void parse_region(FILE *fp, World *w)
{
char texture_name[STRING_TOKEN_MAX_LENGTH];
int texture_index;
Region r;
if (get_real_token(fp, &r.floor) != Token_real)
parse_error("number expected");
if (get_real_token(fp, &r.ceiling) != Token_real)
parse_error("number expected");
/* floor texture */
if (get_string_token(fp, texture_name) != Token_string)
parse_error("texture name expected");
texture_index = get_texture_index(texture_name);
if (texture_index < 0 || texture_index > TABLE_SIZE(w->textures))
parse_error("non-existent texture");
else
r.floor_tex = WORLD_TEXTURE(w, texture_index);
/* ceiling texture */
if (get_string_token(fp, texture_name) != Token_string)
parse_error("texture name expected");
if (strcmp(texture_name, "sky") == 0)
r.ceiling_tex = NULL;
else {
texture_index = get_texture_index(texture_name);
if (texture_index < 0 || texture_index > TABLE_SIZE(w->textures))
parse_error("non-existent texture");
else
r.ceiling_tex = WORLD_TEXTURE(w, texture_index);
}
add_region(w, &r);
}
void update_wall_scale(World *w, int wall_num, fixed xscale, fixed yscale)
{
Wall *wall;
Texture *texture;
fixed wall_length;
if (wall_num < 0 || wall_num > TABLE_SIZE(w->walls))
fatal_error("invalid wall number");
wall = (Wall *) w->walls->table + wall_num;
texture = wall->surface_texture;
wall_length =
FLOAT_TO_FIXED(sqrt(FIXED_TO_FLOAT(wall->vertex2->x -
wall->vertex1->x) *
FIXED_TO_FLOAT(wall->vertex2->x -
wall->vertex1->x) +
FIXED_TO_FLOAT(wall->vertex2->y -
wall->vertex1->y) *
FIXED_TO_FLOAT(wall->vertex2->y -
wall->vertex1->y)));
wall->yscale = fixmul(yscale, INT_TO_FIXED(texture->height));
wall->xscale = fixmul(fixmul(xscale, INT_TO_FIXED(texture->width)),
wall_length);
}
void parse_texture(FILE *fp, World *w)
{
char texture_name[STRING_TOKEN_MAX_LENGTH];
char filename[STRING_TOKEN_MAX_LENGTH];
char texture_path[PATH_MAX + STRING_TOKEN_MAX_LENGTH];
Texture *t;
Texture_node *tn;
if (get_string_token(fp, texture_name) != Token_string)
parse_error("texture name expected");
if (strlen(texture_name) >= TEXTURE_NAME_MAX_LENGTH)
parse_error("texture name too long");
if (get_string_token(fp, filename) != Token_string)
parse_error("texture file name expected");
#ifdef WIN32
sprintf(texture_path, "%s%s/%s", szWTpath, TEXTURE_PATH, filename);
#else
sprintf(texture_path, "%s/%s", TEXTURE_PATH, filename);
#endif
t = read_texture_file(texture_path);
tn = wtmalloc(sizeof(Texture_node));
strcpy(tn->name, texture_name);
tn->index = TABLE_SIZE(w->textures);
add_node(texture_list, tn);
add_texture(w, t);
}
/*
* Wrapper functions for all standard and private IOCTL functions
*/
static int ath_iw_wrapper_handler(struct net_device *dev,
struct iw_request_info *info,
union iwreq_data *wrqu, char *extra)
{
struct ath_softc_net80211 *scn = ath_netdev_priv(dev);
int cmd_id;
iw_handler handler;
/* reject ioctls */
