void writeSoundTargets()
{
#if !__JHEXEN__
if (!IS_SERVER) return; // Not for us.
// Write the total number.
int count = 0;
for (int i = 0; i < numsectors; ++i)
{
xsector_t *xsec = P_ToXSector((Sector *)P_ToPtr(DMU_SECTOR, i));
if (xsec->soundTarget)
{
count += 1;
}
}
// beginSegment();
Writer_WriteInt32(writer, count);
// Write the mobj references using the mobj archive.
for (int i = 0; i < numsectors; ++i)
{
xsector_t *xsec = P_ToXSector((Sector *)P_ToPtr(DMU_SECTOR, i));
if (xsec->soundTarget)
{
Writer_WriteInt32(writer, i);
Writer_WriteInt16(writer, thingArchive->serialIdFor(xsec->soundTarget));
}
}
// endSegment();
#endif
}
int waggle_s::read(MapStateReader *msr)
{
Reader1 *reader = msr->reader();
int mapVersion = msr->mapVersion();
if(mapVersion >= 4)
{
/*int ver =*/ Reader_ReadByte(reader); // version byte.
// Start of used data members.
sector = (Sector *)P_ToPtr(DMU_SECTOR, (int) Reader_ReadInt32(reader));
DENG_ASSERT(sector != 0);
originalHeight = FIX2FLT((fixed_t) Reader_ReadInt32(reader));
accumulator = FIX2FLT((fixed_t) Reader_ReadInt32(reader));
accDelta = FIX2FLT((fixed_t) Reader_ReadInt32(reader));
targetScale = FIX2FLT((fixed_t) Reader_ReadInt32(reader));
scale = FIX2FLT((fixed_t) Reader_ReadInt32(reader));
scaleDelta = FIX2FLT((fixed_t) Reader_ReadInt32(reader));
ticker = Reader_ReadInt32(reader);
state = wagglestate_e(Reader_ReadInt32(reader));
}
else
{
// Its in the old pre V4 format which serialized waggle_t
// Padding at the start (an old thinker_t struct)
byte junk[16]; // sizeof thinker_t
Reader_Read(reader, junk, 16);
// Start of used data members.
// A 32bit pointer to sector, serialized.
sector = (Sector *)P_ToPtr(DMU_SECTOR, (int) Reader_ReadInt32(reader));
DENG_ASSERT(sector != 0);
originalHeight = FIX2FLT((fixed_t) Reader_ReadInt32(reader));
accumulator = FIX2FLT((fixed_t) Reader_ReadInt32(reader));
accDelta = FIX2FLT((fixed_t) Reader_ReadInt32(reader));
targetScale = FIX2FLT((fixed_t) Reader_ReadInt32(reader));
scale = FIX2FLT((fixed_t) Reader_ReadInt32(reader));
scaleDelta = FIX2FLT((fixed_t) Reader_ReadInt32(reader));
ticker = Reader_ReadInt32(reader);
state = wagglestate_e(Reader_ReadInt32(reader));
}
thinker.function = (thinkfunc_t) T_FloorWaggle;
P_ToXSector(sector)->specialData = this;
return true; // Add this thinker.
}
void P_BuildLineTagLists(void)
{
int i;
P_DestroyLineTagLists();
for(i = 0; i < numlines; ++i)
{
Line* line = P_ToPtr(DMU_LINE, i);
xline_t* xline = P_ToXLine(line);
#if !__JHEXEN__
if(xline->tag)
{
iterlist_t* list = P_GetLineIterListForTag(xline->tag, true);
IterList_PushBack(list, line);
}
#else
switch(xline->special)
{
default: break;
case 121: ///< Line_SetIdentification.
if(xline->arg1)
{
iterlist_t* list = P_GetLineIterListForTag((int) xline->arg1, true);
IterList_PushBack(list, line);
}
xline->special = 0;
break;
}
#endif
}
}
static int SV_ReadStrobe(strobe_t *strobe)
{
/* Original Heretic format:
typedef struct {
thinker_t thinker; // was 12 bytes
Sector *sector;
int count;
int minLight;
int maxLight;
int darkTime;
int brightTime;
} v13_strobe_t;
*/
// Padding at the start (an old thinker_t struct)
Reader_Read(svReader, NULL, SIZEOF_V13_THINKER_T);
// Start of used data members.
