fteqw/engine/client/p_script.c
Spoike 9cd988a836 Added csqc->ssqc requests.
Fixed up cl_indepphysics. Sending is fully independent, bar sync points.
Fixed so #if 0 works in qc code.
Fixed up error conditions in qclib when features are not supported.
The webpage generator will now refcount properly.
Fixed error conditions when using glsl shaders.
If MULTITHREAD is defined, r_loadlit will not light inside a separate thread.
We now generate VBOs for bsp objects. Shaders/rtlights don't use them yet.
Fixed up MVD/multiview playback a bit. It now looks like it works! (cl_hightrack will no longer track the same person in all views).
Fixed error conditions when attempting to download versioned csprogs.
Reduced the number of places that a q3-style marked up string is expanded. I think there are a couple places left still though. Approximated ezquake colour codes.
Memory mapped read file access in win32, where we can. Not sure about this. Lets see how things pan out.

git-svn-id: https://svn.code.sf.net/p/fteqw/code/trunk@3195 fc73d0e0-1445-4013-8a0c-d673dee63da5
2009-05-24 10:11:17 +00:00

4372 lines
106 KiB
C

/*
Copyright (C) 1996-1997 Id Software, Inc.
This program is free software; you can redistribute it and/or
modify it under the terms of the GNU General Public License
as published by the Free Software Foundation; either version 2
of the License, or (at your option) any later version.
This program is distributed in the hope that it will be useful,
but WITHOUT ANY WARRANTY; without even the implied warranty of
MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE.
See the GNU General Public License for more details.
You should have received a copy of the GNU General Public License
along with this program; if not, write to the Free Software
Foundation, Inc., 59 Temple Place - Suite 330, Boston, MA 02111-1307, USA.
*/
/*
The aim of this particle system is to have as much as possible configurable.
Some parts still fail here, and are marked FIXME
Effects are flushed on new maps.
The engine has a few builtins.
*/
#include "quakedef.h"
#ifdef PSET_SCRIPT
#ifdef SWQUAKE
#include "r_local.h"
#endif
#ifdef RGLQUAKE
#include "glquake.h"//hack
#endif
#ifdef D3DQUAKE
//d3d is awkward
//we can't include two versions of header files
extern void *d3dexplosiontexture;
extern void *d3dballtexture;
#endif
#include "renderque.h"
#include "r_partset.h"
extern qbyte *host_basepal;
static int pt_pointfile = P_INVALID;
static int pe_default = P_INVALID;
static int pe_size2 = P_INVALID;
static int pe_size3 = P_INVALID;
static int pe_defaulttrail = P_INVALID;
// !!! if this is changed, it must be changed in d_ifacea.h too !!!
typedef struct particle_s
{
struct particle_s *next;
float die;
// driver-usable fields
vec3_t org;
float color; //used by sw renderer. To be removed.
vec3_t rgb;
float alpha;
float scale;
vec3_t vel; //renderer uses for sparks
float angle;
union {
float nextemit;
trailstate_t *trailstate;
} state;
// drivers never touch the following fields
float rotationspeed;
} particle_t;
typedef struct clippeddecal_s
{
struct clippeddecal_s *next;
float die;
vec3_t center;
vec3_t vertex[3];
vec2_t texcoords[3];
vec3_t rgb;
float alpha;
} clippeddecal_t;
#define BS_LASTSEG 0x1 // no draw to next, no delete
#define BS_DEAD 0x2 // segment is dead
#define BS_NODRAW 0x4 // only used for lerp switching
typedef struct beamseg_s
{
struct beamseg_s *next; // next in beamseg list
particle_t *p;
int flags; // flags for beamseg
vec3_t dir;
float texture_s;
} beamseg_t;
typedef struct skytris_s {
struct skytris_s *next;
vec3_t org;
vec3_t x;
vec3_t y;
float area;
float nexttime;
struct msurface_s *face;
} skytris_t;
//these are the details of each particle which are exposed at render time - things that are static
typedef struct {
enum {PT_NORMAL, PT_SPARK, PT_SPARKFAN, PT_TEXTUREDSPARK, PT_BEAM, PT_DECAL} type;
blendmode_t blendmode;
int texturenum;
#ifdef D3DQUAKE
void *d3dtexture;
#endif
float scalefactor;
float invscalefactor;
} plooks_t;
//these could be deltas or absolutes depending on ramping mode.
typedef struct {
vec3_t rgb;
float alpha;
float scale;
float rotation;
} ramp_t;
// TODO: merge in alpha with rgb to gain benefit of vector opts
typedef struct part_type_s {
char name[MAX_QPATH];
char texname[MAX_QPATH];
vec3_t rgb;
float alpha;
vec3_t rgbchange;
float alphachange;
vec3_t rgbrand;
int colorindex;
int colorrand;
float rgbchangetime;
vec3_t rgbrandsync;
float scale;
float die, randdie;
float randomvel, veladd;
float orgadd;
float offsetspread;
float offsetspreadvert;
float randomvelvert;
float randscale;
plooks_t looks;
float spawntime;
float spawnchance;
float rotationstartmin, rotationstartrand;
float rotationmin, rotationrand;
float scaledelta;
float count;
float countrand;
int assoc;
int cliptype;
int inwater;
float clipcount;
int emit;
float emittime;
float emitrand;
float emitstart;
float areaspread;
float areaspreadvert;
float spawnparam1;
float spawnparam2;
/* float spawnparam3; */
float offsetup; // make this into a vec3_t later with dir, possibly for mdls
enum {
SM_BOX, //box = even spread within the area
SM_CIRCLE, //circle = around edge of a circle
SM_BALL, //ball = filled sphere
SM_SPIRAL, //spiral = spiral trail
SM_TRACER, //tracer = tracer trail
SM_TELEBOX, //telebox = q1-style telebox
SM_LAVASPLASH, //lavasplash = q1-style lavasplash
SM_UNICIRCLE, //unicircle = uniform circle
SM_FIELD, //field = synced field (brightfield, etc)
SM_DISTBALL // uneven distributed ball
} spawnmode;
float gravity;
vec3_t friction;
float clipbounce;
int stains;
enum {RAMP_NONE, RAMP_DELTA, RAMP_ABSOLUTE} rampmode;
int rampindexes;
ramp_t *ramp;
int loaded;
particle_t *particles;
clippeddecal_t *clippeddecals;
beamseg_t *beams;
skytris_t *skytris;
struct part_type_s *nexttorun;
unsigned int flags;
#define PT_VELOCITY 0x001
#define PT_FRICTION 0x002
#define PT_CHANGESCOLOUR 0x004
#define PT_CITRACER 0x008 // Q1-style tracer behavior for colorindex
#define PT_INVFRAMETIME 0x010 // apply inverse frametime to count (causes emits to be per frame)
#define PT_AVERAGETRAIL 0x020 // average trail points from start to end, useful with t_lightning, etc
#define PT_NOSTATE 0x040 // don't use trailstate for this emitter (careful with assoc...)