if ((!scn) ||
(scn && scn->sc_htc_delete_in_progress)){
printk("%s : #### delete is in progress, scn %p \n", __func__, scn);
return -EINVAL;
}
/* private ioctls */
if (info->cmd >= SIOCIWFIRSTPRIV) {
cmd_id = (info->cmd - SIOCIWFIRSTPRIV);
if (cmd_id < 0 || cmd_id >= TABLE_SIZE(ath_iw_priv_handlers)) {
printk("%s : #### wrong private ioctl 0x%x\n", __func__, info->cmd);
return -EINVAL;
}
handler = ath_iw_priv_handlers[cmd_id];
if (handler)
return handler(dev, info, wrqu, extra);
printk("%s : #### no registered private ioctl function for cmd 0x%x\n", __func__, info->cmd);
}
printk("%s : #### unknown command 0x%x\n", __func__, info->cmd);
return -EINVAL;
}
int getFormatIdByString(char* str)
{
int i;
for(i = 0; i < TABLE_SIZE(g_format); i++)
{
if(strncmp(str, g_format[i], 4) == 0)
{
return i;
}
}
return 0;
}
void
cmu_bdd_init_cache(cmu_bdd_manager bddm)
{
long i;
int j;
bddm->op_cache.size_index=13;
bddm->op_cache.size=TABLE_SIZE(bddm->op_cache.size_index);
bddm->op_cache.table=(cache_bin *)mem_get_block((SIZE_T)(bddm->op_cache.size*sizeof(cache_bin)));
for (i=0; i < bddm->op_cache.size; ++i)
for (j=0; j < 2; ++j)
bddm->op_cache.table[i].entry[j]=0;
/* ITE cache control functions. */
bddm->op_cache.rehash_fn[CACHE_TYPE_ITE]=bdd_rehash3;
bddm->op_cache.gc_fn[CACHE_TYPE_ITE]=cmu_bdd_ite_gc_fn;
bddm->op_cache.purge_fn[CACHE_TYPE_ITE]=0;
bddm->op_cache.return_fn[CACHE_TYPE_ITE]=RETURN_BDD_FN;
bddm->op_cache.flush_fn[CACHE_TYPE_ITE]=0;
/* Two argument op cache control functions. */
bddm->op_cache.rehash_fn[CACHE_TYPE_TWO]=bdd_rehash3;
bddm->op_cache.gc_fn[CACHE_TYPE_TWO]=bdd_two_gc_fn;
bddm->op_cache.purge_fn[CACHE_TYPE_TWO]=0;
bddm->op_cache.return_fn[CACHE_TYPE_TWO]=RETURN_BDD_FN;
bddm->op_cache.flush_fn[CACHE_TYPE_TWO]=bdd_two_flush_fn;
/* One argument op w/ data result cache control functions. */
bddm->op_cache.rehash_fn[CACHE_TYPE_ONEDATA]=bdd_rehash2;
bddm->op_cache.gc_fn[CACHE_TYPE_ONEDATA]=cmu_bdd_one_data_gc_fn;
bddm->op_cache.purge_fn[CACHE_TYPE_ONEDATA]=0;
bddm->op_cache.return_fn[CACHE_TYPE_ONEDATA]=0;
bddm->op_cache.flush_fn[CACHE_TYPE_ONEDATA]=0;
/* Two argument op w/ data result cache control functions. */
bddm->op_cache.rehash_fn[CACHE_TYPE_TWODATA]=bdd_rehash3;
bddm->op_cache.gc_fn[CACHE_TYPE_TWODATA]=bdd_two_data_gc_fn;
bddm->op_cache.purge_fn[CACHE_TYPE_TWODATA]=0;
bddm->op_cache.return_fn[CACHE_TYPE_TWODATA]=0;
bddm->op_cache.flush_fn[CACHE_TYPE_TWODATA]=0;
/* User-defined cache control functions. */
for (j=CACHE_TYPE_USER1; j < CACHE_TYPE_USER1+USER_ENTRY_TYPES; ++j)
{
bddm->op_cache.rehash_fn[j]=0;
bddm->op_cache.gc_fn[j]=0;
bddm->op_cache.purge_fn[j]=0;
bddm->op_cache.return_fn[j]=0;
bddm->op_cache.flush_fn[j]=0;
}
bddm->op_cache.cache_ratio=4;
bddm->op_cache.cache_level=0;
bddm->op_cache.entries=0;
bddm->op_cache.lookups=0;
bddm->op_cache.hits=0;
