char *
strpbrk(const char *s, const char *charset)
{
#ifdef FAST_STRPBRK
uint8_t set[256], inv[256], idx = 0;
#else
static const size_t idx[8] = { 1, 2, 4, 8, 16, 32, 64, 128 };
uint8_t set[32];
(void)memset(set, 0, sizeof(set));
#endif
_DIAGASSERT(s != NULL);
_DIAGASSERT(charset != NULL);
if (charset[0] == '\0')
return NULL;
if (charset[1] == '\0')
return strchr(s, charset[0]);
for (; *charset != '\0'; ++charset)
ADD_TO_SET(UC(*charset));
for (; *s != '\0'; ++s)
if (IS_IN_SET(UC(*s)))
return __UNCONST(s);
return NULL;
}
static void main1(TInput *v) {
Tform *t;
UC(tform_ini(&t));
UC(input2form(v, /**/ &t));
UC(process(t));
tform_fin(t);
}
SgObject Sg_MakePseudoRandom(SgString *name, SgObject seed)
{
const char *cname = Sg_Utf32sToUtf8s(name);
int wprng = find_prng(cname), err;
SgBuiltinPrng *prng;
if (wprng == -1) {
Sg_Error(UC("%A is not supported"), name);
return SG_UNDEF;
}
prng = make_prng(name);
SG_BUILTIN_PRNG(prng)->wprng = wprng;
err = prng_descriptor[wprng].start(&prng->prng);
if (err != CRYPT_OK) goto err;
if (!SG_FALSEP(seed)) {
if (SG_BVECTORP(seed)) {
err = prng_descriptor[wprng]
.add_entropy(SG_BVECTOR_ELEMENTS(seed),
SG_BVECTOR_SIZE(seed), &prng->prng);
if (err != CRYPT_OK) goto err;
} else { goto err; }
}
err = prng_descriptor[wprng].ready(&prng->prng);
if (err != CRYPT_OK) goto err;
Sg_RegisterFinalizer(prng, finalize_prng, NULL);
return SG_OBJ(prng);
err:
Sg_Error(UC("Failed to initialize pseudo random: %A"),
Sg_MakeStringC(error_to_string(err)));
return SG_UNDEF;
}
void main0(int n) {
int i;
RNDunif *r;
UC(rnd_ini(42, 42, 42, 42, /**/ &r));
for (i = 0; i < n; i++)
printf("%10.6e\n", rnd_get(r));
UC(rnd_fin(r));
}
static void comparator_print(SgObject o, SgPort *port, SgWriteContext *ctx)
{
SgComparator *c = SG_COMPARATOR(o);
if (SG_FALSEP(c->name)) {
Sg_Printf(port, UC("#<comparator %p>"), c);
} else {
Sg_Printf(port, UC("#<comparator %S>"), c->name);
}
}
void inet_ntoa_b(struct in_addr addr, char *str)
{
char *p;
/* Setup locals */
p = (char *) &addr;
sprintf(str, "%d.%d.%d.%d", UC(p[0]), UC(p[1]), UC(p[2]), UC(p[3]));
}
char *inet_ntoa_r(struct in_addr in, char *buf, int bufsize)
{
register char *p;
p = (char *)∈
#define UC(b) (((int)b)&0xff)
(void)snprintf(buf, bufsize,
"%d.%d.%d.%d", UC(p[0]), UC(p[1]), UC(p[2]), UC(p[3]));
return (buf);
}
char * _inet_ntoa(struct in_addr in)
{
static char b[18];
register char *p;
p = (char *)∈
#define UC(b) (((int)b)&0xff)
(void)snprintf(b, sizeof(b),
"%d.%d.%d.%d", UC(p[0]), UC(p[1]), UC(p[2]), UC(p[3]));
return (b);
}
/*
* Convert an Internet host address given in network byte order
* to string in standard numbers and dots notation.
