/*__________________________________________________________________________________________*/
CPoint wzq::AiGo(bool color)
{
CPoint turnback(-1,-1);
clear(false); //pc全部置为255
fillin(color,false,true);
fillin(!color,false,false);
wzq::aitype2 = getAItype();
unsigned char found = 255;
for (int ix = 0; ix < 15; ix++)
{
for (int iy = 0; iy < 15; iy++)
{
for (int im = 0; im <= 3; im++)
{
if (pc[ix][iy][im] <= found)
{
found = pc[ix][iy][im];
turnback.x = ix,turnback.y = iy;
}
}
}
}
if (found <= 23)
return turnback;
else
return getmax(color);
}
void fillin(node *pa, node *qa, boolean contin)
{
if (!pa->tip) {
fillin(pa->next->back, qa, contin);
fillin(pa->next->next->back, qa, contin);
}
filltraverse(pa, qa, contin);
} /* fillin */
/*
* getuinfo_file()
* Get user info from passed file
*
* Returns 0 on success, 1 on failure
*/
static int
getuinfo_file(FILE *fp, char *name, struct uinfo *u)
{
char *p, buf[80];
/*
* Get lines out of file until EOF or match
*/
while (fgets(buf, sizeof(buf), fp)) {
buf[strlen(buf)-1] = '\0';
/*
* Chop off first field--account name
*/
p = strchr(buf, ':');
if (p == 0) {
continue; /* Malformed */
}
/*
* Match?
*/
*p++ = '\0';
if (!strcmp(name, buf)) {
strcpy(u->u_acct, name);
fillin(p, u);
return(0);
}
}
return(1);
}
static Filter*
fillin(Filter *f, Proto *last)
{
int i;
Filter *nf;
/* hack to make sure top level node is the root */
if(last == nil){
if(f->pr == root)
return f;
f = fillin(f, root);
if(f == nil)
return nil;
return addnode(f, root);
}
/* breadth first search though the protocol graph */
nf = f;
for(i = 1; i < 20; i++){
nf = _fillin(f, last, i);
if(nf != nil)
break;
}
return nf;
}
/*******************************************************************************
* fill_and_save - fill in missing genotypes and save the result
*
* INPUTS: snp_t *snps - array of snp_t structs
* em_params_t *em_params - input parameters for hmm_em()
* em_out_t *em_out - output of hmm_em()
* int path_option - which path algorithm was used
* int sort_option - state sorting option (for path output)
* double threshold - confidence threshold for filtered output
* int num_emission_types - 2 or 3 depending if missing is a valid emission type
* int chromosome - which chromosome was processed
* int smooth_out - boolean value to instruct maxSmthPath to write out
* the smoothness information
* double **fill_probability_matrix - pointer to memory to store filling probabilities
*
*
* RETURNS:
* funciton returns void, filling probabilities returned via parameter
*
* ASSUMES:
*
* EFFECTS: modifies contents of fill_probability_matrix, writes filled file and path file
*
* ERROR CONDITIONS:
*
* COMMENTS:
*
******************************************************************************/
void fill_and_save(snp_t *snps, em_params_t *em_params, em_out_t *em_out,
int path_option, int sort_option, double threshold,
int num_emission_types, int chromosome, int smooth_out,
double **fill_probability_matrix)
{
clock_t tStart;
clock_t tEnd;
int **path_matrix;
double **log_prob_matrix = NULL;
assert(path_option == PATH_VITERBI || path_option == PATH_MAXSMTH);
path_matrix = allocate2Di(em_params->num_snps, em_params->num_strains);
tStart = clock();
if (path_option == PATH_VITERBI)
{
printf("Calculating Viterbi path...");
log_prob_matrix = allocate2Dd(em_params->num_snps, em_params->num_strains);
viterbiPath(em_params, em_out, path_matrix, log_prob_matrix,
fill_probability_matrix);
}
else
{
printf("Calculating max smooth path...");
maxSmthPath(em_params, em_out, em_params->file_prefix, smooth_out,
path_matrix, fill_probability_matrix);
}
tEnd = clock();
printf("Done (%.2fs)\n", ((double)(tEnd - tStart)) / CLOCKS_PER_SEC);
/* write the path to a file */
writePath(snps, path_matrix, em_params->num_snps,
em_params->num_strains, em_params->file_prefix,
path_option, chromosome, sort_option,
em_out->last_emission_matrix);
/* if random missing then fill in using path */
if ( em_params->miss_option > 0)
{
fillin(em_params->snps, path_matrix, em_out->last_emission_matrix,
em_params->num_snps, em_params->num_strains, num_emission_types,
fill_probability_matrix);
writeFilledData(snps, chromosome, fill_probability_matrix,
em_params->file_prefix, path_option, sort_option,
threshold, em_params->num_snps);
}
free2Di(path_matrix, em_params->num_snps);
if (path_option == PATH_VITERBI)
{
free2Dd(log_prob_matrix, em_params->num_snps);
}
}
void refreshall(t_struct *vals, t_booly *booh, int *j)
{
