax<<endl;
}//
int nbCallSave;
int numDay=0;
int lastRRPlot=0;
func real J(real[int] & u)
{
real coefLength=969000/12;
//real coefExpo=2*log(coefLength)/log(10.0);
D2DXu0=pow(10,u[0])*coefLength*coefLength;
D2DYu0=D2DXu0;
D1Du1=pow(10,u[1])*coefLength*coefLength;
D1Du0=D1Du1;
real R=pow(10,u[2]);
muu1=u[3]*u[3];
nuu1=coefLength*u[4]*u[4];
dirichlet0=0.1*u[5]*u[5]/coefLength;
betamodel=coefLength*coefLength;
RR0=R;RR1=R;RR2=R;RR3=R;RR4=R;RR5=R;RR6=R;RR7=R;RR8=R;RR9=R;RR10=R;RR11=R;RR12=R;RR13=R;RR14=R;
cout<<"PostTrait u("<<u[0]<<","<<u[1]<<","<<u[2]<<","<<u[3]<<","<<u[4]<<","<<u[5]<<")"<<endl;
cout<<"PostTrait J("<<D2DXu0<<","<<D2DYu0<<","<<D1Du1<<","<<R<<","<<muu1<<","<<nuu1<<","<<dirichlet0<<")"<<endl;
include "defVarfGen.edp";
include "defIC.edp";
include "defIC1dNull.edp";
include "defMatGen.edp";
//include "buildMatGenW01.edp";
cout<<"end ic\n";
// ofstream infoFileNull("infosimu.txt");
//nbCallSave=0;
cout<<"begin loop\n";
if (NBPREDYEAR>0)
CURYEAR=FIRSTYEAR+NBPREDYEAR-1;
else
CURYEAR=FIRSTYEAR;
for (CURYEAR=CURYEAR; CURYEAR<=LASTYEAR; CURYEAR++){
nbCallSave=0;
if (CURYEAR>2019){
real p;
p=randreal1();
int rg=p/0.2+1;
CURYEARRAND=2008+rg;
if (CURYEARRAND>2019)
CURYEARRAND=2019;
cout<<"CURYEAR "<<CURYEAR<<" use data "<<CURYEARRAND<<endl;
}
// ofstream infoFile("infosimu.txt",append);
if (CURYEAR==2008){
//nbSteps=nbSteps2011;
T0=1-122.0/365.0;
}else{