#define PT_NOSPREADFIRST 0x080 // don't randomize org/vel for first generated particle
#define PT_NOSPREADLAST 0x100 // don't randomize org/vel for last generated particle
unsigned int state;
#define PS_INRUNLIST 0x1 // particle type is currently in execution list
} part_type_t;
void PScript_DrawParticleTypes (void (*texturedparticles)(int count, particle_t **,plooks_t*), void (*sparklineparticles)(int count, particle_t **,plooks_t*), void (*sparkfanparticles)(int count, particle_t **,plooks_t*), void (*sparktexturedparticles)(int count, particle_t **,plooks_t*), void (*beamparticlest)(int count, beamseg_t**,plooks_t*), void (*beamparticlesut)(int count, beamseg_t**,plooks_t*), void (*drawdecalparticles)(int count, clippeddecal_t**,plooks_t*));
#ifndef TYPESONLY
//triangle fan sparks use these.
static double sint[7] = {0.000000, 0.781832, 0.974928, 0.433884, -0.433884, -0.974928, -0.781832};
static double cost[7] = {1.000000, 0.623490, -0.222521, -0.900969, -0.900969, -0.222521, 0.623490};
#define crand() (rand()%32767/16383.5f-1)
void D_DrawParticleTrans (vec3_t porg, float palpha, float pscale, unsigned int pcolour, blendmode_t blendmode);
static void P_ReadPointFile_f (void);
static void P_ExportBuiltinSet_f(void);
#define MAX_BEAMSEGS 2048 // default max # of beam segments
#define MAX_PARTICLES 32768 // default max # of particles at one
// time
#define MAX_DECALS 4096 // this is going to be expensive
#define MAX_TRAILSTATES 512 // default max # of trailstates
//int ramp1[8] = {0x6f, 0x6d, 0x6b, 0x69, 0x67, 0x65, 0x63, 0x61};
//int ramp2[8] = {0x6f, 0x6e, 0x6d, 0x6c, 0x6b, 0x6a, 0x68, 0x66};
//int ramp3[8] = {0x6d, 0x6b, 6, 5, 4, 3, 2, 1};
particle_t *free_particles;
particle_t *particles; //contains the initial list of alloced particles.
int r_numparticles;
beamseg_t *free_beams;
beamseg_t *beams;
int r_numbeams;
clippeddecal_t *free_decals;
clippeddecal_t *decals;
int r_numdecals;
trailstate_t *trailstates;
int ts_cycle; // current cyclic index of trailstates
int r_numtrailstates;
extern cvar_t r_bouncysparks;
extern cvar_t r_part_rain;
extern cvar_t r_bloodstains;
extern cvar_t gl_part_flame;
// callbacks
static void R_ParticlesDesc_Callback(struct cvar_s *var, char *oldvalue);
extern cvar_t r_particlesdesc;
extern cvar_t r_part_rain_quantity;
extern cvar_t r_particle_tracelimit;
extern cvar_t r_part_sparks;
extern cvar_t r_part_sparks_trifan;
extern cvar_t r_part_sparks_textured;
extern cvar_t r_part_beams;
extern cvar_t r_part_beams_textured;
extern cvar_t r_part_contentswitch;
static float particletime;
#define APPLYBLEND(bm) \
switch (bm) \
{ \
case BM_ADD: \
qglBlendFunc(GL_SRC_ALPHA, GL_ONE); \
break; \
case BM_SUBTRACT: \
qglBlendFunc(GL_SRC_ALPHA, GL_ONE_MINUS_SRC_COLOR); \
break; \
case BM_BLENDCOLOUR: \
qglBlendFunc(GL_SRC_COLOR, GL_ONE_MINUS_SRC_COLOR); \
break; \
case BM_BLEND: \
default: \
qglBlendFunc(GL_SRC_ALPHA, GL_ONE_MINUS_SRC_ALPHA); \
break; \
}
static int numparticletypes;
static part_type_t *part_type;
static part_type_t *part_run_list;
static struct {
char *oldn;
char *newn;
} legacynames[] =
{
{"t_rocket", "TR_ROCKET"},
{"te_explosion", "TE_EXPLOSION"},
{"t_blastertrail", "TR_BLASTERTRAIL"},
{"t_rocket", "TR_ROCKET"},
{"t_grenade", "TR_GRENADE"},
{"t_gib", "TR_BLOOD"},
{"te_plasma", "TE_TEI_PLASMAHIT"},
{"te_smoke", "TE_TEI_SMOKE"},
{NULL}
};
static part_type_t *P_GetParticleType(char *name)
{
int i;
part_type_t *ptype;
part_type_t *oldlist = part_type;
for (i = 0; legacynames[i].oldn; i++)
{
if (!strcmp(name, legacynames[i].oldn))
{
name = legacynames[i].newn;
break;
}
}
for (i = 0; i < numparticletypes; i++)
{
ptype = &part_type[i];
if (!stricmp(ptype->name, name))
return ptype;
}
part_type = BZ_Realloc(part_type, sizeof(part_type_t)*(numparticletypes+1));
ptype = &part_type[numparticletypes++];
memset(ptype, 0, sizeof(*ptype));
strcpy(ptype->name, name);
ptype->assoc=P_INVALID;
ptype->cliptype = P_INVALID;
ptype->emit = P_INVALID;
if (oldlist)
{
part_run_list=NULL;
for (i = 0; i < numparticletypes; i++)
if (part_type[i].nexttorun)
part_type[i].nexttorun = (part_type_t*)((char*)part_type[i].nexttorun - (char*)oldlist + (char*)part_type);
}
ptype->loaded = 0;
ptype->ramp = NULL;
ptype->particles = NULL;
ptype->beams = NULL;
return ptype;
}
static int P_AllocateParticleType(char *name) //guarentees that the particle type exists, returning it's index.
{
part_type_t *pt = P_GetParticleType(name);
return pt - part_type;
}
static int PScript_ParticleTypeForName(char *name)
{
int to;
to = P_GetParticleType(name) - part_type;
if (to < 0 || to >= numparticletypes)
{
return P_INVALID;
}
return to;
}
static int PScript_FindParticleType(char *name)
{
int i;
part_type_t *ptype = NULL;
for (i = 0; legacynames[i].oldn; i++)
{
if (!strcmp(name, legacynames[i].oldn))
{
name = legacynames[i].newn;
break;
}
}
for (i = 0; i < numparticletypes; i++)
{
if (!stricmp(part_type[i].name, name))
{
ptype = &part_type[i];
break;
}
}
if (!ptype)
return P_INVALID;
if (!ptype->loaded)
return P_INVALID;
return i;
}
static void P_SetModified(void) //called when the particle system changes (from console).
{
if (Cmd_FromGamecode())
return; //server stuffed particle descriptions don't count.
f_modified_particles = true;
if (care_f_modified)
{
care_f_modified = false;
Cbuf_AddText("say particles description has changed\n", RESTRICT_LOCAL);
}
}
static int CheckAssosiation(char *name, int from)
{
int to, orig;
orig = to = P_AllocateParticleType(name);
while(to != P_INVALID)
{
if (to == from)
{
Con_Printf("Assosiation of %s would cause infinate loop\n", name);
return P_INVALID;
}
to = part_type[to].assoc;
}
return orig;
}
static void P_LoadTexture(part_type_t *ptype, qboolean warn)
{
switch (qrenderer)
{
#ifdef RGLQUAKE
case QR_OPENGL:
if (*ptype->texname && strcmp(ptype->texname, "default"))
{
ptype->looks.texturenum = Mod_LoadHiResTexture(ptype->texname, "particles", true, true, true);
if (!ptype->looks.texturenum)
{
if (warn)
Con_DPrintf("Couldn't load texture %s for particle effect %s\n", ptype->texname, ptype->name);
if (strstr(ptype->texname, "glow") || strstr(ptype->texname, "ball"))
ptype->looks.texturenum = balltexture;
else
ptype->looks.texturenum = explosiontexture;
}
}
else
ptype->looks.texturenum = explosiontexture;
break;
#endif
#ifdef D3DQUAKE
case QR_DIRECT3D:
if (*ptype->texname && strcmp(ptype->texname, "default"))
{
ptype->looks.d3dtexture = NULL;//Mod_LoadHiResTexture(ptype->texname, "particles", true, true, true);
if (!ptype->looks.d3dtexture)
{
if (warn)
Con_DPrintf("Couldn't load texture %s for particle effect %s\n", ptype->texname, ptype->name);
if (strstr(ptype->texname, "glow") || strstr(ptype->texname, "ball"))
ptype->looks.d3dtexture = d3dballtexture;
else
ptype->looks.d3dtexture = d3dexplosiontexture;
}
}
else
ptype->looks.d3dtexture = d3dexplosiontexture;
break;
#endif
default:
break;
}
}
//Uses FTE's multiline console stuff.