bddm->op_cache.inserts=0;
bddm->op_cache.collisions=0;
}
void update_wall_phase(World *w, int wall_num, fixed xphase, fixed yphase)
{
Wall *wall;
if (wall_num < 0 || wall_num > TABLE_SIZE(w->walls))
fatal_error("invalid wall number");
wall = (Wall *) w->walls->table + wall_num;
wall->xphase = xphase;
wall->yphase = yphase;
}
void ath_iw_attach(struct net_device *dev)
{
#ifdef ATH_SUPPORT_HTC
int index;
/* initialize handler array */
for(index = 0; index < TABLE_SIZE(ath_iw_priv_wrapper_handlers); index++) {
if(ath_iw_priv_handlers[index])
ath_iw_priv_wrapper_handlers[index] = ath_iw_wrapper_handler;
else
ath_iw_priv_wrapper_handlers[index] = NULL;
}
#endif
dev->wireless_handlers = &ath_iw_handler_def;
}
void
bdd_rehash_cache(cmu_bdd_manager bddm, int grow)
{
long i;
long hash;
int j;
long oldsize;
cache_bin *newtable;
cache_entry *bin;
cache_entry *newbin;
cache_entry p;
cache_entry q;
oldsize=bddm->op_cache.size;
if (grow)
bddm->op_cache.size_index++;
else
bddm->op_cache.size_index--;
bddm->op_cache.size=TABLE_SIZE(bddm->op_cache.size_index);
newtable=(cache_bin *)mem_get_block((SIZE_T)(bddm->op_cache.size*sizeof(struct cache_bin_)));
for (i=0; i < bddm->op_cache.size; ++i)
for (j=0; j < 2; ++j)
newtable[i].entry[j]=0;
/* Rehash LRU first. */
for (j=1; j >= 0; --j)
for (i=0; i < oldsize; ++i)
{
bin=bddm->op_cache.table[i].entry;
if ((p=bin[j]))
{
q=CACHE_POINTER(p);
hash=(*bddm->op_cache.rehash_fn[TAG(p)])(bddm, q);
BDD_REDUCE(hash, bddm->op_cache.size);
newbin=newtable[hash].entry;
bdd_purge_lru(bddm, newbin);
newbin[0]=p;
}
}
mem_free_block((pointer)(bddm->op_cache.table));
bddm->op_cache.table=newtable;
}
/* AUTELAN-Added-Begin : &tuqiang */
(iw_handler) ath_openessid_setblacklist, /* SIOCWFIRSTPRIV+6 */
(iw_handler) ath_openessid_distroyblacklist, /* SIOCWFIRSTPRIV+7 */
(iw_handler) ath_openessid_setwhitelist, /* SIOCWFIRSTPRIV+8 */
(iw_handler) ath_openessid_distroywhitelist, /* SIOCWFIRSTPRIV+9 */
/* AUTELAN-Added-End : [email protected] */
};
/*
** Wireless Handler Structure
** This table provides the Wireless tools the interface required to access
** parameters in the HAL. Each sub table contains the definition of various
** control tables that reference functions this module
*/
#ifdef ATH_SUPPORT_HTC
static iw_handler ath_iw_priv_wrapper_handlers[TABLE_SIZE(ath_iw_priv_handlers)];
static struct iw_handler_def ath_iw_handler_def = {
.standard = (iw_handler *) NULL,
.num_standard = 0,
.private = (iw_handler *) ath_iw_priv_wrapper_handlers,
.num_private = TABLE_SIZE(ath_iw_priv_wrapper_handlers),
.private_args = (struct iw_priv_args *) ath_iw_priv_args,
.num_private_args = TABLE_SIZE(ath_iw_priv_args),
.get_wireless_stats = NULL,
};
#else
static struct iw_handler_def ath_iw_handler_def = {
.standard = (iw_handler *) NULL,
.num_standard = 0,
.private = (iw_handler *) ath_iw_priv_handlers,