vals->turn = 1;
free(booh);
booh = fillin(*vals);
tputs(vals->tget->clears, 1, my_putchar);
afffile(*vals, booh);
affturn(*vals, booh);
*j = 0;
}
void filltrav(node2 *r, long fullset, boolean full, bitptr wagner,
bitptr zeroanc)
{
/* traverse to fill in interior node states */
if (r->tip)
return;
filltrav(r->next->back, fullset, full, wagner, zeroanc);
filltrav(r->next->next->back, fullset, full, wagner, zeroanc);
fillin(r, fullset, full, wagner, zeroanc);
} /* filltrav */
void postorder(node2 *p, long fullset, boolean full, bitptr wagner,
bitptr zeroanc)
{
/* traverses a binary tree, calling PROCEDURE fillin at a
node's descendants before calling fillin at the node2 */
/* used in mix & penny */
if (p->tip)
return;
postorder(p->next->back, fullset, full, wagner, zeroanc);
postorder(p->next->next->back, fullset, full, wagner, zeroanc);
if (!p->visited) {
fillin(p, fullset, full, wagner, zeroanc);
if (!full) p->visited = true;
}
} /* postorder */
t_bres bresenham(t_jig a, t_jig b)
{
t_bres ret;
ret.a = a;
ret.b = b;
ret.x1 = a.x;
ret.y1 = a.y;
ret.x2 = b.x;
ret.y2 = b.y;
ret.i = -1;
ret.w = ret.x2 - ret.x1;
ret.h = ret.y2 - ret.y1;
ret.dx1 = 0;
ret.dy1 = 0;
ret.dx2 = 0;
ret.dy2 = 0;
fillin(&ret);
return (ret);
}
void insert_(node *p, node *q, boolean contin_)
{
/* put p and q together and iterate info. on resulting tree */
double x=0.0, oldlike, dummy;
hookup(p->next->next, q->back);
hookup(p->next, q);
x = q->v / 2.0;
p->v = 0.0;
p->back->v = 0.0;
p->next->v = x;
p->next->back->v = x;
p->next->next->back->v = x;
p->next->next->v = x;
fillin(p->back, p, contin_);
dummy = evaluate(&curtree);
do {
oldlike = curtree.likelihood;
smooth(p);
smooth(p->back);
dummy = evaluate(&curtree);
} while (fabs(curtree.likelihood - oldlike) > delta);
} /* insert_ */
int main(int ac, char **av, char **environ)
{
char *term;
int a;
t_struct vals;
t_booly *booh;
vals = checkfonc(ac, vals, av);
booh = fillin(vals);
if ((term = getterm(environ)) == NULL)
return (1);
a = tgetent(NULL, term);
if (dogent(a) == 1)
return (1);
checkwinsize(&vals);
fillstruct(&vals);
tputs(vals.tget->hidecurs, 1, my_putchar);
tputs(vals.tget->clears, 1, my_putchar);
afffile(vals, booh);
makeread(vals, booh);
return (0);
}
/*
* massage tree so that all paths from the root to a leaf
* contain a filter node for each header.
*
* also, set f->pr where possible
*/
Filter*
complete(Filter *f, Proto *last)
{
Proto *pr;
if(f == nil)
return f;
/* do a depth first traversal of the filter tree */
switch(f->op){
case '!':
f->l = complete(f->l, last);
break;
case LAND:
case LOR:
f->l = complete(f->l, last);
f->r = complete(f->r, last);
break;
case '=':
break;
case WORD:
pr = findproto(f->s);
f->pr = pr;
if(pr == nil){
if(f->l != nil){
fprint(2, "%s unknown proto, ignoring params\n",
f->s);
f->l = nil;
}
} else {
f->l = complete(f->l, pr);
f = fillin(f, last);
if(f == nil)
sysfatal("internal error: can't get to %s", pr->name);
}
break;
}
return f;
}
/*_____________________________________________________________________________________*/
void wzq::checkgo(int x,int y,bool color,int num,int inx,int iny)//预测函数
{
wzq::trygo[x][y] = (char)color + 1;
clear(true);
fillin(color,true,true);
fillin(!color,true,false);
CPoint temp = get_victory(true);
bool four1 = false, four2 = false, three1 = false,three2 = false;
bool four3 = false, four4 = false, three3 = false,three4 = false;
for (int i = 0; i <= 3; i++)
{
if (user[temp.x][temp.y][i] >= 3 && user[temp.x][temp.y][i] <= 5)
{
wzq::nicest[inx][iny] = 2;//lose
return;
}
else
{
if (user[temp.x][temp.y][i] < 3)//win
{
wzq::nicest[inx][iny] = 1;
return;
}
else
{
if (user[temp.x][temp.y][i] >= 6 && user[temp.x][temp.y][i] <= 14)
{
if(four1 == true)
four2=true;
else
four1=true;
}
else
{
if (user[temp.x][temp.y][i] >= 15 && user[temp.x][temp.y][i] <= 23)
{
if(four3==true)
four4=true;
else
four3=true;
}
else
{
if (user[temp.x][temp.y][i] == 24 || user[temp.x][temp.y][i] == 25)
{
if(three1==true)
three2=true;
else
three1=true;
}
else
{
if (user[temp.x][temp.y][i] == 26 || user[temp.x][temp.y][i] == 27)
{
if(three3 == true)
three4 = true;
else
three3 = true;
}
}
}
}
}
}
}
/*++此处添加更多的胜败判断++*/
if (three1 + three2 + four1 + four2 >= 2)
{
wzq::nicest[inx][iny] = 1;//lose
return;
}
else
{
if (three3+three4+four3+four4>=2)
{
wzq::nicest[inx][iny] = 2;//win
return;
}
}
if (num >= wzq::aitype2)
{
wzq::nicest[inx][iny] = 3;
return;
}
int xxx = num + 1;
checkgo(temp.x,temp.y,!color,xxx,inx,iny);
}