//This is the function that loads the effect descriptions (via console).
static void P_ParticleEffect_f(void)
{
char *var, *value;
char *buf;
particle_t *parts;
beamseg_t *beamsegs;
skytris_t *st;
qboolean settype = false;
qboolean setalphadelta = false;
qboolean setbeamlen = false;
part_type_t *ptype, *torun;
char tnamebuf[sizeof(ptype->name)];
int pnum, assoc;
if (Cmd_Argc()!=2)
{
Con_Printf("No name for particle effect\n");
return;
}
buf = Cbuf_GetNext(Cmd_ExecLevel);
while (*buf && *buf <= ' ')
buf++; //no whitespace please.
if (*buf != '{')
{
Cbuf_InsertText(buf, Cmd_ExecLevel, true);
Con_Printf("This is a multiline command and should be used within config files\n");
return;
}
ptype = P_GetParticleType(Cmd_Argv(1));
if (!ptype)
{
Con_Printf("Bad name\n");
return;
}
P_SetModified();
pnum = ptype-part_type;
st = ptype->skytris;
if (ptype->ramp)
BZ_Free(ptype->ramp);
while (ptype->particles) // empty particle list
{
parts = ptype->particles->next;
ptype->particles->next = free_particles;
free_particles = ptype->particles;
ptype->particles = parts;
}
// go with a lazy clear of list.. mark everything as DEAD and let
// the beam rendering handle removing nodes
beamsegs = ptype->beams;
while (beamsegs)
{
beamsegs->flags |= BS_DEAD;
beamsegs = beamsegs->next;
}
beamsegs = ptype->beams;
// if we're in the runstate loop through and remove from linked list
if (ptype->state & PS_INRUNLIST)
{
if (part_run_list == ptype)
part_run_list = part_run_list->nexttorun;
else
{
for (torun = part_run_list; torun != NULL; torun = torun->nexttorun)
{
if (torun->nexttorun == ptype)
torun->nexttorun = torun->nexttorun->nexttorun;
}
}
}
strcpy(tnamebuf, ptype->name);
memset(ptype, 0, sizeof(*ptype));
// ptype->particles = parts;
ptype->beams = beamsegs;
ptype->skytris = st;
strcpy(ptype->name, tnamebuf);
ptype->assoc=P_INVALID;
ptype->inwater = P_INVALID;
ptype->cliptype = P_INVALID;
ptype->emit = P_INVALID;
ptype->alpha = 1;
ptype->alphachange = 1;
ptype->clipbounce = 0.8;
ptype->colorindex = -1;
ptype->rotationstartmin = -M_PI; //start with a random angle
ptype->rotationstartrand = M_PI-ptype->rotationstartmin;
ptype->spawnchance = 1;
while(1)
{
buf = Cbuf_GetNext(Cmd_ExecLevel);
if (!*buf)
{
Con_Printf("Unexpected end of buffer with effect %s\n", ptype->name);
return;
}
while (*buf && *buf <= ' ')
buf++; //no whitespace please.
if (*buf == '}')
break;
Cmd_TokenizeString(buf, true, true);
var = Cmd_Argv(0);
value = Cmd_Argv(1);
// TODO: switch this mess to some sort of binary tree to increase
// parse speed
if (!strcmp(var, "texture"))
Q_strncpyz(ptype->texname, value, sizeof(ptype->texname));
else if (!strcmp(var, "rotationstart"))
{
ptype->rotationstartmin = atof(value)*M_PI/180;
if (Cmd_Argc()>2)
ptype->rotationstartrand = atof(Cmd_Argv(2))*M_PI/180-ptype->rotationstartmin;
else
ptype->rotationstartrand = 0;
}
else if (!strcmp(var, "rotationspeed"))
{
ptype->rotationmin = atof(value)*M_PI/180;
if (Cmd_Argc()>2)
ptype->rotationrand = atof(Cmd_Argv(2))*M_PI/180-ptype->rotationmin;
else
ptype->rotationrand = 0;
}
else if (!strcmp(var, "beamtexstep"))
{
ptype->rotationstartmin = 1/atof(value);
setbeamlen = true;
}
else if (!strcmp(var, "beamtexspeed"))
{
ptype->rotationmin = atof(value);
}
else if (!strcmp(var, "scale"))
{
ptype->scale = atof(value);
if (Cmd_Argc()>2)
ptype->randscale = atof(Cmd_Argv(2)) - ptype->scale;
}
else if (!strcmp(var, "scalerand"))
ptype->randscale = atof(value);
else if (!strcmp(var, "scalefactor"))
ptype->looks.scalefactor = atof(value);
else if (!strcmp(var, "scaledelta"))
ptype->scaledelta = atof(value);
else if (!strcmp(var, "step"))
{
ptype->count = 1/atof(value);
if (Cmd_Argc()>2)
ptype->countrand = 1/atof(Cmd_Argv(2));
}
else if (!strcmp(var, "count"))
{
ptype->count = atof(value);
if (Cmd_Argc()>2)
ptype->countrand = atof(Cmd_Argv(2));
}
else if (!strcmp(var, "alpha"))
ptype->alpha = atof(value);
else if (!strcmp(var, "alphachange"))
{
Con_DPrintf("alphachange is deprechiated, use alphadelta\n");
ptype->alphachange = atof(value);
}
else if (!strcmp(var, "alphadelta"))
{
ptype->alphachange = atof(value);
setalphadelta = true;
}
else if (!strcmp(var, "die"))
ptype->die = atof(value);
else if (!strcmp(var, "diesubrand"))
ptype->randdie = atof(value);
else if (!strcmp(var, "randomvel"))
{
ptype->randomvel = atof(value);
if (Cmd_Argc()>2)
ptype->randomvelvert = atof(Cmd_Argv(2));
else
ptype->randomvelvert = ptype->randomvel;
}
else if (!strcmp(var, "veladd"))
ptype->veladd = atof(value);
else if (!strcmp(var, "orgadd"))
ptype->orgadd = atof(value);
else if (!strcmp(var, "friction"))
{
ptype->friction[2] = ptype->friction[1] = ptype->friction[0] = atof(value);
if (Cmd_Argc()>3)
{
ptype->friction[2] = atof(Cmd_Argv(3));
ptype->friction[1] = atof(Cmd_Argv(2));
}
else if (Cmd_Argc()>2)
{
ptype->friction[2] = atof(Cmd_Argv(2));
}
}
else if (!strcmp(var, "gravity"))
ptype->gravity = atof(value);
else if (!strcmp(var, "clipbounce"))
ptype->clipbounce = atof(value);
else if (!strcmp(var, "assoc"))
{
assoc = CheckAssosiation(value, pnum); //careful - this can realloc all the particle types
ptype = &part_type[pnum];
ptype->assoc = assoc;
}
else if (!strcmp(var, "inwater"))
{
// the underwater effect switch should only occur for
// 1 level so the standard assoc check works
assoc = CheckAssosiation(value, pnum);
ptype = &part_type[pnum];
ptype->inwater = assoc;
}
else if (!strcmp(var, "colorindex"))
{
if (Cmd_Argc()>2)
ptype->colorrand = atof(Cmd_Argv(2));
ptype->colorindex = atoi(value);
}
else if (!strcmp(var, "colorrand"))
ptype->colorrand = atoi(value); // now obsolete
else if (!strcmp(var, "citracer"))
ptype->flags |= PT_CITRACER;
else if (!strcmp(var, "red"))
ptype->rgb[0] = atof(value)/255;
else if (!strcmp(var, "green"))
ptype->rgb[1] = atof(value)/255;
else if (!strcmp(var, "blue"))
ptype->rgb[2] = atof(value)/255;
else if (!strcmp(var, "rgb"))
{
ptype->rgb[0] = ptype->rgb[1] = ptype->rgb[2] = atof(value)/255;