{ "stw", OP_IDO5, "01011rrrrrriiiii", 2, 0x5800, 2, 2, CHG_NONE, ALL},
{ "stw", OP_IDR, "01111rrrrrrrrrrr", 2, 0x7800, 2, 2, CHG_NONE, ALL},
{ "sub", OP_TRI, "00011rrrrrrrrr00", 2, 0x1800, 1, 1, CHG_NZVC, ALL},
{ "subh", OP_IMM8, "11001rrriiiiiiii", 2, 0xC800, 1, 1, CHG_NZVC, ALL},
{ "subl", OP_IMM8, "11000rrriiiiiiii", 2, 0xC000, 1, 1, CHG_NZVC, ALL},
{ "tfr", OP_MON_R_C, "00000rrr11111000", 2, 0x00F8, 1, 1, CHG_NONE, ALL},
{ "tfr", OP_MON_C_R, "00000rrr11111001", 2, 0x00F9, 1, 1, CHG_NONE, ALL},
{ "tfr", OP_MON_R_P, "00000rrr11111010", 2, 0x00FA, 1, 1, CHG_NONE, ALL},
{ "xnor", OP_TRI, "00010rrrrrrrrr11", 2, 0x1003, 1, 1, CHG_NZV, ALL},
{ "xnorh", OP_IMM8, "10111rrriiiiiiii", 2, 0xB800, 1, 1, CHG_NZV, ALL},
{ "xnorl", OP_IMM8, "10110rrriiiiiiii", 2, 0xB000, 1, 1, CHG_NZV, ALL},
/* macro and alias codes */
{ "add", OP_mADD, "----------------", 4, 0, 0, 0, CHG_NONE, ALL},
{ "and", OP_mAND, "----------------", 4, 0, 0, 0, CHG_NONE, ALL},
{ "bhs", OP_REL9, "0010000iiiiiiiii", 2, 0x2000, 0, 0, CHG_NONE, ALL},
{ "blo", OP_REL9, "0010001iiiiiiiii", 2, 0x2200, 0, 0, CHG_NONE, ALL},
{ "cmp", OP_mCPC, "----------------", 4, 0, 0, 0, CHG_NONE, ALL},
{ "cmp", OP_DYA, "00011sssrrrrrr00", 2, 0x1800, 0, 0, CHG_NZVC, ALL},
{ "com", OP_DM, "00010rrrsssrrr11", 2, 0x1003, 0, 0, CHG_NZVC, ALL},
{ "com", OP_DYA, "00010rrrsssrrr11", 2, 0x1003, 0, 0, CHG_NZV, ALL},
{ "cpc", OP_DYA, "00011sssrrrrrr01", 2, 0x1801, 0, 0, CHG_NZVC, ALL},
{ "ldd", OP_mLDW, "----------------", 4, 0, 0, 0, CHG_NONE, ALL},
{ "ldw", OP_mLDW, "----------------", 4, 0, 0, 0, CHG_NONE, ALL},
{ "mov", OP_DYA, "00010rrrsssrrr10", 2, 0x1002, 0, 0, CHG_NZVC, ALL},
{ "neg", OP_DYA, "00011rrrsssrrr00", 2, 0x1800, 0, 0, CHG_NZVC, ALL},
{ "sub", OP_mSUB, "----------------", 4, 0, 0, 0, CHG_NONE, ALL},
{ "tst", OP_MON, "00011sssrrrsss00", 2, 0x1800, 0, 0, CHG_NZV, ALL}
};
const int xgate_num_opcodes = TABLE_SIZE (xgate_opcodes);
{ "movwf", 0xfe0, 0x020, INSN_CLASS_OPF5 },
{ "nop", 0xfff, 0x000, INSN_CLASS_IMPLICIT },
{ "option", 0xfff, 0x002, INSN_CLASS_IMPLICIT },
{ "retlw", 0xf00, 0x800, INSN_CLASS_LIT8 },
{ "return", 0xfff, 0x800, INSN_CLASS_IMPLICIT }, /* FIXME: special mnemonic */
{ "rlf", 0xfc0, 0x340, INSN_CLASS_OPWF5 },
{ "rrf", 0xfc0, 0x300, INSN_CLASS_OPWF5 },
{ "sleep", 0xfff, 0x003, INSN_CLASS_IMPLICIT },
{ "subwf", 0xfc0, 0x080, INSN_CLASS_OPWF5 },
{ "swapf", 0xfc0, 0x380, INSN_CLASS_OPWF5 },
{ "tris", 0xff8, 0x000, INSN_CLASS_OPF5 },
{ "xorlw", 0xf00, 0xf00, INSN_CLASS_LIT8 },
{ "xorwf", 0xfc0, 0x180, INSN_CLASS_OPWF5 }
};
const int num_op_12c5xx = TABLE_SIZE(op_12c5xx);
/* Scenix SX has a superset of the PIC 12-bit instruction set */
/*
* It would be nice if there was a more elegant way to do this,
* either by adding a flags field to struct insn, or by allowing a
* processor to have more than one associated table.