*/
PJ_DEF(char*) pj_inet_ntoa(pj_in_addr in)
{
#define UC(b) (((int)b)&0xff)
static char b[18];
char *p;
p = (char *)∈
pj_snprintf(b, sizeof(b), "%d.%d.%d.%d",
UC(p[0]), UC(p[1]), UC(p[2]), UC(p[3]));
return b;
}
int main(int argc, char **argv) {
Sim *sim;
Config *cfg;
int rank, size, dims[3];
MPI_Comm cart;
int restart;
m::ini(&argc, &argv);
m::get_dims(&argc, &argv, dims);
m::get_cart(MPI_COMM_WORLD, dims, &cart);
MC(m::Comm_rank(cart, &rank));
MC(m::Comm_size(cart, &size));
msg_ini(rank);
msg_print("mpi rank/size: %d/%d", rank, size);
UC(conf_ini(&cfg));
UC(conf_read(argc, argv, cfg));
UC(sim_ini(cfg, cart, &sim));
UC(conf_lookup_bool(cfg, "glb.restart", &restart));
msg_print("read restart: %s", restart ? "YES" : "NO" );
if (restart) UC(sim_strt(sim));
else UC(sim_gen(sim));
UC(sim_fin(sim));
UC(conf_fin(cfg));
MC(m::Barrier(cart));
m::fin();
msg_print("end");
}
static void chain(TInput *v, Tform **pt) {
Tform *t, *t1, *t2;
t = *pt;
UC(tform_ini(&t1));
UC(tform_ini(&t2));
UC(tform_vector(v->u.a0, v->u.a1,
v->u.b0, v->u.b1, /**/ t1));
UC(tform_chain(t, t1, /**/ t2));
tform_fin(t1);
tform_fin(t);
tform_log(t2);
*pt = t2;
}
void io_com_dump(MPI_Comm comm, const Coords *coords, const char *name, long id, int n, const int *ii, const float3 *rr) {
char fname[FILENAME_MAX] = {0}, *data;
long nchar = 0;
EMALLOC(MAX_CHAR_PER_LINE * n, &data);
if (m::is_master(comm))
UC(os_mkdir(BASE));
gen_fname(name, id, fname);
UC(nchar = swrite(coords, n, ii, rr, /**/ data));
write_mpi(comm, fname, nchar, data);
EFREE(data);
}
void Sg__InitIdentifier()
{
/* For future we might want to make identifier <object> to use slot-ref
but for now.*/
SgLibrary *clib = Sg_FindLibrary(SG_INTERN("(sagittarius clos)"), TRUE);
Sg_InitStaticClass(SG_CLASS_IDENTIFIER, UC("<identifier>"), clib, NULL, 0);
}
size_t
strcspn(const char *s, const char *charset)
{
static const uint8_t idx[8] = { 1, 2, 4, 8, 16, 32, 64, 128 };
const char *t;
uint8_t set[32];
#define UC(a) ((unsigned int)(unsigned char)(a))
if (charset[0] == '\0')
return strlen(s);
if (charset[1] == '\0') {
for (t = s; *t != '\0'; ++t)
if (*t == *charset)
break;
return t - s;
}
(void)memset(set, 0, sizeof(set));
for (; *charset != '\0'; ++charset)
set[UC(*charset) >> 3] |= idx[UC(*charset) & 7];
for (t = s; *t != '\0'; ++t)
if (set[UC(*t) >> 3] & idx[UC(*t) & 7])
break;
return t - s;
}
int main(int argc, char **argv) {
int dims[3];
m::ini(&argc, &argv);
m::get_dims(&argc, &argv, dims); /* eat arguments */
UC(main1(argc, argv));
m::fin();
}
static void termios_print(SgObject o, SgPort *p, SgWriteContext *ctx)
{
Sg_Printf(p, UC("#<termios iflag:%x, oflag:%x, cflag:%x, lflag:%x>"),
SG_TERMIOS_TERMIOS(o)->c_iflag,
SG_TERMIOS_TERMIOS(o)->c_oflag,
SG_TERMIOS_TERMIOS(o)->c_cflag,
SG_TERMIOS_TERMIOS(o)->c_lflag);
}
SgObject Sg_MakeFileFromFD(uintptr_t handle)
{
SgFile *f = SG_NEW(SgFile);
init_file(f, (int)handle);
f->name = UC("fd");
SG_FILE_VTABLE(f) = &vtable;
return SG_OBJ(f);
}
SgObject Sg_StandardError()
{
if (!stdError) {