if (Cmd_Argc()>3)
{
ptype->rgb[1] = atof(Cmd_Argv(2))/255;
ptype->rgb[2] = atof(Cmd_Argv(3))/255;
}
}
else if (!strcmp(var, "reddelta"))
{
ptype->rgbchange[0] = atof(value)/255;
if (!ptype->rgbchangetime)
ptype->rgbchangetime = ptype->die;
}
else if (!strcmp(var, "greendelta"))
{
ptype->rgbchange[1] = atof(value)/255;
if (!ptype->rgbchangetime)
ptype->rgbchangetime = ptype->die;
}
else if (!strcmp(var, "bluedelta"))
{
ptype->rgbchange[2] = atof(value)/255;
if (!ptype->rgbchangetime)
ptype->rgbchangetime = ptype->die;
}
else if (!strcmp(var, "rgbdelta"))
{
ptype->rgbchange[0] = ptype->rgbchange[1] = ptype->rgbchange[2] = atof(value)/255;
if (Cmd_Argc()>3)
{
ptype->rgbchange[1] = atof(Cmd_Argv(2))/255;
ptype->rgbchange[2] = atof(Cmd_Argv(3))/255;
}
if (!ptype->rgbchangetime)
ptype->rgbchangetime = ptype->die;
}
else if (!strcmp(var, "rgbdeltatime"))
ptype->rgbchangetime = atof(value);
else if (!strcmp(var, "redrand"))
ptype->rgbrand[0] = atof(value)/255;
else if (!strcmp(var, "greenrand"))
ptype->rgbrand[1] = atof(value)/255;
else if (!strcmp(var, "bluerand"))
ptype->rgbrand[2] = atof(value)/255;
else if (!strcmp(var, "rgbrand"))
{
ptype->rgbrand[0] = ptype->rgbrand[1] = ptype->rgbrand[2] = atof(value)/255;
if (Cmd_Argc()>3)
{
ptype->rgbrand[1] = atof(Cmd_Argv(2))/255;
ptype->rgbrand[2] = atof(Cmd_Argv(3))/255;
}
}
else if (!strcmp(var, "rgbrandsync"))
{
ptype->rgbrandsync[0] = ptype->rgbrandsync[1] = ptype->rgbrandsync[2] = atof(value);
if (Cmd_Argc()>3)
{
ptype->rgbrandsync[1] = atof(Cmd_Argv(2));
ptype->rgbrandsync[2] = atof(Cmd_Argv(3));
}
}
else if (!strcmp(var, "redrandsync"))
ptype->rgbrandsync[0] = atof(value);
else if (!strcmp(var, "greenrandsync"))
ptype->rgbrandsync[1] = atof(value);
else if (!strcmp(var, "bluerandsync"))
ptype->rgbrandsync[2] = atof(value);
else if (!strcmp(var, "stains"))
ptype->stains = atoi(value);
else if (!strcmp(var, "blend"))
{
if (!strcmp(value, "add"))
ptype->looks.blendmode = BM_ADD;
else if (!strcmp(value, "subtract"))
ptype->looks.blendmode = BM_SUBTRACT;
else if (!strcmp(value, "blendcolour") || !strcmp(value, "blendcolor"))
ptype->looks.blendmode = BM_BLENDCOLOUR;
else
ptype->looks.blendmode = BM_BLEND;
}
else if (!strcmp(var, "spawnmode"))
{
if (!strcmp(value, "circle"))
ptype->spawnmode = SM_CIRCLE;
else if (!strcmp(value, "ball"))
ptype->spawnmode = SM_BALL;
else if (!strcmp(value, "spiral"))
ptype->spawnmode = SM_SPIRAL;
else if (!strcmp(value, "tracer"))
ptype->spawnmode = SM_TRACER;
else if (!strcmp(value, "telebox"))
ptype->spawnmode = SM_TELEBOX;
else if (!strcmp(value, "lavasplash"))
ptype->spawnmode = SM_LAVASPLASH;
else if (!strcmp(value, "uniformcircle"))
ptype->spawnmode = SM_UNICIRCLE;
else if (!strcmp(value, "syncfield"))
ptype->spawnmode = SM_FIELD;
else if (!strcmp(value, "distball"))
ptype->spawnmode = SM_DISTBALL;
else
ptype->spawnmode = SM_BOX;
if (Cmd_Argc()>2)
{
if (Cmd_Argc()>3)
ptype->spawnparam2 = atof(Cmd_Argv(3));
ptype->spawnparam1 = atof(Cmd_Argv(2));
}
}
else if (!strcmp(var, "type"))
{
if (!strcmp(value, "beam"))
ptype->looks.type = PT_BEAM;
else if (!strcmp(value, "spark"))
ptype->looks.type = PT_SPARK;
else if (!strcmp(value, "sparkfan") || !strcmp(value, "trianglefan"))
ptype->looks.type = PT_SPARKFAN;
else if (!strcmp(value, "texturedspark"))
ptype->looks.type = PT_TEXTUREDSPARK;
else if (!strcmp(value, "decal"))
ptype->looks.type = PT_DECAL;
else
ptype->looks.type = PT_NORMAL;
settype = true;
}
else if (!strcmp(var, "isbeam"))
{
Con_DPrintf("isbeam is deprechiated, use type beam\n");
ptype->looks.type = PT_BEAM;
}
else if (!strcmp(var, "spawntime"))
ptype->spawntime = atof(value);
else if (!strcmp(var, "spawnchance"))
ptype->spawnchance = atof(value);
else if (!strcmp(var, "cliptype"))
{
assoc = P_ParticleTypeForName(value);//careful - this can realloc all the particle types
ptype = &part_type[pnum];
ptype->cliptype = assoc;
}
else if (!strcmp(var, "clipcount"))
ptype->clipcount = atof(value);
else if (!strcmp(var, "emit"))
{
assoc = P_ParticleTypeForName(value);//careful - this can realloc all the particle types
ptype = &part_type[pnum];
ptype->emit = assoc;
}
else if (!strcmp(var, "emitinterval"))
ptype->emittime = atof(value);
else if (!strcmp(var, "emitintervalrand"))
ptype->emitrand = atof(value);
else if (!strcmp(var, "emitstart"))
ptype->emitstart = atof(value);
// old names
else if (!strcmp(var, "areaspread"))
{
Con_DPrintf("areaspread is deprechiated, use spawnorg\n");
ptype->areaspread = atof(value);
}
else if (!strcmp(var, "areaspreadvert"))
{
Con_DPrintf("areaspreadvert is deprechiated, use spawnorg\n");
ptype->areaspreadvert = atof(value);
}
else if (!strcmp(var, "offsetspread"))
{
Con_DPrintf("offsetspread is deprechiated, use spawnvel\n");
ptype->offsetspread = atof(value);
}
else if (!strcmp(var, "offsetspreadvert"))
{
Con_DPrintf("offsetspreadvert is deprechiated, use spawnvel\n");
ptype->offsetspreadvert = atof(value);
}
// new names
else if (!strcmp(var, "spawnorg"))
{
ptype->areaspreadvert = ptype->areaspread = atof(value);
if (Cmd_Argc()>2)
ptype->areaspreadvert = atof(Cmd_Argv(2));
}
else if (!strcmp(var, "spawnvel"))
{
ptype->offsetspreadvert = ptype->offsetspread = atof(value);
if (Cmd_Argc()>2)
ptype->offsetspreadvert = atof(Cmd_Argv(2));
}
// spawn mode param fields
else if (!strcmp(var, "spawnparam1"))
ptype->spawnparam1 = atof(value);
else if (!strcmp(var, "spawnparam2"))
ptype->spawnparam2 = atof(value);
/* else if (!strcmp(var, "spawnparam3"))
ptype->spawnparam3 = atof(value); */
else if (!strcmp(var, "up"))
ptype->offsetup = atof(value);
else if (!strcmp(var, "rampmode"))
{
if (!strcmp(value, "none"))
ptype->rampmode = RAMP_NONE;
else if (!strcmp(value, "absolute"))
ptype->rampmode = RAMP_ABSOLUTE;
else //if (!strcmp(value, "delta"))
ptype->rampmode = RAMP_DELTA;
}
else if (!strcmp(var, "rampindexlist"))
{ // better not use this with delta ramps...
