/*
*采用绝对减值法计算低阶gram的概率
*gramMapList为输入的n-gram的统计词频
*gramProbList为输出的n-gram统计概率
*allocatPro为分配给当前gram的总概率
*restPro为分配给当前gram后剩余的概率
*/
void AbsoluteDiscounting::UseAbsoluteDiscounting(GramListMap &gramMapList, int vocabularySize, string savePath)
{
string fileNameTri = savePath + PROB_FILENAME;
string fileNameRest = savePath + RES_PROB_FILENAME;
GramProb gramProbList;
int totalGramNum = 0; //整个语料Gram个数
double discountNum; //折扣数
double restProTri = 0.0; //Gram重新计算概率后的剩余概率
int n1 = 0, n2 = 0; //统计在Gram中出现次数为1次和两次的事件个数
int gramListNum = gramMapList.size();
GramListMap::iterator itr_gram = gramMapList.begin();
GramListMap::iterator itr_gram_end = gramMapList.end();
for (; itr_gram != itr_gram_end; itr_gram++)
{
totalGramNum += itr_gram->second;
if (itr_gram->second == 1)
{
n1++;
}
else if (itr_gram->second == 2)
{
n2++;
}
else
{
continue;
}
}
discountNum = (double)n1 / (n1 + 2 * n2); //使用上限代替优化的dicountNum
for (itr_gram = gramMapList.begin(); itr_gram != itr_gram_end; itr_gram++) //重新计算减值后Gram的每个事件的概率
{
m_GramPro[itr_gram->first] = (((double)itr_gram->second - discountNum) / totalGramNum);
}
m_restPro = (1.0 - (double)(discountNum*gramListNum) / totalGramNum); //计算Gram剩余概率
m_restPro = m_restPro / PowInt(vocabularySize, N_GRAM);
cout << "计算完成m_GramPro!" << endl;
WriteProbToFile(fileNameTri, m_GramPro);
ofstream fout;
fout.open(fileNameRest);
fout << m_restPro << endl;
fout.close();
cout << "成功将m_gram存入文件！" << endl;
//return gramProbList;
}
int main(int argc,char *argv[])
{
//%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%
//VARIABLE DEFINITION
//%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%
float cp,S,sigma,gamma,pp,Topt;
float q,Ab,Aw,Agf,grad_T,fi,mm,nn,Pmax,EVPmax;
float Ec,Es,deltat,t_integracion,t_modelacion;
float Lini,Lfin,deltaL;
int niter,niterL,nzc;
Vector zc_vector;
int zczc,ii;
float Ac,L,zc;
float aclouds,awhite,ablack,Ts,d;
float t,xx,As;
float k1,k2,k3,k4;
int j;
float Tc,Tlb,Tlw,Tanual,I,a,EVP,E;
float P;
float k1c,k2c,k3c,k4c;
float k1w,k2w,k3w,k4w;
float k1b,k2b,k3b,k4b;
float Bw,Bb;
int it;
Vector time,temperature,white_temperature,
black_temperature,white_area,black_area,clouds_area,evap,prec;
Matrix resultados;
FILE *fl;
char fname[1000];
float k1p1,k1p2,k1p3,k1p4,k1p5;
//%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%
//PARAMETERS
//%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%
cp = 3.e13; //erg*cm-2*K-1
S = 2.89e13; //erg*cm-2*año-1
sigma = 1789.; //erg*cm-2*año-1*K-4
gamma = 0.3; //año-1
pp = 1.; //adimensional
Topt = 295.5; //K
q = 20.; //K
Ab = 0.25; //adimensinal
Aw = 0.75; //adimensinal
Agf = 0.50; //adimensinal
grad_T = (-0.0065); //K*m-1, Trenberth 95, p.10
fi = 0.1;
mm = 0.35;
nn = 0.1;
Pmax = pow((1./mm),(1/nn)); //=36251 [mm/año], cuando ac=1.0
EVPmax = Pmax;
//EVPmax = 1511.; //[mm/año] corresponde a Ts=26 grados centígrados
//Pmax = EVPmax; //[mm/año]
//ac_crit = mm*Pmax^nn;
//&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&
//experimento otro: cambiando estos parámetros
Ec=1.; //emisividad de las nubes
Es=1.; //emisividad de la superficie
//&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&
deltat = 0.01; //[años] tamaño de paso temporal para dTsdt y dadt
t_integracion = 1; //[año] cada cuanto se guardan valores de las variables
t_modelacion = 10000; //[años] período de modelación por cada L
niter = t_integracion/deltat; //# de iteraciones en los RK4
/*
Lini = 1.992;
Lfin = 4.004;
deltaL = 0.004;
*/
Lini = 1.000;
Lfin = 1.000;
deltaL = 0.004;
niterL = (Lfin-Lini)/deltaL;
////zc_vector = [1000.,2000.,3000.,4000.,5000.,6000.,7000.,8000.]