*/
const struct insn op_sx[] = {
{ "addwf", 0xfc0, 0x1c0, INSN_CLASS_OPWF5 },
{ "andlw", 0xf00, 0xe00, INSN_CLASS_LIT8 },
{ "andwf", 0xfc0, 0x140, INSN_CLASS_OPWF5 },
{ "bank", 0xff8, 0x018, INSN_CLASS_LIT3_BANK }, /* SX only */
{ "bcf", 0xf00, 0x400, INSN_CLASS_B5 },
{ "bsf", 0xf00, 0x500, INSN_CLASS_B5 },
{ "btfsc", 0xf00, 0x600, INSN_CLASS_B5 },
{ "b", 0, (long int)do_b, INSN_CLASS_FUNC, 0 },
{ "bc", 0, (long int)do_bc, INSN_CLASS_FUNC, 0 },
{ "bdc", 0, (long int)do_bdc, INSN_CLASS_FUNC, 0 },
{ "bz", 0, (long int)do_bz, INSN_CLASS_FUNC, 0 },
{ "bnc", 0, (long int)do_bnc, INSN_CLASS_FUNC, 0 },
{ "bndc", 0, (long int)do_bndc, INSN_CLASS_FUNC, 0 },
{ "bnz", 0, (long int)do_bnz, INSN_CLASS_FUNC, 0 },
{ "clrc", 0, (long int)do_clrc, INSN_CLASS_FUNC, 0 },
{ "clrdc", 0, (long int)do_clrdc, INSN_CLASS_FUNC, 0 },
{ "clrz", 0, (long int)do_clrz, INSN_CLASS_FUNC, 0 },
{ "lcall", 0, (long int)do_lcall, INSN_CLASS_FUNC, 0 },
{ "lgoto", 0, (long int)do_lgoto, INSN_CLASS_FUNC, 0 },
{ "movfw", 0, (long int)do_movfw, INSN_CLASS_FUNC, 0 },
{ "negf", 0, (long int)do_negf, INSN_CLASS_FUNC, 0 },
{ "setc", 0, (long int)do_setc, INSN_CLASS_FUNC, 0 },
{ "setdc", 0, (long int)do_setdc, INSN_CLASS_FUNC, 0 },
{ "setz", 0, (long int)do_setz, INSN_CLASS_FUNC, 0 },
{ "skpc", 0, (long int)do_skpc, INSN_CLASS_FUNC, 0 },
{ "skpdc", 0, (long int)do_skpdc, INSN_CLASS_FUNC, 0 },
{ "skpz", 0, (long int)do_skpz, INSN_CLASS_FUNC, 0 },
{ "skpnc", 0, (long int)do_skpnc, INSN_CLASS_FUNC, 0 },
{ "skpndc", 0, (long int)do_skpndc, INSN_CLASS_FUNC, 0 },
{ "skpnz", 0, (long int)do_skpnz, INSN_CLASS_FUNC, 0 },
{ "subcf", 0, (long int)do_subcf, INSN_CLASS_FUNC, 0 },
{ "subdcf", 0, (long int)do_subdcf, INSN_CLASS_FUNC, 0 },
{ "tstf", 0, (long int)do_tstf, INSN_CLASS_FUNC, 0 }
};
const int num_op_special = TABLE_SIZE(special);
// Req. scancode, Capture scancode, Req. keycode, Capture keycode
#ifndef KEYROUTER_TEST
// On devices with a combined Power and End key, that key produces a
// PowerOff code. Map capture requests for the End key to PowerOff.
// At routing time, an End key event will automatically be delivered
// to the capturing application.
{ EStdKeyPhoneEnd, EStdKeyPowerOff, EKeyPhoneEnd, EKeyPowerOff }
#else
// Entry for TEvent test case GRAPHICS-WSERV-0751.
// Capture requests for psuedo key Device0 are mapped to capture
// the real key Device1.
{ EStdKeyDevice0, EStdKeyDevice1, EKeyDevice0, EKeyDevice1 }
#endif
};
const TInt KNumTranslations = TABLE_SIZE(KTranslations);
#endif // defined(KEYROUTER_TEST) || defined(COMBINED_POWER_END_KEY)
/**
Restricted Key Table
The following keys may be captured only by the specified applications.
More than one application may be listed for a given key-type combination.