int cidx, i;
i = 1;
while (i < Cmd_Argc())
{
ptype->ramp = BZ_Realloc(ptype->ramp, sizeof(ramp_t)*(ptype->rampindexes+1));
cidx = atoi(Cmd_Argv(i));
ptype->ramp[ptype->rampindexes].alpha = cidx > 255 ? 0.5 : 1;
cidx = (cidx & 0xff) * 3;
ptype->ramp[ptype->rampindexes].rgb[0] = host_basepal[cidx] * (1/255.0);
ptype->ramp[ptype->rampindexes].rgb[1] = host_basepal[cidx+1] * (1/255.0);
ptype->ramp[ptype->rampindexes].rgb[2] = host_basepal[cidx+2] * (1/255.0);
ptype->ramp[ptype->rampindexes].scale = ptype->scale;
ptype->rampindexes++;
i++;
}
}
else if (!strcmp(var, "rampindex"))
{
int cidx;
ptype->ramp = BZ_Realloc(ptype->ramp, sizeof(ramp_t)*(ptype->rampindexes+1));
cidx = atoi(value);
ptype->ramp[ptype->rampindexes].alpha = cidx > 255 ? 0.5 : 1;
if (Cmd_Argc() > 2) // they gave alpha
ptype->ramp[ptype->rampindexes].alpha *= atof(Cmd_Argv(2));
cidx = (cidx & 0xff) * 3;
ptype->ramp[ptype->rampindexes].rgb[0] = host_basepal[cidx] * (1/255.0);
ptype->ramp[ptype->rampindexes].rgb[1] = host_basepal[cidx+1] * (1/255.0);
ptype->ramp[ptype->rampindexes].rgb[2] = host_basepal[cidx+2] * (1/255.0);
if (Cmd_Argc() > 3) // they gave scale
ptype->ramp[ptype->rampindexes].scale = atof(Cmd_Argv(3));
else
ptype->ramp[ptype->rampindexes].scale = ptype->scale;
ptype->rampindexes++;
}
else if (!strcmp(var, "ramp"))
{
ptype->ramp = BZ_Realloc(ptype->ramp, sizeof(ramp_t)*(ptype->rampindexes+1));
ptype->ramp[ptype->rampindexes].rgb[0] = atof(value)/255;
if (Cmd_Argc()>3) //seperate rgb
{
ptype->ramp[ptype->rampindexes].rgb[1] = atof(Cmd_Argv(2))/255;
ptype->ramp[ptype->rampindexes].rgb[2] = atof(Cmd_Argv(3))/255;
if (Cmd_Argc()>4) //have we alpha and scale changes?
{
ptype->ramp[ptype->rampindexes].alpha = atof(Cmd_Argv(4));
if (Cmd_Argc()>5) //have we scale changes?
ptype->ramp[ptype->rampindexes].scale = atof(Cmd_Argv(5));
else
ptype->ramp[ptype->rampindexes].scale = ptype->scaledelta;
}
else
{
ptype->ramp[ptype->rampindexes].alpha = ptype->alpha;
ptype->ramp[ptype->rampindexes].scale = ptype->scaledelta;
}
}
else //they only gave one value
{
ptype->ramp[ptype->rampindexes].rgb[1] = ptype->ramp[ptype->rampindexes].rgb[0];
ptype->ramp[ptype->rampindexes].rgb[2] = ptype->ramp[ptype->rampindexes].rgb[0];
ptype->ramp[ptype->rampindexes].alpha = ptype->alpha;
ptype->ramp[ptype->rampindexes].scale = ptype->scaledelta;
}
ptype->rampindexes++;
}
else if (!strcmp(var, "perframe"))
ptype->flags |= PT_INVFRAMETIME;
else if (!strcmp(var, "averageout"))
ptype->flags |= PT_AVERAGETRAIL;
else if (!strcmp(var, "nostate"))
ptype->flags |= PT_NOSTATE;
else if (!strcmp(var, "nospreadfirst"))
ptype->flags |= PT_NOSPREADFIRST;
else if (!strcmp(var, "nospreadlast"))
ptype->flags |= PT_NOSPREADLAST;
else
Con_DPrintf("%s is not a recognised particle type field (in %s)\n", var, ptype->name);
}
ptype->looks.invscalefactor = 1-ptype->looks.scalefactor;
ptype->loaded = 1;
if (ptype->clipcount < 1)
ptype->clipcount = 1;
//if there is a chance that it moves
if (ptype->randomvel || ptype->gravity || ptype->veladd || ptype->offsetspread || ptype->offsetspreadvert)
ptype->flags |= PT_VELOCITY;
//if it has friction
if (ptype->friction)
ptype->flags |= PT_FRICTION;
if (!settype)
{
if (ptype->looks.type == PT_NORMAL && !*ptype->texname)
ptype->looks.type = PT_SPARK;
if (ptype->looks.type == PT_SPARK)
{
if (*ptype->texname)
ptype->looks.type = PT_TEXTUREDSPARK;
if (ptype->scale)
ptype->looks.type = PT_SPARKFAN;
}
}
if (ptype->looks.type == PT_BEAM && !setbeamlen)
ptype->rotationstartmin = 1/128.0;
// use old behavior if not using alphadelta
if (!setalphadelta)
ptype->alphachange = (-ptype->alphachange / ptype->die) * ptype->alpha;
if (ptype->rampmode && !ptype->ramp)
{
ptype->rampmode = RAMP_NONE;
Con_Printf("Particle type %s has a ramp mode but no ramp\n", ptype->name);
}
else if (ptype->ramp && !ptype->rampmode)
{
Con_Printf("Particle type %s has a ramp but no ramp mode\n", ptype->name);
}
P_LoadTexture(ptype, true);
}
//assosiate a point effect with a model.
//the effect will be spawned every frame with count*frametime
//has the capability to hide models.
static void P_AssosiateEffect_f (void)
{
char *modelname = Cmd_Argv(1);
char *effectname = Cmd_Argv(2);
int effectnum;
model_t *model;
if (!cls.demoplayback && (
strstr(modelname, "player") ||
strstr(modelname, "eyes") ||
strstr(modelname, "flag") ||
strstr(modelname, "tf_stan") ||
strstr(modelname, ".bsp") ||
strstr(modelname, "turr")))
{
Con_Printf("Sorry: Not allowed to attach effects to model \"%s\"\n", modelname);
return;
}
model = Mod_FindName(modelname);
if (!model)
return;
if (!cls.demoplayback && (model->flags & EF_ROTATE))
{
Con_Printf("Sorry: You may not assosiate effects with item model \"%s\"\n", modelname);
return;
}
effectnum = P_AllocateParticleType(effectname);
model->particleeffect = effectnum;
if (atoi(Cmd_Argv(3)))
model->engineflags |= MDLF_ENGULPHS;
P_SetModified(); //make it appear in f_modified.
}
//assosiate a particle trail with a model.
//the effect will be spawned between two points when an entity with the model moves.
static void P_AssosiateTrail_f (void)
{
char *modelname = Cmd_Argv(1);
char *effectname = Cmd_Argv(2);
int effectnum;
model_t *model;
if (!cls.demoplayback && (
strstr(modelname, "player") ||
strstr(modelname, "eyes") ||
strstr(modelname, "flag") ||
strstr(modelname, "tf_stan")))
{
Con_Printf("Sorry, you can't assosiate trails with model \"%s\"\n", modelname);
return;
}
model = Mod_FindName(modelname);
if (!model)
return;
effectnum = P_AllocateParticleType(effectname);
model->particletrail = effectnum;
model->engineflags |= MDLF_NODEFAULTTRAIL; //we could have assigned the trail to a model that wasn't loaded.
P_SetModified(); //make it appear in f_modified.