// A 32bit pointer to sector, serialized.
strobe->sector = P_ToPtr(DMU_SECTOR, Reader_ReadInt32(svReader));
if(!strobe->sector)
Con_Error("tc_strobe: bad sector number\n");
strobe->count = Reader_ReadInt32(svReader);
strobe->minLight = (float) Reader_ReadInt32(svReader) / 255.0f;
strobe->maxLight = (float) Reader_ReadInt32(svReader) / 255.0f;
strobe->darkTime = Reader_ReadInt32(svReader);
strobe->brightTime = Reader_ReadInt32(svReader);
strobe->thinker.function = (thinkfunc_t) T_StrobeFlash;
return true; // Add this thinker.
}
static int SV_ReadGlow(glow_t *glow)
{
/* Original Heretic format:
typedef struct {
thinker_t thinker; // was 12 bytes
Sector *sector;
int minLight;
int maxLight;
int direction;
} v13_glow_t;
*/
// Padding at the start (an old thinker_t struct)
Reader_Read(svReader, NULL, SIZEOF_V13_THINKER_T);
// Start of used data members.
// A 32bit pointer to sector, serialized.
glow->sector = P_ToPtr(DMU_SECTOR, Reader_ReadInt32(svReader));
if(!glow->sector)
Con_Error("tc_glow: bad sector number\n");
glow->minLight = (float) Reader_ReadInt32(svReader) / 255.0f;
glow->maxLight = (float) Reader_ReadInt32(svReader) / 255.0f;
glow->direction = Reader_ReadInt32(svReader);
glow->thinker.function = (thinkfunc_t) T_Glow;
return true; // Add this thinker.
}
void writeElements()
{
beginSegment(ASEG_MAP_ELEMENTS);
for (int i = 0; i < numsectors; ++i)
{
SV_WriteSector((Sector *)P_ToPtr(DMU_SECTOR, i), thisPublic);
}
for (int i = 0; i < numlines; ++i)
{
SV_WriteLine((Line *)P_ToPtr(DMU_LINE, i), thisPublic);
}
// endSegment();
}
int pillar_s::read(MapStateReader *msr)
{
Reader1 *reader = msr->reader();
int mapVersion = msr->mapVersion();
if(mapVersion >= 4)
{
// Note: the thinker class byte has already been read.
/*int ver =*/ Reader_ReadByte(reader); // version byte.
// Start of used data members.
sector = (Sector *)P_ToPtr(DMU_SECTOR, (int) Reader_ReadInt32(reader));
DENG_ASSERT(sector != 0);
ceilingSpeed = FIX2FLT((fixed_t) Reader_ReadInt32(reader));
floorSpeed = FIX2FLT((fixed_t) Reader_ReadInt32(reader));
floorDest = FIX2FLT((fixed_t) Reader_ReadInt32(reader));
ceilingDest = FIX2FLT((fixed_t) Reader_ReadInt32(reader));
direction = Reader_ReadInt32(reader);
crush = Reader_ReadInt32(reader);
}
else
{
// Its in the old pre V4 format which serialized pillar_t
// Padding at the start (an old thinker_t struct)
byte junk[16]; // sizeof thinker_t
Reader_Read(reader, junk, 16);
// Start of used data members.
// A 32bit pointer to sector, serialized.
sector = (Sector *)P_ToPtr(DMU_SECTOR, (int) Reader_ReadInt32(reader));
DENG_ASSERT(sector != 0);
ceilingSpeed = FIX2FLT((fixed_t) Reader_ReadInt32(reader));
floorSpeed = FIX2FLT((fixed_t) Reader_ReadInt32(reader));
floorDest = FIX2FLT((fixed_t) Reader_ReadInt32(reader));
ceilingDest = FIX2FLT((fixed_t) Reader_ReadInt32(reader));
direction = Reader_ReadInt32(reader);
crush = Reader_ReadInt32(reader);
}
thinker.function = (thinkfunc_t) T_BuildPillar;
P_ToXSector(sector)->specialData = this;
return true; // Add this thinker.