zc_vector=VecAlloc(1);
VecSet(zc_vector,0,6000.);
nzc=1;
//&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&
//LOOP IN HEIGHTS
//&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&
FILE *ft=fopen("hdw-legacy.dat","w");
for(zczc=0;zczc<=nzc-1;zczc++){
zc=VecGet(zc_vector,zczc);
//Ac=1.-fi*(zc/1000.);
Ac=0.6;
resultados=MatAlloc(niterL+1,19);
//&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&
//LOOP IN SOLAR FORCING
//&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&
for(ii=0;ii<=niterL;ii++){
L = deltaL*ii+Lini;
printf("%d de %d, L = %.4lf\n",ii,niterL,L);
//valores iniciales
aclouds = 0.01 ;//adimensional, 0 para reproducir modelo original, 0.01 para iniciar con area de nubes
awhite = 0.01 ;//adimensional
ablack = 0.01 ;//adimensional
Ts=295.5 ;//temperatura en la superficie, valor inicial para rk4
d = t_modelacion ;//numero de años en el eje de las abscisas - iteraciones de t - dimension de los vectores de resultados
//printf("Tam:%d\n",(int)(d+1)/2);
time=VecAlloc((d+1)/2);
temperature=VecAlloc((d+1)/2);
white_temperature=VecAlloc((d+1)/2);
black_temperature=VecAlloc((d+1)/2);
white_area=VecAlloc((d+1)/2);
black_area=VecAlloc((d+1)/2);
clouds_area=VecAlloc((d+1)/2);
evap=VecAlloc((d+1)/2);
prec=VecAlloc((d+1)/2);
it=0;
//&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&
//LOOP IN MODELLING TIME
//&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&
for(t=0;t<=t_modelacion;t+=t_integracion){
//if(it>5000){
if(it>-1){
fprintf(ft,"%e %e %e %e %e\n",
t,Ts,aclouds,awhite,ablack);
}
xx = pp - awhite - ablack;
As = xx*Agf + ablack*Ab + awhite*Aw;
//&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&
//TIME INTEGRATION
//&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&
for(j=1;j<=niter;j++){
//%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%
//TEMPERATURE
//%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%
k1=(1/cp)*(S*L*((1-Ac)*aclouds+(1-aclouds))*(1-As)+sigma*Ec*aclouds*gsl_pow_int((Ts+grad_T*zc),4)-sigma*Es*gsl_pow_int(Ts,4));
k2=(1/cp)*(S*L*((1-Ac)*aclouds+(1-aclouds))*(1-As)+sigma*Ec*aclouds*gsl_pow_int(((Ts+k1/2)+grad_T*zc),4)-sigma*Es*gsl_pow_int((Ts+k1/2),4));
k3=(1/cp)*(S*L*((1-Ac)*aclouds+(1-aclouds))*(1-As)+sigma*Ec*aclouds*gsl_pow_int(((Ts+k2/2)+grad_T*zc),4)-sigma*Es*gsl_pow_int((Ts+k2/2),4));
k4=(1/cp)*(S*L*((1-Ac)*aclouds+(1-aclouds))*(1-As)+sigma*Ec*aclouds*gsl_pow_int(((Ts+k3)+grad_T*zc),4)-sigma*Es*gsl_pow_int((Ts+k3),4));