stdError = Sg_MakeFileFromFD(2);
stdError->name = UC("stderr");
}
return SG_OBJ(stdError);
}
SgObject Sg_StandardIn()
{
if (!stdIn) {
stdIn = Sg_MakeFileFromFD(0);
stdIn->name = UC("stdin");
}
return SG_OBJ(stdIn);
}
SgObject Sg_StandardOut()
{
if (!stdOut) {
stdOut = Sg_MakeFileFromFD(1);
stdOut->name = UC("stdout");
}
return SG_OBJ(stdOut);
}
SG_EXTENSION_ENTRY void CDECL Sg_Init_sagittarius__zlib()
{
SgLibrary *lib;
SG_INIT_EXTENSION(sagittarius__zlib);
lib = SG_LIBRARY(Sg_FindLibrary(SG_SYMBOL(SG_INTERN("(rfc zlib)")),
FALSE));
Sg__Init_zlib_stub(lib);
#define insert_binding_rec(n, v) \
Sg_MakeBinding(lib, SG_SYMBOL(SG_INTERN(#n)), SG_MAKE_INT(v), TRUE)
#define insert_binding(v) \
Sg_MakeBinding(lib, SG_SYMBOL(SG_INTERN(#v)), SG_MAKE_INT(v), TRUE)
insert_binding(Z_NO_FLUSH );
insert_binding(Z_PARTIAL_FLUSH);
insert_binding(Z_SYNC_FLUSH );
insert_binding(Z_FULL_FLUSH );
insert_binding(Z_FINISH );
insert_binding(Z_BLOCK );
/* as far as I know this is after 1.2.3
and some platform (say OpenBSD) is using 1.2.3
so check it.*/
#ifdef Z_TREES
insert_binding(Z_TREES );
#else
/* ok not sure if this should be default... */
insert_binding_rec(Z_TREES, Z_NO_FLUSH);
#endif
insert_binding(Z_OK );
insert_binding(Z_STREAM_END );
insert_binding(Z_NEED_DICT );
insert_binding(Z_ERRNO );
insert_binding(Z_STREAM_ERROR );
insert_binding(Z_DATA_ERROR );
insert_binding(Z_MEM_ERROR );
insert_binding(Z_BUF_ERROR );
insert_binding(Z_VERSION_ERROR);
insert_binding(Z_NO_COMPRESSION );
insert_binding(Z_BEST_SPEED );
insert_binding(Z_BEST_COMPRESSION );
insert_binding(Z_DEFAULT_COMPRESSION);
insert_binding(Z_FILTERED );
insert_binding(Z_HUFFMAN_ONLY );
insert_binding(Z_RLE );
insert_binding(Z_FIXED );
insert_binding(Z_DEFAULT_STRATEGY);
insert_binding(Z_BINARY );
insert_binding(Z_TEXT );
insert_binding(Z_ASCII );
insert_binding(Z_UNKNOWN);
#undef insert_binding
z_version = SG_MAKE_STRING(ZLIB_VERSION);
/* well this class should not be used, but for consistancy */
Sg_InitStaticClassWithMeta(SG_CLASS_ZSTREAM, UC("<z-stream>"), lib, NULL,
SG_FALSE, NULL, 0);
}
static void compound_printer(SgObject o, SgPort *p, SgWriteContext *ctx)
{
SgObject components = SG_COMPOUND_CONDITION(o)->components, cp;
Sg_Putuz(p, UC("#<condition\n"));
SG_FOR_EACH(cp, components) {
Sg_Putc(p, ' ');
Sg_Write(SG_CAR(cp), p, SG_WRITE_WRITE);
Sg_Putc(p, '\n');
}
void Sg_FileTruncate(SgObject file, int64_t size)
{
int fd = SG_FD(file)->fd;
if (ftruncate(fd, size) != 0) {
const char *msg = strerror(errno);
Sg_SystemError(errno, UC("failed to ftruncate: %A"),
Sg_Utf8sToUtf32s(msg, strlen(msg)));
}
}
SgObject Sg_MakeThread(SgProcedure *thunk, SgObject name)
{
SgVM *current = Sg_VM(), *vm;
if (SG_PROCEDURE_REQUIRED(thunk) != 0) {
Sg_Error(UC("thunk required, but got %S"), thunk);
}
vm = Sg_NewVM(current, name);
vm->thunk = thunk;
return SG_OBJ(vm);
}
SgObject Sg_ReadSysRandom(int bits)
{
SgObject buf;
bits = (bits/8)+((bits%8)!=0?1:0);
buf = Sg_MakeByteVector(bits, 0);