}
#if _DEBUG
// R_BeamInfo_f - debug junk
static void P_BeamInfo_f (void)
{
beamseg_t *bs;
int i, j, k, l, m;
i = 0;
for (bs = free_beams; bs; bs = bs->next)
i++;
Con_Printf("%i free beams\n", i);
for (i = 0; i < numparticletypes; i++)
{
m = l = k = j = 0;
for (bs = part_type[i].beams; bs; bs = bs->next)
{
if (!bs->p)
k++;
if (bs->flags & BS_DEAD)
l++;
if (bs->flags & BS_LASTSEG)
m++;
j++;
}
if (j)
Con_Printf("Type %i = %i NULL p, %i DEAD, %i LASTSEG, %i total\n", i, k, l, m, j);
}
}
static void P_PartInfo_f (void)
{
particle_t *p;
int i, j;
i = 0;
for (p = free_particles; p; p = p->next)
i++;
Con_Printf("%i free particles\n", i);
for (i = 0; i < numparticletypes; i++)
{
j = 0;
for (p = part_type[i].particles; p; p = p->next)
j++;
if (j)
Con_Printf("Type %s = %i total\n", part_type[i].name, j);
}
}
#endif
/*
===============
R_InitParticles
===============
*/
static void PScript_InitParticles (void)
{
int i;
if (r_numparticles) //already inited
return;
i = COM_CheckParm ("-particles");
if (i)
{
r_numparticles = (int)(Q_atoi(com_argv[i+1]));
}
else
{
r_numparticles = MAX_PARTICLES;
}
r_numbeams = MAX_BEAMSEGS;
r_numdecals = MAX_DECALS;
r_numtrailstates = MAX_TRAILSTATES;
particles = (particle_t *)
BZ_Malloc (r_numparticles * sizeof(particle_t));
beams = (beamseg_t *)
BZ_Malloc (r_numbeams * sizeof(beamseg_t));
decals = (clippeddecal_t *)
BZ_Malloc (r_numdecals * sizeof(clippeddecal_t));
trailstates = (trailstate_t *)
BZ_Malloc (r_numtrailstates * sizeof(trailstate_t));
memset(trailstates, 0, r_numtrailstates * sizeof(trailstate_t));
ts_cycle = 0;
Cmd_AddRemCommand("pointfile", P_ReadPointFile_f); //load the leak info produced from qbsp into the particle system to show a line. :)
Cmd_AddRemCommand("r_part", P_ParticleEffect_f);
Cmd_AddRemCommand("r_effect", P_AssosiateEffect_f);
Cmd_AddRemCommand("r_trail", P_AssosiateTrail_f);
Cmd_AddRemCommand("r_exportbuiltinparticles", P_ExportBuiltinSet_f);
#if _DEBUG
Cmd_AddRemCommand("r_partinfo", P_PartInfo_f);
Cmd_AddRemCommand("r_beaminfo", P_BeamInfo_f);
#endif
CL_RegisterParticles();
pt_pointfile = P_AllocateParticleType("PT_POINTFILE");
pe_default = P_AllocateParticleType("PE_DEFAULT");
pe_size2 = P_AllocateParticleType("PE_SIZE2");
pe_size3 = P_AllocateParticleType("PE_SIZE3");
pe_defaulttrail = P_AllocateParticleType("PE_DEFAULTTRAIL");
Cvar_Hook(&r_particlesdesc, R_ParticlesDesc_Callback);
Cvar_ForceCallback(&r_particlesdesc);
}
static void PScript_Shutdown (void)
{
Cvar_Unhook(&r_particlesdesc);
Cmd_RemoveCommand("pointfile"); //load the leak info produced from qbsp into the particle system to show a line. :)
Cmd_RemoveCommand("r_part");
Cmd_RemoveCommand("r_effect");
Cmd_RemoveCommand("r_trail");
Cmd_RemoveCommand("r_exportbuiltinparticles");
#if _DEBUG
Cmd_RemoveCommand("r_partinfo");
Cmd_RemoveCommand("r_beaminfo");
#endif
BZ_Free (particles);
BZ_Free (beams);
BZ_Free (decals);
BZ_Free (trailstates);
r_numparticles = 0;
}
/*
===============
P_ClearParticles
===============
*/
static void PScript_ClearParticles (void)
{
int i;
free_particles = &particles[0];
for (i=0 ;i<r_numparticles ; i++)
particles[i].next = &particles[i+1];
particles[r_numparticles-1].next = NULL;
free_decals = &decals[0];
for (i=0 ;i<r_numdecals ; i++)
decals[i].next = &decals[i+1];
decals[r_numdecals-1].next = NULL;
free_beams = &beams[0];
for (i=0 ;i<r_numbeams ; i++)
{
beams[i].p = NULL;
beams[i].flags = BS_DEAD;
beams[i].next = &beams[i+1];
}
beams[r_numbeams-1].next = NULL;
particletime = cl.time;
for (i = 0; i < numparticletypes; i++)
{
P_LoadTexture(&part_type[i], false);
}
for (i = 0; i < numparticletypes; i++)
{
part_type[i].clippeddecals = NULL;
part_type[i].particles = NULL;
part_type[i].beams = NULL;
part_type[i].skytris = NULL;
}
}
static void P_ExportBuiltinSet_f(void)
{
char *efname = Cmd_Argv(1);
char *file;
if (!*efname)
{
Con_Printf("Please name the built in effect (faithful, spikeset, tsshaft, minimal or highfps)\n");
return;
}
else if (!stricmp(efname, "faithful"))
file = particle_set_faithful;
else if (!stricmp(efname, "spikeset"))
file = particle_set_spikeset;
else if (!stricmp(efname, "highfps"))
file = particle_set_highfps;
else if (!stricmp(efname, "minimal"))
file = particle_set_minimal;
else if (!stricmp(efname, "tsshaft"))
file = particle_set_tsshaft;
else
{
if (!stricmp(efname, "none"))
{
Con_Printf("nothing to export\n");
return;
}
Con_Printf("'%s' is not a built in particle set\n", efname);
return;
}
COM_WriteFile(va("particles/%s.cfg", efname), file, strlen(file));
Con_Printf("Written particles/%s.cfg\n", efname);
}
static void P_LoadParticleSet(char *name, qboolean first)
{
int restrictlevel = Cmd_FromGamecode() ? RESTRICT_SERVER : RESTRICT_LOCAL;
//particle descriptions submitted by the server are deemed to not be cheats but game configs.
if (!stricmp(name, "none"))
return;
else if (!stricmp(name, "faithful") || (first && !*name))
Cbuf_AddText(particle_set_faithful, RESTRICT_LOCAL);
else if (!stricmp(name, "spikeset"))
Cbuf_AddText(particle_set_spikeset, RESTRICT_LOCAL);
else if (!stricmp(name, "highfps"))
Cbuf_AddText(particle_set_highfps, RESTRICT_LOCAL);
else if (!stricmp(name, "minimal"))
Cbuf_AddText(particle_set_minimal, RESTRICT_LOCAL);
else if (!stricmp(name, "tsshaft"))
Cbuf_AddText(particle_set_tsshaft, RESTRICT_LOCAL);
else
{
char *file;
FS_LoadFile(va("particles/%s.cfg", name), (void**)&file);
if (!file)
FS_LoadFile(va("%s.cfg", name), (void**)&file);
if (file)
{
Cbuf_AddText(file, restrictlevel);
Cbuf_AddText("\n", restrictlevel);
FS_FreeFile(file);
}
else if (first)
{
Con_Printf(CON_WARNING "Couldn't find particle description %s, using spikeset\n", name);
Cbuf_AddText(particle_set_spikeset, RESTRICT_LOCAL);
}
else
Con_Printf(CON_WARNING "Couldn't find particle description %s\n", name);
}
}
static void R_ParticlesDesc_Callback(struct cvar_s *var, char *oldvalue)
{
extern model_t mod_known[];
extern int mod_numknown;
qboolean first;
model_t *mod;
int i;
char *c;
if (cls.state == ca_disconnected)
return; // don't bother parsing while disconnected
for (i = 0; i < numparticletypes; i++)
{
*part_type[i].texname = '\0';
part_type[i].scale = 0;
part_type[i].loaded = 0;
if (part_type->ramp)
BZ_Free(part_type->ramp);
part_type->ramp = NULL;
}
for (i=0 , mod=mod_known ; i<mod_numknown ; i++, mod++)
{
mod->particleeffect = P_INVALID;
mod->particletrail = P_INVALID;
mod->engineflags &= ~MDLF_NODEFAULTTRAIL;
P_DefaultTrail(mod);
}
f_modified_particles = false;
first = true;
for (c = COM_ParseStringSet(var->string); com_token[0]; c = COM_ParseStringSet(c))
{
P_LoadParticleSet(com_token, first);
first = false;
}
}
static void P_ReadPointFile_f (void)
{
vfsfile_t *f;
vec3_t org;
//int r; //unreferenced
int c;
char name[MAX_OSPATH];
char line[1024];
char *s;
COM_StripExtension(cl.worldmodel->name, name, sizeof(name));
strcat(name, ".pts");
f = FS_OpenVFS(name, "rb", FS_GAME);
if (!f)
{
Con_Printf ("couldn't open %s\n", name);
return;
}
P_ClearParticles(); //so overflows arn't as bad.
