void glp_mem_limit(int limit)
{ ENV *env = get_env_ptr();
if (limit < 0)
xerror("glp_mem_limit: limit = %d; invalid parameter\n",
limit);
env->mem_limit = xlmul(xlset(limit), xlset(1 << 20));
return;
}
static void cleanup (void *instance)
{
if (!instance) {
xerror();
}
free(instance);
}
/* Modified to compile with MS Visual Studio 6.0 by Alan Mishchenko */
#include "glpenv.h"
#include "minisat.h"
#if 1 /* by mao */
static void *ymalloc(int size)
{ void *ptr;
xassert(size > 0);
ptr = malloc(size);
if (ptr == NULL)
xerror("MiniSat: no memory available\n");
return ptr;
}
const char *glp_get_row_name(glp_prob *lp, int i)
{ char *name;
if (!(1 <= i && i <= lp->m))
xerror("glp_get_row_name: i = %d; row number out of range\n",
i);
name = lp->row[i]->name;
return name;
}
static void loadlist(const char *filename, char ***what, int concat, int even)
{
FILE *f = NULL;
char buf[4096] = {0}; size_t l = 0;
char **old = NULL;
int i;
if (!strcmp(filename, "-")) { f = stdin; goto _noopen; }
f = fopen(filename, "rb");
if (!f) xerror(filename);
_noopen:
if (concat) old = what[0];
what[0] = NULL;
what[0] = malloc(sizeof(char *));
for (i = 0;; i++) {
if (feof(f)) break;
if (fgets(buf, sizeof(buf)-1, f) == NULL) break;
l = strlen(buf) > sizeof(buf)-1 ? sizeof(buf)-1 : strlen(buf);
if (buf[l - 1] == '\n')
buf[l - 1] = '\0';
l--;
what[0] = realloc(what[0], (sizeof(char *) * (i+1)));
what[0][i] = malloc(l); memset(what[0][i], 0, l);
strncpy(what[0][i], buf, l);
}
fclose(f);
if (even && !!(i % 2)) {
what[0] = realloc(what[0], (sizeof(char *) * (i+1)));
what[0][i] = malloc(1); what[0][i][0] = 0;
i++;
}
if (concat) {
int x;
for (x = 0; old[x]; x++, i++) {
what[0] = realloc(what[0], (sizeof(char *) * (i+1)));
what[0][i] = malloc(strlen(old[x]) + 1);
memset(what[0][i], 0, strlen(old[x]) + 1);
strncpy(what[0][i], old[x], strlen(old[x]));
}
}
if (i) {
what[0] = realloc(what[0], (sizeof(char *) * (i+1)));
what[0][i] = NULL;
}
else {
free(what[0]);
what[0] = falsetext;
}
}
void *xdlsym(void *h, const char *symbol)
{ /* obtain address of symbol from dynamically linked library */
void *ptr;
xassert(h != NULL);
ptr = dlsym(h, symbol);
if (ptr == NULL)
xerror("xdlsym: %s: %s\n", symbol, dlerror());
return ptr;
}
void glp_adv_basis(glp_prob *lp, int flags)
{ if (flags != 0)
xerror("glp_adv_basis: flags = %d; invalid flags\n", flags);
if (lp->m == 0 || lp->n == 0)
glp_std_basis(lp);
else
adv_basis(lp);
return;
}
double glp_ios_cut_get_mir_delta(glp_tree *tree, int ord){
glp_prob *mip;
IOSCUT *cut;
IOSAUX *aux;
int j, n, m;
if ( tree->reason != GLP_ICUTADDED ){
xerror("glp_ios_cut_get_aux_mir: not called during cut added.\n");
}
cut = ios_find_row(tree->local, ord);
if ( cut == NULL ){
xerror("glp_ios_cut_get_aux_mir: not called on a cut.\n");
}
if ( cut->klass != GLP_RF_MIR ){
xerror("glp_ios_cut_get_aux_mir: not called on a mir cut.\n");
}
aux = cut->aux;
return aux->mir_delta;