}
int light_s::read(MapStateReader *msr)
{
Reader1 *reader = msr->reader();
int mapVersion = msr->mapVersion();
if(mapVersion >= 4)
{
/*int ver =*/ Reader_ReadByte(reader); // version byte.
type = (lighttype_t) Reader_ReadByte(reader);
sector = (Sector *)P_ToPtr(DMU_SECTOR, Reader_ReadInt32(reader));
DENG_ASSERT(sector != 0);
value1 = (float) Reader_ReadInt32(reader) / 255.0f;
value2 = (float) Reader_ReadInt32(reader) / 255.0f;
tics1 = Reader_ReadInt32(reader);
tics2 = Reader_ReadInt32(reader);
count = Reader_ReadInt32(reader);
}
else
{
// Its in the old pre V4 format which serialized light_t
// Padding at the start (an old thinker_t struct)
byte junk[16]; // sizeof thinker_t
Reader_Read(reader, junk, 16);
// Start of used data members.
// A 32bit pointer to sector, serialized.
sector = (Sector *)P_ToPtr(DMU_SECTOR, (int) Reader_ReadInt32(reader));
DENG_ASSERT(sector != 0);
type = lighttype_t(Reader_ReadInt32(reader));
value1 = (float) Reader_ReadInt32(reader) / 255.0f;
value2 = (float) Reader_ReadInt32(reader) / 255.0f;
tics1 = Reader_ReadInt32(reader);
tics2 = Reader_ReadInt32(reader);
count = Reader_ReadInt32(reader);
}
thinker.function = (thinkfunc_t) T_Light;
return true; // Add this thinker.
}
void IN_DrawStatBack(void)
{
DGL_SetMaterialUI(P_ToPtr(DMU_MATERIAL, Materials_ResolveUriCString("Flats:FLOOR16")), DGL_REPEAT, DGL_REPEAT);
DGL_Enable(DGL_TEXTURE_2D);
DGL_Color4f(1, 1, 1, 1);
DGL_DrawRectf2Tiled(0, 0, SCREENWIDTH, SCREENHEIGHT, 64, 64);
DGL_Disable(DGL_TEXTURE_2D);
}
int lightflash_s::read(MapStateReader *msr)
{
Reader1 *reader = msr->reader();
int mapVersion = msr->mapVersion();
if(mapVersion >= 5)
{
// Note: the thinker class byte has already been read.
/*int ver =*/ Reader_ReadByte(reader); // version byte.
// Start of used data members.
sector = (Sector *)P_ToPtr(DMU_SECTOR, (int) Reader_ReadInt32(reader));
DENG_ASSERT(sector != 0);
count = Reader_ReadInt32(reader);
maxLight = (float) Reader_ReadInt32(reader) / 255.0f;
minLight = (float) Reader_ReadInt32(reader) / 255.0f;
maxTime = Reader_ReadInt32(reader);
minTime = Reader_ReadInt32(reader);
}
else
{
// Its in the old pre V5 format which serialized lightflash_t
// Padding at the start (an old thinker_t struct)
byte junk[16]; // sizeof thinker_t
Reader_Read(reader, junk, 16);
// Start of used data members.
// A 32bit pointer to sector, serialized.
sector = (Sector *)P_ToPtr(DMU_SECTOR, (int) Reader_ReadInt32(reader));
DENG_ASSERT(sector != 0);
count = Reader_ReadInt32(reader);
maxLight = (float) Reader_ReadInt32(reader) / 255.0f;
minLight = (float) Reader_ReadInt32(reader) / 255.0f;
maxTime = Reader_ReadInt32(reader);
minTime = Reader_ReadInt32(reader);
}
thinker.function = (thinkfunc_t) T_LightFlash;
return true; // Add this thinker.
}
void P_InitTerrainTypes(void)
{
struct matttypedef_s {
const char* materialUri; ///< Percent encoded.