*/
const TRestrictedKeyEntry KRestrictedKeys[] =
{
#ifndef KEYROUTER_TEST
// Short Apps key events may only be captured by HomeScreen, SysApp,
// AutoLock, Phone and AknCapServer.
{ EStdKeyApplication, ECaptureTypeKeyUpDown, KUidHomeScreen },
{ EKeyApplication, ECaptureTypeKey, KUidHomeScreen },
void parse_wall(FILE *fp, World *w)
{
Wall wall;
char texture_name[STRING_TOKEN_MAX_LENGTH];
int texture_index;
int front_region, back_region;
int vertex1, vertex2;
fixed wall_length;
/* vertices */
if (get_integer_token(fp, &vertex1) != Token_integer)
parse_error("integer expected");
if (get_integer_token(fp, &vertex2) != Token_integer)
parse_error("integer expected");
if (vertex1 < 0 || vertex1 > TABLE_SIZE(w->vertices))
parse_error("invalid vertex number");
if (vertex2 < 0 || vertex2 > TABLE_SIZE(w->vertices))
parse_error("invalid vertex number");
wall.vertex1 = &WORLD_VERTEX(w, vertex1);
wall.vertex2 = &WORLD_VERTEX(w, vertex2);
/* texture */
if (get_string_token(fp, texture_name) != Token_string)
parse_error("texture name expected");
texture_index = get_texture_index(texture_name);
if (texture_index < 0 || texture_index > TABLE_SIZE(w->textures))
parse_error("non-existent texture");
else
wall.surface_texture = WORLD_TEXTURE(w, texture_index);
if (strcmp(texture_name, "sky") == 0)
wall.sky = True;
else
wall.sky = False;
/* front and back regions */
if (get_integer_token(fp, &front_region) != Token_integer)
fatal_error("non-existent region");
if (get_integer_token(fp, &back_region) != Token_integer)
fatal_error("non-existent region");
if (front_region < 0 || front_region > TABLE_SIZE(w->regions))
fatal_error("non-existent region");
if (back_region < 0 || back_region > TABLE_SIZE(w->regions))
fatal_error("non-existent region");
wall.front = &WORLD_REGION(w, front_region);
wall.back = &WORLD_REGION(w, back_region);
/* Texture phase and scale. This code is somewhat more complicated than
** you'd expect, since the texture scale must be normalized to the
** wall length.
*/
if (get_real_token(fp, &wall.xscale) != Token_real)
parse_error("number expected");
if (get_real_token(fp, &wall.yscale) != Token_real)
parse_error("number expected");
if (get_real_token(fp, &wall.xphase) != Token_real)
parse_error("number expected");
if (get_real_token(fp, &wall.yphase) != Token_real)
parse_error("number expected");
wall_length =
FLOAT_TO_FIXED(sqrt(FIXED_TO_FLOAT(wall.vertex2->x -
wall.vertex1->x) *
FIXED_TO_FLOAT(wall.vertex2->x -
wall.vertex1->x) +
FIXED_TO_FLOAT(wall.vertex2->y -
wall.vertex1->y) *
FIXED_TO_FLOAT(wall.vertex2->y -
wall.vertex1->y)));
wall.yscale = fixmul(wall.yscale,
INT_TO_FIXED(wall.surface_texture->height));
wall.xscale = fixmul(fixmul(wall.xscale,
INT_TO_FIXED(wall.surface_texture->width)),
wall_length);
add_wall(w, &wall);
}
{ "movwf", 0xfe0, 0x020, INSN_CLASS_OPF5 },
{ "nop", 0xfff, 0x000, INSN_CLASS_IMPLICIT },
{ "option", 0xfff, 0x002, INSN_CLASS_IMPLICIT },
{ "retlw", 0xf00, 0x800, INSN_CLASS_LIT8 },
{ "return", 0xfff, 0x800, INSN_CLASS_IMPLICIT }, /* FIXME: special mnemonic */
{ "rlf", 0xfc0, 0x340, INSN_CLASS_OPWF5 },
{ "rrf", 0xfc0, 0x300, INSN_CLASS_OPWF5 },
{ "sleep", 0xfff, 0x003, INSN_CLASS_IMPLICIT },
{ "subwf", 0xfc0, 0x080, INSN_CLASS_OPWF5 },
{ "swapf", 0xfc0, 0x380, INSN_CLASS_OPWF5 },
{ "tris", 0xff8, 0x000, INSN_CLASS_OPF5 },
{ "xorlw", 0xf00, 0xf00, INSN_CLASS_LIT8 },
{ "xorwf", 0xfc0, 0x180, INSN_CLASS_OPWF5 }
};
const int num_op_12c5xx = TABLE_SIZE(op_12c5xx);
/* Scenix SX has a superset of the PIC 12-bit instruction set */
/*
* It would be nice if there was a more elegant way to do this,
* either by adding a flags field to struct insn, or by allowing a
* processor to have more than one associated table.