Con_Printf ("Reading %s...\n", name);
c = 0;
for ( ;; )
{
VFS_GETS(f, line, sizeof(line));
s = COM_Parse(line);
org[0] = atof(com_token);
s = COM_Parse(s);
if (!s)
continue;
org[1] = atof(com_token);
s = COM_Parse(s);
if (!s)
continue;
org[2] = atof(com_token);
if (COM_Parse(s))
continue;
c++;
if (c%8)
continue;
if (!free_particles)
{
Con_Printf ("Not enough free particles\n");
break;
}
P_RunParticleEffectType(org, NULL, 1, pt_pointfile);
}
VFS_CLOSE (f);
Con_Printf ("%i points read\n", c);
}
static void P_AddRainParticles(void)
{
float x;
float y;
static float skipped;
static float lastrendered;
int ptype;
vec3_t org, vdist;
skytris_t *st;
if (!r_part_rain.value || !r_part_rain_quantity.value)
{
skipped = true;
return;
}
if (lastrendered < particletime - 0.5)
skipped = true; //we've gone for half a sec without any new rain. This would cause some strange effects, so reset times.
if (skipped)
{
for (ptype = 0; ptype<numparticletypes; ptype++)
{
for (st = part_type[ptype].skytris; st; st = st->next)
{
st->nexttime = particletime;
}
}
}
skipped = false;
lastrendered = particletime;
/*
{
int i;
glDisable(GL_TEXTURE_2D);
glPolygonMode(GL_FRONT_AND_BACK, GL_LINE);
glDisable(GL_DEPTH_TEST);
glBegin(GL_TRIANGLES);
st = skytris;
for (i = 0; i < r_part_rain_quantity.value; i++)
st = st->next;
glVertex3f(st->org[0], st->org[1], st->org[2]);
glVertex3f(st->org[0]+st->x[0], st->org[1]+st->x[1], st->org[2]+st->x[2]);
glVertex3f(st->org[0]+st->y[0], st->org[1]+st->y[1], st->org[2]+st->y[2]);
glEnd();
glPolygonMode(GL_FRONT_AND_BACK, GL_FILL);
glBegin(GL_POINTS);
for (i = 0; i < 1000; i++)
{
x = frandom()*frandom();
y = frandom() * (1-x);
VectorMA(st->org, x, st->x, org);
VectorMA(org, y, st->y, org);
glVertex3f(org[0], org[1], org[2]);
}
glEnd();
glEnable(GL_DEPTH_TEST);
}
*/
for (ptype = 0; ptype<numparticletypes; ptype++)
{
if (!part_type[ptype].loaded) //woo, batch skipping.
continue;
for (st = part_type[ptype].skytris; st; st = st->next)
{
// if (st->face->visframe != r_framecount)
// continue;
if (st->face->visframe != r_framecount)
{
st->nexttime = particletime;
continue;
}
while (st->nexttime < particletime)
{
if (!free_particles)
return;
st->nexttime += 10000/(st->area*r_part_rain_quantity.value);
x = frandom()*frandom();
y = frandom() * (1-x);
VectorMA(st->org, x, st->x, org);
VectorMA(org, y, st->y, org);
VectorSubtract(org, r_refdef.vieworg, vdist);
if (Length(vdist) > (1024+512)*frandom())
continue;
if (st->face->flags & SURF_PLANEBACK)
VectorMA(org, -0.5, st->face->plane->normal, org);
else
VectorMA(org, 0.5, st->face->plane->normal, org);
if (!(cl.worldmodel->funcs.PointContents(cl.worldmodel, org) & FTECONTENTS_SOLID))
{
if (st->face->flags & SURF_PLANEBACK)
{
vdist[0] = -st->face->plane->normal[0];
vdist[1] = -st->face->plane->normal[1];
vdist[2] = -st->face->plane->normal[2];
P_RunParticleEffectType(org, vdist, 1, ptype);
}
else
P_RunParticleEffectType(org, st->face->plane->normal, 1, ptype);
}
}
}
}
}
static void R_Part_SkyTri(float *v1, float *v2, float *v3, msurface_t *surf)
{
float dot;
float xm;
float ym;
float theta;
vec3_t xd;
vec3_t yd;
skytris_t *st;
st = Hunk_Alloc(sizeof(skytris_t));
st->next = part_type[surf->texinfo->texture->parttype].skytris;
VectorCopy(v1, st->org);
VectorSubtract(v2, st->org, st->x);
VectorSubtract(v3, st->org, st->y);
VectorCopy(st->x, xd);
VectorCopy(st->y, yd);
/*
xd[2] = 0; //prevent area from being valid on vertical surfaces
yd[2] = 0;
*/
xm = Length(xd);
ym = Length(yd);
dot = DotProduct(xd, yd);
theta = acos(dot/(xm*ym));
st->area = sin(theta)*xm*ym;
st->nexttime = particletime;
st->face = surf;
if (st->area<=0)
return;//bummer.