const char* ttName;
} defs[] = {
#if __JDOOM__ || __JDOOM64__
{ "Flats:FWATER1", "Water" },
{ "Flats:LAVA1", "Lava" },
{ "Flats:BLOOD1", "Blood" },
{ "Flats:NUKAGE1", "Nukage" },
{ "Flats:SLIME01", "Slime" },
#endif
#if __JHERETIC__
{ "Flats:FLTWAWA1", "Water" },
{ "Flats:FLTFLWW1", "Water" },
{ "Flats:FLTLAVA1", "Lava" },
{ "Flats:FLATHUH1", "Lava" },
{ "Flats:FLTSLUD1", "Sludge" },
#endif
#if __JHEXEN__
{ "Flats:X_005", "Water" },
{ "Flats:X_001", "Lava" },
{ "Flats:X_009", "Sludge" },
{ "Flats:F_033", "Ice" },
#endif
{ 0, 0 }
};
uint i;
if(materialTTypes)
Z_Free(materialTTypes);
materialTTypes = 0;
numMaterialTTypes = maxMaterialTTypes = 0;
for(i = 0; defs[i].materialUri; ++i)
{
Material* mat;
uint idx = findTerrainTypeNumForName(defs[i].ttName);
if(!idx) continue;
mat = P_ToPtr(DMU_MATERIAL, Materials_ResolveUriCString(defs[i].materialUri));
if(!mat) continue;
App_Log(DE2_DEV_RES_VERBOSE, "P_InitTerrainTypes: Material \"%s\" linked to terrain type '%s'",
defs[i].materialUri, defs[i].ttName);
getMaterialTerrainType(mat, idx);
}
}
void P_BuildSectorTagLists()
{
P_DestroySectorTagLists();
for(int i = 0; i < numsectors; ++i)
{
Sector *sec = (Sector *)P_ToPtr(DMU_SECTOR, i);
xsector_t *xsec = P_ToXSector(sec);
if(xsec->tag)
{
iterlist_t *list = P_GetSectorIterListForTag(xsec->tag, true);
IterList_PushBack(list, sec);
}
}
}
static int SV_ReadPlat(plat_t *plat)
{
/* Original Heretic format:
typedef struct {
thinker_t thinker; // was 12 bytes
Sector *sector;
fixed_t speed;
fixed_t low;
fixed_t high;
int wait;
int count;
platstate_e status; // was 32bit int
platstate_e oldStatus; // was 32bit int
boolean crush;
int tag;
plattype_e type; // was 32bit int
} v13_plat_t;
*/
byte temp[SIZEOF_V13_THINKER_T];
// Padding at the start (an old thinker_t struct)
Reader_Read(svReader, &temp, SIZEOF_V13_THINKER_T);
// Start of used data members.
// A 32bit pointer to sector, serialized.
plat->sector = P_ToPtr(DMU_SECTOR, Reader_ReadInt32(svReader));
if(!plat->sector)
Con_Error("tc_plat: bad sector number\n");
plat->speed = FIX2FLT(Reader_ReadInt32(svReader));
plat->low = FIX2FLT(Reader_ReadInt32(svReader));
plat->high = FIX2FLT(Reader_ReadInt32(svReader));
plat->wait = Reader_ReadInt32(svReader);
plat->count = Reader_ReadInt32(svReader);
plat->state = Reader_ReadInt32(svReader);
plat->oldState = Reader_ReadInt32(svReader);
plat->crush = Reader_ReadInt32(svReader);
plat->tag = Reader_ReadInt32(svReader);
plat->type = Reader_ReadInt32(svReader);
plat->thinker.function = T_PlatRaise;
if(!(temp + V13_THINKER_T_FUNC_OFFSET))
Thinker_SetStasis(&plat->thinker, true);
P_ToXSector(plat->sector)->specialData = T_PlatRaise;
return true; // Add this thinker.
}
/**
* T_FireFlicker was added to save games in ver5, therefore we don't have
* an old format to support.
*/
int fireflicker_s::read(MapStateReader *msr)
{
Reader1 *reader = msr->reader();
/*int ver =*/ Reader_ReadByte(reader); // version byte.
// Note: the thinker class byte has already been read.
sector = (Sector*)P_ToPtr(DMU_SECTOR, (int) Reader_ReadInt32(reader));
DENG_ASSERT(sector != 0);
maxLight = (float) Reader_ReadInt32(reader) / 255.0f;
minLight = (float) Reader_ReadInt32(reader) / 255.0f;
thinker.function = (thinkfunc_t) T_FireFlicker;
return true; // Add this thinker.
}
static int SV_ReadFloor(floor_t *floor)
{
/* Original Heretic format:
typedef struct {
thinker_t thinker; // was 12 bytes
floortype_e type; // was 32bit int
boolean crush;
Sector *sector;
int direction;
int newspecial;
short texture;
fixed_t floordestheight;
fixed_t speed;
} v13_floormove_t;
*/
Uri *newTextureUrn;
// Padding at the start (an old thinker_t struct)
Reader_Read(svReader, NULL, SIZEOF_V13_THINKER_T);
// Start of used data members.
floor->type = Reader_ReadInt32(svReader);
floor->crush = Reader_ReadInt32(svReader);
// A 32bit pointer to sector, serialized.