}
void *xdlsym(void *h, const char *symbol)
{ /* obtain address of symbol from dynamically linked library */
void *ptr;
xassert(h != NULL);
ptr = GetProcAddress(h, symbol);
if (ptr == NULL)
xerror("xdlsym: %s: Error %d\n", symbol, GetLastError());
return ptr;
}
void glp_ios_branch_upon(glp_tree *tree, int j, int sel)
{ if (!(1 <= j && j <= tree->mip->n))
xerror("glp_ios_branch_upon: j = %d; column number out of rang"
"e\n", j);
if (!(sel == GLP_DN_BRNCH || sel == GLP_UP_BRNCH ||
sel == GLP_NO_BRNCH))
xerror("glp_ios_branch_upon: sel = %d: invalid branch selectio"
"n flag\n", sel);
if (!(tree->non_int[j]))
xerror("glp_ios_branch_upon: j = %d; variable cannot be used t"
"o branch upon\n", j);
if (tree->br_var != 0)
xerror("glp_ios_branch_upon: branching variable already chosen"
"\n");
tree->br_var = j;
tree->br_sel = sel;
return;
}
void glp_netgen_prob(int nprob, int parm[1+15])
{ int k;
if (!(101 <= nprob && nprob <= 150))
xerror("glp_netgen_prob: nprob = %d; invalid problem instance "
"number\n", nprob);
for (k = 1; k <= 15; k++)
parm[k] = data[nprob-101][k];
return;
}
int
TestPushEvents(HTTPServer* p_server)
{
int error = 0;
xprintf("TESTING SSE (Server-Sent-Events) CHANNEL FUNCTIONS OF THE HTTP-SERVER\n");
xprintf("=====================================================================\n");
CString url("/MarlinTest/Events/");
// Create URL site to listen to events "http://+:port/MarlinTest/Events/"
HTTPSite* site = p_server->CreateSite(PrefixType::URLPRE_Strong,false,TESTING_HTTP_PORT,url);
if (site)
{
// SUMMARY OF THE TEST
// --- "--------------------------- - ------\n"
qprintf("HTTPSite for event streams : OK : %s\n",(LPCTSTR) site->GetPrefixURL());
}
else
{
++error;
xerror();
qprintf("Cannot create a HTTP site for: %s\n",(LPCTSTR) url);
return error;
}
site->SetHandler(HTTPCommand::http_get,new SiteHandlerStream());
// HERE IS THE MAGIC. MAKE IT INTO AN EVENT STREAM HANDLER!!!
// Modify standard settings for this site
site->AddContentType("txt","text/event-stream");
site->SetIsEventStream(true);
// Start the site explicitly
if(site->StartSite())
{
xprintf("Site started correctly\n");
}
else
{
++error;
xerror();
qprintf("ERROR STARTING SITE: %s\n",(LPCTSTR)url);
}
return error;
}
static void *yrealloc(void *ptr, int size)
{ xassert(size > 0);
if (ptr == NULL)
ptr = malloc(size);
else
ptr = realloc(ptr, size);
if (ptr == NULL)
xerror("MiniSat: no memory available\n");
return ptr;
}
static void run (void *instance, unsigned long sampleCount)
{
data_t *ins = (data_t *)instance;
int i;
if (!ins) {
xerror();
}
if (!ins->output_buffer_left) {
xerror();
}
if (!ins->input_buffer_left) {
xerror();
}
if (!ins->threshold) {
xerror();
}
for (i = 0; i < sampleCount; i++) {
if (ins->input_buffer_left[i] > *ins->threshold) {
ins->output_buffer_left[i] = *ins->threshold;
} else if (ins->input_buffer_left[i] < -(*ins->threshold)) {