Ts = Ts+deltat*(k1/6+k2/3+k3/3+k4/6);
//CLOUD TEMPERATURE
Tc=Ts+zc*grad_T;
Tlb=q*(As-Ab)+Ts;
Tlw=q*(As-Aw)+Ts;
//EVAPORATION
if(Ts>277){
Tanual = Ts - 273. ;//(°C)
I = 12.*pow((Tanual/5.),1.5);
a = (6.7e-7)*gsl_pow_int(I,3) - (7.7e-5)*PowInt(I,2) + (1.8e-2)*I + 0.49;
EVP = 12.*16*pow((10.*(Ts - 273.)/I),a);
E = Min(1.,EVP/EVPmax);
}else{
E = 0.;
}
//PRECIPITATION
P = (1./Pmax)*pow((aclouds/mm),(1./nn));
//%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%
//CLOUD COVERING
//%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%
k1c=(1-aclouds)*E-aclouds*P;
k2c=(1-(aclouds+k1c/2))*E-(aclouds+k1c/2)*P;
k3c=(1-(aclouds+k2c/2))*E-(aclouds+k2c/2)*P;
k4c=(1-(aclouds+k3c))*E-(aclouds+k3c)*P;
aclouds=aclouds+deltat*(k1c/6+k2c/3+k3c/3+k4c/6);
//REPRODUCTIVE FITNESS
//WHITE DAISIES
if((Tlw>278)&&(Tlw<313))
Bw=1-0.003265*PowInt((Topt-Tlw),2);
else Bw=0;
//BLACK DAISIES
if((Tlb>278)&&(Tlb<313))
Bb=1-0.003265*PowInt((Topt-Tlb),2);
else Bb=0;
//%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%
//WHITE AREA
//%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%
k1w=awhite*(xx*Bw-gamma);
k2w=(awhite+k1w/2)*(xx*Bw-gamma);
k3w=(awhite+k2w/2)*(xx*Bw-gamma);
k4w=(awhite+k3w)*(xx*Bw-gamma);
awhite=awhite+deltat*(k1w/6+k2w/3+k3w/3+k4w/6);
//%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%
//BLACK AREA
//%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%
k1b=ablack*(xx*Bb-gamma);
k2b=(ablack+k1b/2)*(xx*Bb-gamma);
k3b=(ablack+k2b/2)*(xx*Bb-gamma);
k4b=(ablack+k3b)*(xx*Bb-gamma);
ablack=ablack+deltat*(k1b/6+k2b/3+k3b/3+k4b/6);
xx = pp - awhite - ablack;
As = xx*Agf + ablack*Ab + awhite*Aw;
}//end for time integration
if(it>5000){
VecSet(time,it-5001,t);
VecSet(temperature,it-5001,Ts-273);
VecSet(white_temperature,it-5001,Tlw-273);
VecSet(black_temperature,it-5001,Tlb-273);
VecSet(white_area,it-5001,awhite);
VecSet(black_area,it-5001,ablack);
VecSet(clouds_area,it-5001,aclouds);
VecSet(evap,it-5001,E*(1-aclouds));
VecSet(prec,it-5001,P*aclouds);
}
it++;
}//end for modelling time t
if(VERBOSE){
fprintf(stdout,"Valor %s = %.6e\n",VARS[0],L);
fprintf(stdout,"Valor %s = %.6e\n",VARS[1],VecMin(temperature)) ;//Ts
fprintf(stdout,"Valor %s = %.6e\n",VARS[2],VecMean(temperature)) ;//Ts
fprintf(stdout,"Valor %s = %.6e\n",VARS[3],VecMax(temperature)) ;//Ts
fprintf(stdout,"Valor %s = %.6e\n",VARS[4],VecMin(white_area)) ;//aw
fprintf(stdout,"Valor %s = %.6e\n",VARS[5],VecMean(white_area)) ;//aw