*/
struct insn op_sx[] = {
{ "addwf", 0xfc0, 0x1c0, INSN_CLASS_OPWF5 },
{ "andlw", 0xf00, 0xe00, INSN_CLASS_LIT8 },
{ "andwf", 0xfc0, 0x140, INSN_CLASS_OPWF5 },
{ "bank", 0xff8, 0x018, INSN_CLASS_LIT3_BANK }, /* SX only */
{ "bcf", 0xf00, 0x400, INSN_CLASS_B5 },
{ "bsf", 0xf00, 0x500, INSN_CLASS_B5 },
{ "btfsc", 0xf00, 0x600, INSN_CLASS_B5 },
PE_UNINITIALIZED, "PE has not been initialized yet"
},
{
PE_UNKNOWN, "I have no information about PE"
},
{
PE_RUNNING, "PE is running"
},
{
PE_SHUTDOWN, "PE has been cleanly shut down"
},
{
PE_FAILED, "PE has failed"
},
};
static const int nd = TABLE_SIZE (d);
/**
* translate PE status to human description
*/
const
char *
__shmem_state_as_string (pe_status_t s)
{
struct state_desc *dp = d;
int i;
for (i = 0; i < nd; i += 1)
{
if (s == dp->s)
int
checkwalls( World *w, View *v )
{
extern fixed view_height;
Wall *wall = (Wall *) w->walls->table, *mem_wall;
double x1, y1, tmp, min = 512.0;
int i;
x1 = FIXED_TO_FLOAT(v->x);
y1 = FIXED_TO_FLOAT(v->y);
if ( x1 == x && y1 == y )
return DONT_INTERSECT;
for (i = 0; i < TABLE_SIZE(w->walls); i++, wall++ ) {
/* Check Distance */
tmp = LineDistance( x1, y1,
FIXED_TO_FLOAT(wall->vertex1->x ),
FIXED_TO_FLOAT(wall->vertex1->y ),
FIXED_TO_FLOAT(wall->vertex2->x ),
FIXED_TO_FLOAT(wall->vertex2->y ) );
if ( fabs(tmp) < fabs( min ) )
{
min = tmp;
mem_wall = wall;
}
}
/* is there any point in checking further. */
if ( fabs( min ) < VECTOR_LEN )
{
/* start examine the wall */
fixed ceiling, floor;
/* Check the outher side of the object */
if ( min > 0.0 )
{
floor = mem_wall->front->floor;
ceiling = mem_wall->front->ceiling;
}
else
{
floor = mem_wall->back->floor;
ceiling = mem_wall->back->ceiling;
}
/* if the stair is less than FIXED_ONE_QUARTER and the
head has goes free and there are enought room. */
if ( FIXED_ONE_QUARTER >= (floor-v->height) && ( ceiling > v->height ) &&
( MAN_SIZE <= (ceiling-floor) ) ) {
if ( s_wall != mem_wall || ( min > 0.0 && side <= 0.0 ) ||
(min <= 0.0 && side > 0.0 ) )
{
if ( min < 0.0 )
view_height = mem_wall->front->floor+MAN_SIZE;
else
view_height = mem_wall->back->floor+MAN_SIZE;
s_wall = mem_wall;
}
}
else
/* am i running towards the wall? */
if ( fabs( min ) < fabs( side ) )
{
s_wall = mem_wall;
slide_wall( &x, &y, x1, y1, side, min );
v->x = FLOAT_TO_FIXED( x );
v->y = FLOAT_TO_FIXED( y );
return 0;
}
}
side = min;
x = x1;
y = y1;
return 0;
}