ins->output_buffer_left[i] = -(*ins->threshold);
} else {
ins->output_buffer_left[i] = ins->input_buffer_left[i];
}
}
if (ins->input_buffer_right) {
if (!ins->output_buffer_right) {
xerror();
}
for (i = 0; i < sampleCount; i++) {
if (ins->input_buffer_right[i] > *ins->threshold) {
ins->output_buffer_right[i] = *ins->threshold;
} else if (ins->input_buffer_right[i] < -(*ins->threshold)) {
ins->output_buffer_right[i] = -(*ins->threshold);
} else {
ins->output_buffer_right[i] = ins->input_buffer_right[i];
}
}
}
}
double glp_get_col_prim(glp_prob *lp, int j)
{ /*struct LPXCPS *cps = lp->cps;*/
double prim;
if (!(1 <= j && j <= lp->n))
xerror("glp_get_col_prim: j = %d; column number out of range\n"
, j);
prim = lp->col[j]->prim;
/*if (cps->round && fabs(prim) < 1e-9) prim = 0.0;*/
return prim;
}
double glp_get_row_dual(glp_prob *lp, int i)
{ /*struct LPXCPS *cps = lp->cps;*/
double dual;
if (!(1 <= i && i <= lp->m))
xerror("glp_get_row_dual: i = %d; row number out of range\n",
i);
dual = lp->row[i]->dual;
/*if (cps->round && fabs(dual) < 1e-9) dual = 0.0;*/
return dual;
}
void glp_set_rii(glp_prob *lp, int i, double rii)
{ if (!(1 <= i && i <= lp->m))
xerror("glp_set_rii: i = %d; row number out of range\n", i);
if (rii <= 0.0)
xerror("glp_set_rii: i = %d; rii = %g; invalid scale factor\n",
i, rii);
if (lp->valid && lp->row[i]->rii != rii)
{ GLPAIJ *aij;
for (aij = lp->row[i]->ptr; aij != NULL; aij = aij->r_next)
{ if (aij->col->stat == GLP_BS)
{ /* invalidate the basis factorization */
lp->valid = 0;
break;
}
}
}
lp->row[i]->rii = rii;
return;
}
static int _fullname(char *buffer)
{
char *name, *h, *d, *s;
int error;
if ((name = strdup(buffer)) == NULL)
error = ENSMEM;
else
{
d = buffer;
if ((h = strchr(name, ':')) == NULL)
{
*d++ = (char) (x_getdrv() + 'A');
*d++ = ':';
h = name;
}
else
{
h++;
s = name;
while (s != h)
*d++ = *s++;
}
if (*h == '\\')
{
strcpy(d, h);
error = 0;
}
else
{
#if USE_gemdos
if ((error = xerror((int) gemdos(71, d, (int) (buffer[0] - 'A' + 1)))) == 0)
#else
if ((error = xerror(Dgetpath(d, buffer[0] - 'A' + 1))) == 0)
#endif
make_path(buffer, buffer, h);
}
free(name);
}
return error;
}
void glp_set_obj_coef(glp_prob *lp, int j, double coef)
{ if (!(0 <= j && j <= lp->n))
xerror("glp_set_obj_coef: j = %d; column number out of range\n"
, j);
if (j == 0)
lp->c0 = coef;
else
lp->col[j]->coef = coef;
return;
}
void glp_set_graph_name(glp_graph *G, const char *name)
{ if (G->name != NULL)
{ dmp_free_atom(G->pool, G->name, strlen(G->name)+1);
G->name = NULL;
}
if (!(name == NULL || name[0] == '\0'))
{ int j;
for (j = 0; name[j] != '\0'; j++)
{ if (j == 256)
xerror("glp_set_graph_name: graph name too long\n");
if (iscntrl((unsigned char)name[j]))
xerror("glp_set_graph_name: graph name contains invalid "
"character(s)\n");
}
G->name = dmp_get_atom(G->pool, strlen(name)+1);
strcpy(G->name, name);
}
return;
}
void xdie(const char *s, ...)