floor->sector = P_ToPtr(DMU_SECTOR, Reader_ReadInt32(svReader));
if(!floor->sector)
Con_Error("tc_floor: bad sector number\n");
floor->state = (int) Reader_ReadInt32(svReader);
floor->newSpecial = Reader_ReadInt32(svReader);
newTextureUrn = readTextureUrn(svReader, "Flats");
floor->material = DD_MaterialForTextureUri(newTextureUrn);
Uri_Delete(newTextureUrn);
floor->floorDestHeight = FIX2FLT(Reader_ReadInt32(svReader));
floor->speed = FIX2FLT(Reader_ReadInt32(svReader));
floor->thinker.function = T_MoveFloor;
P_ToXSector(floor->sector)->specialData = T_MoveFloor;
return true; // Add this thinker.
}
static int SV_ReadCeiling(ceiling_t *ceiling)
{
/* Original Heretic format:
typedef struct {
thinker_t thinker; ///< 12 bytes
ceilingtype_e type; ///< 32bit int
Sector* sector;
fixed_t bottomheight, topheight;
fixed_t speed;
boolean crush;
int direction; /// 1= up, 0= waiting, -1= down
int tag'
int olddirection;
} v13_ceiling_t;
*/
byte temp[SIZEOF_V13_THINKER_T];
// Padding at the start (an old thinker_t struct)
Reader_Read(svReader, &temp, SIZEOF_V13_THINKER_T);
// Start of used data members.
ceiling->type = Reader_ReadInt32(svReader);
// A 32bit pointer to sector, serialized.
ceiling->sector = P_ToPtr(DMU_SECTOR, Reader_ReadInt32(svReader));
if(!ceiling->sector)
Con_Error("tc_ceiling: bad sector number\n");
ceiling->bottomHeight = FIX2FLT(Reader_ReadInt32(svReader));
ceiling->topHeight = FIX2FLT(Reader_ReadInt32(svReader));
ceiling->speed = FIX2FLT(Reader_ReadInt32(svReader));
ceiling->crush = Reader_ReadInt32(svReader);
ceiling->state = (Reader_ReadInt32(svReader) == -1? CS_DOWN : CS_UP);
ceiling->tag = Reader_ReadInt32(svReader);
ceiling->oldState = (Reader_ReadInt32(svReader) == -1? CS_DOWN : CS_UP);
ceiling->thinker.function = T_MoveCeiling;
if(!(temp + V13_THINKER_T_FUNC_OFFSET))
Thinker_SetStasis(&ceiling->thinker, true);
P_ToXSector(ceiling->sector)->specialData = T_MoveCeiling;
return true; // Add this thinker.
}
static int SV_ReadDoor(door_t *door)
{
/* Original Heretic format:
typedef struct {
thinker_t thinker; // was 12 bytes
doortype_e type; // was 32bit int
Sector *sector;
fixed_t topheight;
fixed_t speed;
int direction; // 1 = up, 0 = waiting at top, -1 = down
int topwait; // tics to wait at the top
// (keep in case a door going down is reset)
int topcountdown; // when it reaches 0, start going down
} v13_vldoor_t;
*/
// Padding at the start (an old thinker_t struct)
Reader_Read(svReader, NULL, SIZEOF_V13_THINKER_T);
// Start of used data members.
door->type = Reader_ReadInt32(svReader);
// A 32bit pointer to sector, serialized.
door->sector = P_ToPtr(DMU_SECTOR, Reader_ReadInt32(svReader));
if(!door->sector)
Con_Error("tc_door: bad sector number\n");
door->topHeight = FIX2FLT(Reader_ReadInt32(svReader));
door->speed = FIX2FLT(Reader_ReadInt32(svReader));
door->state = Reader_ReadInt32(svReader);
door->topWait = Reader_ReadInt32(svReader);
door->topCountDown = Reader_ReadInt32(svReader);
door->thinker.function = T_Door;
P_ToXSector(door->sector)->specialData = T_Door;
return true; // Add this thinker.
}
int plat_t::read(MapStateReader *msr)
{
Reader *reader = msr->reader();
int mapVersion = msr->mapVersion();
#if __JHEXEN__
if(mapVersion >= 4)
#else
if(mapVersion >= 5)
#endif
{ // Note: the thinker class byte has already been read.