fprintf(stdout,"Valor %s = %.6e\n",VARS[6],VecMax(white_area)) ;//aw
fprintf(stdout,"Valor %s = %.6e\n",VARS[7],VecMin(black_area)) ;//ab
fprintf(stdout,"Valor %s = %.6e\n",VARS[8],VecMean(black_area)) ;//ab
fprintf(stdout,"Valor %s = %.6e\n",VARS[9],VecMax(black_area)) ;//ab
fprintf(stdout,"Valor %s = %.6e\n",VARS[10],VecMin(clouds_area)) ;//ac
fprintf(stdout,"Valor %s = %.6e\n",VARS[11],VecMean(clouds_area)) ;//ac
fprintf(stdout,"Valor %s = %.6e\n",VARS[12],VecMax(clouds_area)) ;//ac
fprintf(stdout,"Valor %s = %.6e\n",VARS[13],VecMin(evap)) ;//E
fprintf(stdout,"Valor %s = %.6e\n",VARS[14],VecMean(evap)) ;//E
fprintf(stdout,"Valor %s = %.6e\n",VARS[15],VecMax(evap)) ;//E
fprintf(stdout,"Valor %s = %.6e\n",VARS[16],VecMin(prec)) ;//P
fprintf(stdout,"Valor %s = %.6e\n",VARS[17],VecMean(prec)) ;//P
fprintf(stdout,"Valor %s = %.6e\n",VARS[18],VecMax(prec)) ;//P
}
//&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&
//RESULTADOS
//&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&&
MatSet(resultados,ii,0,L);
MatSet(resultados,ii,1,VecMin(temperature)) ;//Ts
MatSet(resultados,ii,2,VecMean(temperature)) ;//Ts
MatSet(resultados,ii,3,VecMax(temperature)) ;//Ts
MatSet(resultados,ii,4,VecMin(white_area)) ;//aw
MatSet(resultados,ii,5,VecMean(white_area)) ;//aw
MatSet(resultados,ii,6,VecMax(white_area)) ;//aw
MatSet(resultados,ii,7,VecMin(black_area)) ;//ab
MatSet(resultados,ii,8,VecMean(black_area)) ;//ab
MatSet(resultados,ii,9,VecMax(black_area)) ;//ab
MatSet(resultados,ii,10,VecMin(clouds_area)) ;//ac
MatSet(resultados,ii,11,VecMean(clouds_area)) ;//ac
MatSet(resultados,ii,12,VecMax(clouds_area)) ;//ac
MatSet(resultados,ii,13,VecMin(evap)) ;//E
MatSet(resultados,ii,14,VecMean(evap)) ;//E
MatSet(resultados,ii,15,VecMax(evap)) ;//E
MatSet(resultados,ii,16,VecMin(prec)) ;//P
MatSet(resultados,ii,17,VecMean(prec)) ;//P
MatSet(resultados,ii,18,VecMax(prec)) ;//P
VecFree(time);
VecFree(temperature);
VecFree(white_temperature);
VecFree(black_temperature);
VecFree(white_area);
VecFree(black_area);
VecFree(clouds_area);
VecFree(evap);
VecFree(prec);
}//end for ii
sprintf(fname,"DAWHYC2_EXP2_L0416_%.2f_%d_activa.txt",Ac,(int)zc/1000);
fl=fopen(fname,"w");
fprintf(fl,"zc= %.0lf\n",zc);
fprintf(fl,"Ac= %.2lf\n",Ac);
for(j=0;j<NVARS;j++)
fprintf(fl,"%10s ",VARS[j]);
MatrixFprintf(fl,resultados,"%10.4f ");
fclose(fl);
MatFree(resultados);
}//end for heights
fclose(ft);
}//end program