if (rng_get_bytes(SG_BVECTOR_ELEMENTS(buf), (unsigned long)bits, NULL) !=
(unsigned long)bits) {
Sg_Error(UC("failed to read system prng"));
}
return buf;
}
static void main0(const char *cell, Out *out) {
int nv, nm;
MeshVertArea *vert_area;
Vectors *pos;
double *vert_areas;
UC(mesh_read_ini_off(cell, /**/ &out->mesh));
UC(mesh_vert_area_ini(out->mesh, &vert_area));
nv = mesh_read_get_nv(out->mesh);
UC(vectors_float_ini(nv, mesh_read_get_vert(out->mesh), /**/ &pos));
nm = 1;
EMALLOC(nv, &vert_areas);
mesh_vert_area_apply(vert_area, nm, pos, /**/ vert_areas);
dump(nv, nm, vert_areas, pos, out);
mesh_vert_area_fin(vert_area);
UC(vectors_fin(pos));
UC(mesh_read_fin(out->mesh));
EFREE(vert_areas);
}
bool AttackTask::onValidate() {
CGroup *group = firstGroup();
if (targetAlt >= 0) {
if (ai->cbc->IsUnitCloaked(targetAlt) || !group->canAttack(targetAlt)) {
group->stop();
}
}
const UnitDef *eud = ai->cbc->GetUnitDef(target);
if (eud == NULL)
return false;
if (!isMoving) {
if (ai->cbc->IsUnitCloaked(target))
return false;
return true;
}
if (!group->canAttack(target))
return false;
// don't chase scout groups too long if they are out of base...
bool scoutGroup = (group->cats&SCOUTER).any();
if (!scoutGroup && lifeTime() > 20.0f) {
const unitCategory ecats = UC(eud->id);
if ((ecats&SCOUTER).any() && !ai->defensematrix->isPosInBounds(pos))
return false;
}
float targetDistance = pos.distance2D(group->pos());
if (targetDistance > 1000.0f)
return true; // too far to panic
if (ai->cbc->IsUnitCloaked(target))
return false;
bool isBaseThreat = ai->defensematrix->isPosInBounds(pos);
// if there is no threat to our base then prevent useless attack for groups
// which are not too cheap
if (!isBaseThreat && (group->costMetal / group->units.size()) >= 100.0f) {
float threatRange;
if (scoutGroup)
threatRange = 300.0f;
else
threatRange = 0.0f;
if (group->getThreat(pos, threatRange) > group->strength)
return false;
}
return true;
}
static int
in1line(void)
{
int c;
if(pushback >= 0){
c = pushback;
pushback = -1;
return(c);
}
return(UC(*in1iline++));
}
void os_mkdir(const char *path0) {
char path[FILENAME_MAX] = {'\0'};
unsigned int len;
char *p;
len = snprintf(path, sizeof(path), "%s", path0);
if (len >= sizeof(path)) ERR("Path is too long: %s", path0);
if (len == 0) ERR("empty path");
if (path[len-1] == SEP) path[len-1] = END;
for (p = path; *p != END; ++p) {
if (*p == SEP) {
*p = END;
UC(safe_mkdir(path));
*p = SEP;
}
}
UC(safe_mkdir(path));
}
int main(int argc, char **argv) {
const char *arg;
char **v;
int rank, c, dims[3];
const char delim[] = " \t";
Config *cfg;
MPI_Comm cart;
m::ini(&argc, &argv);
m::get_dims(&argc, &argv, dims);
m::get_cart(MPI_COMM_WORLD, dims, &cart);
MC(m::Comm_rank(cart, &rank));
msg_ini(rank);
UC(conf_ini(&cfg));
UC(conf_read(argc, argv, /**/ cfg));
UC(coords_ini_conf(cart, cfg, /**/ &coords));
UC(conf_lookup_string(cfg, "a", &arg));
tok_ini(arg, delim, /**/ &c, &v);
main3(c, v);
tok_fin(c, v);
UC(coords_fin(coords));
UC(conf_fin(cfg));
MC(m::Barrier(cart));
m::fin();
}