/*int ver =*/ Reader_ReadByte(reader); // version byte.
thinker.function = T_PlatRaise;
#if !__JHEXEN__
// Should we put this into stasis?
if(mapVersion == 5)
{
if(!Reader_ReadByte(reader))
Thinker_SetStasis(&thinker, true);
}
#endif
type = plattype_e(Reader_ReadByte(reader));
sector = (Sector *)P_ToPtr(DMU_SECTOR, Reader_ReadInt32(reader));
DENG_ASSERT(sector != 0);
speed = FIX2FLT(Reader_ReadInt32(reader));
low = (float) Reader_ReadInt16(reader);
high = (float) Reader_ReadInt16(reader);
wait = Reader_ReadInt32(reader);
count = Reader_ReadInt32(reader);
state = platstate_e(Reader_ReadByte(reader));
oldState = platstate_e(Reader_ReadByte(reader));
crush = (dd_bool) Reader_ReadByte(reader);
tag = Reader_ReadInt32(reader);
}
else
{
// Its in the old format which serialized plat_t
// Padding at the start (an old thinker_t struct)
int32_t junk[4]; // sizeof thinker_t
Reader_Read(reader, (byte *)junk, 16);
// Start of used data members.
// A 32bit pointer to sector, serialized.
sector = (Sector *)P_ToPtr(DMU_SECTOR, (int) Reader_ReadInt32(reader));
DENG_ASSERT(sector != 0);
speed = FIX2FLT((fixed_t) Reader_ReadInt32(reader));
low = FIX2FLT((fixed_t) Reader_ReadInt32(reader));
high = FIX2FLT((fixed_t) Reader_ReadInt32(reader));
wait = Reader_ReadInt32(reader);
count = Reader_ReadInt32(reader);
state = platstate_e(Reader_ReadInt32(reader));
oldState = platstate_e(Reader_ReadInt32(reader));
crush = Reader_ReadInt32(reader);
tag = Reader_ReadInt32(reader);
type = plattype_e(Reader_ReadInt32(reader));
thinker.function = T_PlatRaise;
#if !__JHEXEN__
if(junk[2] == 0)
{
Thinker_SetStasis(&thinker, true);
}
#endif
}
P_ToXSector(sector)->specialData = this;
return true; // Add this thinker.
}
void P_SpawnSectorSpecialThinkers()
{
// Clients spawn specials only on the server's instruction.
if(IS_CLIENT) return;
for(int i = 0; i < numsectors; ++i)
{
Sector *sec = (Sector *)P_ToPtr(DMU_SECTOR, i);
xsector_t *xsec = P_ToXSector(sec);
// XG sector types override the game's built-in types.
if(xsec->xg) continue;
// jd64 >
// DJS - yet more hacks! Why use the tag?
switch(xsec->tag)
{
default:
break;
case 10000:
case 10001:
case 10002:
case 10003:
case 10004:
P_SpawnGlowingLight(sec);
break;
case 11000:
P_SpawnLightFlash(sec);
break;
case 12000:
P_SpawnFireFlicker(sec);
break;
case 13000:
P_SpawnLightBlink(sec);
break;
case 20000:
P_SpawnGlowingLight(sec);
break;
}
// < d64tc
switch(xsec->special)
{
default:
break;
case 1: ///< FLICKERING LIGHTS
P_SpawnLightFlash(sec);
break;
case 2: ///< STROBE FAST
P_SpawnStrobeFlash(sec, FASTDARK, 0);
break;
case 3: ///< STROBE SLOW
P_SpawnStrobeFlash(sec, SLOWDARK, 0);
break;
case 4: ///< STROBE FAST/DEATH SLIME
P_SpawnStrobeFlash(sec, FASTDARK, 0);
xsec->special = 4;
break;
case 8: ///< GLOWING LIGHT
P_SpawnGlowingLight(sec);
break;
case 10: ///< DOOR CLOSE IN 30 SECONDS
P_SpawnDoorCloseIn30(sec);
break;
case 12: ///< SYNC STROBE SLOW
P_SpawnStrobeFlash(sec, SLOWDARK, 1);
break;
case 13: ///< SYNC STROBE FAST
P_SpawnStrobeFlash(sec, FASTDARK, 1);
break;
case 14: ///< DOOR RAISE IN 5 MINUTES
P_SpawnDoorRaiseIn5Mins(sec);
break;
case 17:
P_SpawnFireFlicker(sec);
break;
}
}
}
static void P_v13_UnArchiveWorld(void)
{
int i, j;
fixed_t offx, offy;
Sector* sec;
xsector_t* xsec;
Line* line;
xline_t* xline;
// Do sectors.