{
va_list p;
va_start(p, s);
xerror(s, p);
va_end(p);
abort();
}
void glp_ios_select_node(glp_tree *tree, int p)
{ IOSNPD *node;
/* obtain pointer to the specified subproblem */
if (!(1 <= p && p <= tree->nslots))
err: xerror("glp_ios_select_node: p = %d; invalid subproblem refere"
"nce number\n", p);
node = tree->slot[p].node;
if (node == NULL) goto err;
/* the specified subproblem must be active */
if (node->count != 0)
xerror("glp_ios_select_node: p = %d; subproblem not in the act"
"ive list\n", p);
/* no subproblem must be selected yet */
if (tree->next_p != 0)
xerror("glp_ios_select_node: subproblem already selected\n");
/* select the specified subproblem to continue the search */
tree->next_p = p;
return;
}
double glp_get_row_prim(glp_prob *lp, int i)
{ /*struct LPXCPS *cps = lp->cps;*/
double prim;
if (!(1 <= i && i <= lp->m))
xerror("glp_get_row_prim: i = %d; row number out of range\n",
i);
prim = lp->row[i]->prim;
/*if (cps->round && fabs(prim) < 1e-9) prim = 0.0;*/
return prim;
}
void glp_scale_prob(glp_prob *lp, int flags)
{ if (flags & ~(GLP_SF_GM | GLP_SF_EQ | GLP_SF_2N | GLP_SF_SKIP |
GLP_SF_AUTO))
xerror("glp_scale_prob: flags = 0x%02X; invalid scaling option"
"s\n", flags);
if (flags & GLP_SF_AUTO)
flags = (GLP_SF_GM | GLP_SF_EQ | GLP_SF_SKIP);
scale_prob(lp, flags);
return;
}
double glp_get_col_dual(glp_prob *lp, int j)
{ /*struct LPXCPS *cps = lp->cps;*/
double dual;
if (!(1 <= j && j <= lp->n))
xerror("glp_get_col_dual: j = %d; column number out of range\n"
, j);
dual = lp->col[j]->dual;
/*if (cps->round && fabs(dual) < 1e-9) dual = 0.0;*/
return dual;
}
int X11_oops( Display *display, XErrorEvent *ee )
{
if ( ee->error_code == BadWindow
|| ( ee->request_code == X_GrabButton && ee->error_code == BadAccess )
|| ( ee->request_code == X_GrabKey && ee->error_code == BadAccess )
) return 0;
fprintf( stderr, "error: request code=%d, error code=%d\n", ee->request_code, ee->error_code );
return xerror( display, ee );
}
double glp_mip_row_val(glp_prob *mip, int i)
{ /*struct LPXCPS *cps = mip->cps;*/
double mipx;
if (!(1 <= i && i <= mip->m))
xerror("glp_mip_row_val: i = %d; row number out of range\n", i)
;
mipx = mip->row[i]->mipx;
/*if (cps->round && fabs(mipx) < 1e-9) mipx = 0.0;*/
return mipx;
}
double glp_mip_col_val(glp_prob *mip, int j)
{ /*struct LPXCPS *cps = mip->cps;*/
double mipx;
if (!(1 <= j && j <= mip->n))
xerror("glp_mip_col_val: j = %d; column number out of range\n",
j);
mipx = mip->col[j]->mipx;
/*if (cps->round && fabs(mipx) < 1e-9) mipx = 0.0;*/
return mipx;
}
int glp_add_vertices(glp_graph *G, int nadd)
{ int i, nv_new;
if (nadd < 1)
xerror("glp_add_vertices: nadd = %d; invalid number of vertice"
"s\n", nadd);
if (nadd > NV_MAX - G->nv)
xerror("glp_add_vertices: nadd = %d; too many vertices\n",
nadd);
/* determine new number of vertices */
nv_new = G->nv + nadd;
/* increase the room, if necessary */
if (G->nv_max < nv_new)
{ glp_vertex **save = G->v;
while (G->nv_max < nv_new)
{ G->nv_max += G->nv_max;
xassert(G->nv_max > 0);
}
G->v = xcalloc(1+G->nv_max, sizeof(glp_vertex *));
memcpy(&G->v[1], &save[1], G->nv * sizeof(glp_vertex *));
xfree(save);
}
/* add new vertices to the end of the vertex list */
for (i = G->nv+1; i <= nv_new; i++)
{ glp_vertex *v;
G->v[i] = v = dmp_get_atom(G->pool, sizeof(glp_vertex));
v->i = i;
v->name = NULL;
v->entry = NULL;
if (G->v_size == 0)
v->data = NULL;
else
{ v->data = dmp_get_atom(G->pool, G->v_size);
memset(v->data, 0, G->v_size);
}
v->temp = NULL;
v->in = v->out = NULL;
}
/* set new number of vertices */
G->nv = nv_new;
/* return the ordinal number of the first vertex added */
return nv_new - nadd + 1;
}
static
int _file_size (FILE *fp, const char *path, size_t *size)
{
long r;
if (fseek (fp, 0L, SEEK_END)) {
xerror (__FILE__ ": can't seek file `%s'", path);
fclose (fp);
return 0;
}
r = ftell (fp);
if (r == -1) {
xerror (__FILE__ ": can't get file size of `%s'", path);
return 0;
}
if (size) *size = (size_t) r;
return 1;
}