for(i = 0; i < numsectors; ++i)
{
Uri *floorTextureUrn, *ceilingTextureUrn;
sec = P_ToPtr(DMU_SECTOR, i);
xsec = P_ToXSector(sec);
P_SetDoublep(sec, DMU_FLOOR_HEIGHT, (coord_t)Reader_ReadInt16(svReader));
P_SetDoublep(sec, DMU_CEILING_HEIGHT, (coord_t)Reader_ReadInt16(svReader));
floorTextureUrn = readTextureUrn(svReader, "Flats");
P_SetPtrp(sec, DMU_FLOOR_MATERIAL, DD_MaterialForTextureUri(floorTextureUrn));
Uri_Delete(floorTextureUrn);
ceilingTextureUrn = readTextureUrn(svReader, "Flats");
P_SetPtrp(sec, DMU_CEILING_MATERIAL, DD_MaterialForTextureUri(ceilingTextureUrn));
Uri_Delete(ceilingTextureUrn);
P_SetFloatp(sec, DMU_LIGHT_LEVEL, (float) (Reader_ReadInt16(svReader)) / 255.0f);
xsec->special = Reader_ReadInt16(svReader); // needed?
/*xsec->tag = **/Reader_ReadInt16(svReader); // needed?
xsec->specialData = 0;
xsec->soundTarget = 0;
}
// Do lines.
for(i = 0; i < numlines; ++i)
{
line = P_ToPtr(DMU_LINE, i);
xline = P_ToXLine(line);
xline->flags = Reader_ReadInt16(svReader);
xline->special = Reader_ReadInt16(svReader);
/*xline->tag =*/Reader_ReadInt16(svReader);
for(j = 0; j < 2; ++j)
{
Uri *topTextureUrn, *bottomTextureUrn, *middleTextureUrn;
Side* sdef = P_GetPtrp(line, j == 0? DMU_FRONT : DMU_BACK);
if(!sdef) continue;
offx = Reader_ReadInt16(svReader) << FRACBITS;
offy = Reader_ReadInt16(svReader) << FRACBITS;
P_SetFixedp(sdef, DMU_TOP_MATERIAL_OFFSET_X, offx);
P_SetFixedp(sdef, DMU_TOP_MATERIAL_OFFSET_Y, offy);
P_SetFixedp(sdef, DMU_MIDDLE_MATERIAL_OFFSET_X, offx);
P_SetFixedp(sdef, DMU_MIDDLE_MATERIAL_OFFSET_Y, offy);
P_SetFixedp(sdef, DMU_BOTTOM_MATERIAL_OFFSET_X, offx);
P_SetFixedp(sdef, DMU_BOTTOM_MATERIAL_OFFSET_Y, offy);
topTextureUrn = readTextureUrn(svReader, "Textures");
P_SetPtrp(sdef, DMU_TOP_MATERIAL, DD_MaterialForTextureUri(topTextureUrn));
Uri_Delete(topTextureUrn);
bottomTextureUrn = readTextureUrn(svReader, "Textures");
P_SetPtrp(sdef, DMU_BOTTOM_MATERIAL, DD_MaterialForTextureUri(bottomTextureUrn));
Uri_Delete(bottomTextureUrn);
middleTextureUrn = readTextureUrn(svReader, "Textures");
P_SetPtrp(sdef, DMU_MIDDLE_MATERIAL, DD_MaterialForTextureUri(middleTextureUrn));
Uri_Delete(middleTextureUrn);
}
}
}
void SV_ReadSector(Sector *sec, MapStateReader *msr)
{
xsector_t *xsec = P_ToXSector(sec);
Reader1 *reader = msr->reader();
int mapVersion = msr->mapVersion();
// A type byte?
int type = 0;
#if __JHEXEN__
if(mapVersion < 4)
type = sc_ploff;
else
#else
if(mapVersion <= 1)
type = sc_normal;
else
#endif
type = Reader_ReadByte(reader);
// A version byte?
int ver = 1;
#if __JHEXEN__
if(mapVersion > 2)
#else
if(mapVersion > 4)
#endif
{
ver = Reader_ReadByte(reader);
}
int fh = Reader_ReadInt16(reader);
int ch = Reader_ReadInt16(reader);
P_SetIntp(sec, DMU_FLOOR_HEIGHT, fh);
P_SetIntp(sec, DMU_CEILING_HEIGHT, ch);
#if __JHEXEN__
// Update the "target heights" of the planes.
P_SetIntp(sec, DMU_FLOOR_TARGET_HEIGHT, fh);
P_SetIntp(sec, DMU_CEILING_TARGET_HEIGHT, ch);
// The move speed is not saved; can cause minor problems.
P_SetIntp(sec, DMU_FLOOR_SPEED, 0);
P_SetIntp(sec, DMU_CEILING_SPEED, 0);
#endif
world_Material *floorMaterial = 0, *ceilingMaterial = 0;
#if !__JHEXEN__
if(mapVersion == 1)
{
// The flat numbers are absolute lump indices.
de::Uri uri("Flats:", RC_NULL);
uri.setPath(CentralLumpIndex()[Reader_ReadInt16(reader)].name().fileNameWithoutExtension());
floorMaterial = (world_Material *)P_ToPtr(DMU_MATERIAL, Materials_ResolveUri(reinterpret_cast<uri_s *>(&uri)));
uri.setPath(CentralLumpIndex()[Reader_ReadInt16(reader)].name().fileNameWithoutExtension());
ceilingMaterial = (world_Material *)P_ToPtr(DMU_MATERIAL, Materials_ResolveUri(reinterpret_cast<uri_s *>(&uri)));
}
else if(mapVersion >= 4)
#endif
{
// The flat numbers are actually archive numbers.
floorMaterial = msr->material(Reader_ReadInt16(reader), 0);
ceilingMaterial = msr->material(Reader_ReadInt16(reader), 0);
}
P_SetPtrp(sec, DMU_FLOOR_MATERIAL, floorMaterial);
P_SetPtrp(sec, DMU_CEILING_MATERIAL, ceilingMaterial);
if(ver >= 3)
{
P_SetIntp(sec, DMU_FLOOR_FLAGS, Reader_ReadInt16(reader));
P_SetIntp(sec, DMU_CEILING_FLAGS, Reader_ReadInt16(reader));
}
byte lightlevel;
#if __JHEXEN__
lightlevel = (byte) Reader_ReadInt16(reader);
#else
// In Ver1 the light level is a short
if(mapVersion == 1)
{
lightlevel = (byte) Reader_ReadInt16(reader);
}
else
{
lightlevel = Reader_ReadByte(reader);
}
#endif
P_SetFloatp(sec, DMU_LIGHT_LEVEL, (float) lightlevel / 255.f);
#if !__JHEXEN__
if(mapVersion > 1)
#endif
{
byte rgb[3];
Reader_Read(reader, rgb, 3);
for(int i = 0; i < 3; ++i)
P_SetFloatp(sec, DMU_COLOR_RED + i, rgb[i] / 255.f);
}
// Ver 2 includes surface colours
if(ver >= 2)
{
byte rgb[3];
Reader_Read(reader, rgb, 3);
for(int i = 0; i < 3; ++i)
P_SetFloatp(sec, DMU_FLOOR_COLOR_RED + i, rgb[i] / 255.f);
Reader_Read(reader, rgb, 3);
for(int i = 0; i < 3; ++i)
P_SetFloatp(sec, DMU_CEILING_COLOR_RED + i, rgb[i] / 255.f);
}
xsec->special = Reader_ReadInt16(reader);
/*xsec->tag =*/ Reader_ReadInt16(reader);
#if __JHEXEN__
xsec->seqType = seqtype_t(Reader_ReadInt16(reader));
#endif
if(type == sc_ploff
#if !__JHEXEN__
|| type == sc_xg1
#endif
)
{
P_SetFloatp(sec, DMU_FLOOR_MATERIAL_OFFSET_X, Reader_ReadFloat(reader));
P_SetFloatp(sec, DMU_FLOOR_MATERIAL_OFFSET_Y, Reader_ReadFloat(reader));
P_SetFloatp(sec, DMU_CEILING_MATERIAL_OFFSET_X, Reader_ReadFloat(reader));
P_SetFloatp(sec, DMU_CEILING_MATERIAL_OFFSET_Y, Reader_ReadFloat(reader));
}
#if !__JHEXEN__
if(type == sc_xg1)
{
SV_ReadXGSector(sec, reader, mapVersion);
}
#endif
#if !__JHEXEN__
if(mapVersion <= 1)
#endif
{
xsec->specialData = 0;
}
// We'll restore the sound targets latter on
xsec->soundTarget = 0;
}