part_type[surf->texinfo->texture->parttype].skytris = st;
}
static void PScript_EmitSkyEffectTris(model_t *mod, msurface_t *fa)
{
vec3_t verts[64];
int v1;
int v2;
int v3;
int numverts;
int i, lindex;
float *vec;
//
// convert edges back to a normal polygon
//
numverts = 0;
for (i=0 ; i<fa->numedges ; i++)
{
lindex = mod->surfedges[fa->firstedge + i];
if (lindex > 0)
vec = mod->vertexes[mod->edges[lindex].v[0]].position;
else
vec = mod->vertexes[mod->edges[-lindex].v[1]].position;
VectorCopy (vec, verts[numverts]);
numverts++;
if (numverts>=64)
{
Con_Printf("Too many verts on sky surface\n");
return;
}
}
v1 = 0;
v2 = 1;
for (v3 = 2; v3 < numverts; v3++)
{
R_Part_SkyTri(verts[v1], verts[v2], verts[v3], fa);
v2 = v3;
}
}
// Trailstate functions
static void P_CleanTrailstate(trailstate_t *ts)
{
// clear LASTSEG flag from lastbeam so it can be reused
if (ts->lastbeam)
{
ts->lastbeam->flags &= ~BS_LASTSEG;
ts->lastbeam->flags |= BS_NODRAW;
}
// clean structure
memset(ts, 0, sizeof(trailstate_t));
}
static void PScript_DelinkTrailstate(trailstate_t **tsk)
{
trailstate_t *ts;
trailstate_t *assoc;
if (*tsk == NULL)
return; // not linked to a trailstate
ts = *tsk; // store old pointer
*tsk = NULL; // clear pointer
if (ts->key != tsk)
return; // prevent overwrite
assoc = ts->assoc; // store assoc
P_CleanTrailstate(ts); // clean directly linked trailstate
// clean trailstates assoc linked
while (assoc)
{
ts = assoc->assoc;
P_CleanTrailstate(assoc);
assoc = ts;
}
}
static trailstate_t *P_NewTrailstate(trailstate_t **key)
{
trailstate_t *ts;
// bounds check here in case r_numtrailstates changed
if (ts_cycle >= r_numtrailstates)
ts_cycle = 0;
// get trailstate
ts = trailstates + ts_cycle;
// clear trailstate
P_CleanTrailstate(ts);
// set key
ts->key = key;
// advance index cycle
ts_cycle++;
// return clean trailstate
return ts;
}
#define NUMVERTEXNORMALS 162
static float r_avertexnormals[NUMVERTEXNORMALS][3] = {
#include "anorms.h"
};
static vec2_t avelocities[NUMVERTEXNORMALS];
#define BEAMLENGTH 16
// vec3_t avelocity = {23, 7, 3};
// float partstep = 0.01;
// float timescale = 0.01;
int Q1BSP_ClipDecal(vec3_t center, vec3_t normal, vec3_t tangent, vec3_t tangent2, float size, float **out);
static int PScript_RunParticleEffectState (vec3_t org, vec3_t dir, float count, int typenum, trailstate_t **tsk)
{
part_type_t *ptype = &part_type[typenum];
int i, j, k, l, spawnspc;
float m, pcount;
particle_t *p;
beamseg_t *b, *bfirst;
vec3_t ofsvec, arsvec; // offsetspread vec, areaspread vec
trailstate_t *ts;
if (typenum < 0 || typenum >= numparticletypes)
return 1;
if (!ptype->loaded)
return 1;
// inwater check, switch only once
if (r_part_contentswitch.value && ptype->inwater >= 0 && cl.worldmodel)
{
int cont;
cont = cl.worldmodel->funcs.PointContents(cl.worldmodel, org);
if (cont & FTECONTENTS_WATER)
ptype = &part_type[ptype->inwater];
}
// eliminate trailstate if flag set
if (ptype->flags & PT_NOSTATE)
tsk = NULL;
// trailstate allocation/deallocation
if (tsk)
{
// if *tsk = NULL get a new one
if (*tsk == NULL)
{
ts = P_NewTrailstate(tsk);
*tsk = ts;
}
else
{
ts = *tsk;
if (ts->key != tsk) // trailstate was overwritten
{
ts = P_NewTrailstate(tsk); // so get a new one
*tsk = ts;
}
}
}
else
ts = NULL;
if (ptype->looks.type == PT_DECAL)
{
clippeddecal_t *d;
int decalcount;
float dist;
vec3_t tangent, t2;
vec3_t vec={0.5, 0.5, 0.5};
float *decverts;
int i;
trace_t tr;
vec3_t bestdir;
if (!free_decals)
return 0;
if (!dir)
{
bestdir[0] = 0;
bestdir[1] = 0.73;
bestdir[2] = 0.73;
dist = 1;
for (i = 0; i < 6; i++)
{
if (i >= 3)
{
t2[0] = ((i&3)==0)*8;
t2[1] = ((i&3)==1)*8;
t2[2] = ((i&3)==2)*8;
}
else
{
t2[0] = -((i&3)==0)*8;
t2[1] = -((i&3)==1)*8;
t2[2] = -((i&3)==2)*8;
}
VectorSubtract(org, t2, tangent);
VectorAdd(org, t2, t2);
if (cl.worldmodel->funcs.Trace (cl.worldmodel, 0, 0,tangent, t2, vec3_origin, vec3_origin, &tr))
{
if (tr.fraction < dist)
{
dist = tr.fraction;
VectorCopy(tr.plane.normal, bestdir);
}
}
}
dir = bestdir;
}
VectorInverse(dir);
VectorNormalize(dir);
VectorNormalize(vec);
CrossProduct(dir, vec, tangent);
CrossProduct(dir, tangent, t2);
decalcount = Q1BSP_ClipDecal(org, dir, tangent, t2, ptype->scale, &decverts);
while(decalcount)
{
if (!free_decals)
break;
d = free_decals;
free_decals = d->next;
d->next = ptype->clippeddecals;
ptype->clippeddecals = d;
VectorCopy((decverts+0), d->vertex[0]);
VectorCopy((decverts+3), d->vertex[1]);
VectorCopy((decverts+6), d->vertex[2]);
for (i = 0; i < 3; i++)
{
VectorSubtract(d->vertex[i], org, vec);
d->texcoords[i][0] = (DotProduct(vec, t2)/ptype->scale)+0.5;
d->texcoords[i][1] = (DotProduct(vec, tangent)/ptype->scale)+0.5;
}
d->die = ptype->randdie*frandom();
if (ptype->die)
d->alpha = ptype->alpha+d->die*ptype->alphachange;
else
d->alpha = ptype->alpha;
if (ptype->colorindex >= 0)
{
int cidx;
cidx = ptype->colorrand > 0 ? rand() % ptype->colorrand : 0;
cidx = ptype->colorindex + cidx;
if (cidx > 255)
d->alpha = d->alpha / 2; // Hexen 2 style transparency
cidx = (cidx & 0xff) * 3;
d->rgb[0] = host_basepal[cidx] * (1/255.0);
d->rgb[1] = host_basepal[cidx+1] * (1/255.0);
d->rgb[2] = host_basepal[cidx+2] * (1/255.0);
}
else
VectorCopy(ptype->rgb, d->rgb);
vec[2] = frandom();
vec[0] = vec[2]*ptype->rgbrandsync[0] + frandom()*(1-ptype->rgbrandsync[0]);
vec[1] = vec[2]*ptype->rgbrandsync[1] + frandom()*(1-ptype->rgbrandsync[1]);
vec[2] = vec[2]*ptype->rgbrandsync[2] + frandom()*(1-ptype->rgbrandsync[2]);
d->rgb[0] += vec[0]*ptype->rgbrand[0] + ptype->rgbchange[0]*d->die;
d->rgb[1] += vec[1]*ptype->rgbrand[1] + ptype->rgbchange[1]*d->die;
d->rgb[2] += vec[2]*ptype->rgbrand[2] + ptype->rgbchange[2]*d->die;
d->die = particletime + ptype->die - d->die;
decverts += 3*3;
decalcount--;
// maintain run list
if (!(ptype->state & PS_INRUNLIST))
{
ptype->nexttorun = part_run_list;
part_run_list = ptype;
ptype->state |= PS_INRUNLIST;
}
}
return 0;
}
// get msvc to shut up
j = k = l = 0;
m = 0;
while(ptype)
{
// init spawn specific variables
b = bfirst = NULL;
spawnspc = 8;
pcount = count*(ptype->count+ptype->countrand*frandom());
if (ptype->flags & PT_INVFRAMETIME)
pcount /= host_frametime;
if (ts)
pcount += ts->state2.emittime;
switch (ptype->spawnmode)
{
case SM_UNICIRCLE:
m = pcount;
if (ptype->looks.type == PT_BEAM)
m--;
if (m < 1)
m = 0;
else
m = (M_PI*2)/m;
if (ptype->spawnparam1) /* use for weird shape hacks */
m *= ptype->spawnparam1;
break;
case SM_TELEBOX:
spawnspc = 4;
l = -ptype->areaspreadvert;
case SM_LAVASPLASH:
j = k = -ptype->areaspread;
if (ptype->spawnparam1)
m = ptype->spawnparam1;
else
m = 0.55752; /* default weird number for tele/lavasplash used in vanilla Q1 */
if (ptype->spawnparam2)
spawnspc = (int)ptype->spawnparam2;
break;
case SM_FIELD:
if (!avelocities[0][0])
{
for (j=0 ; j<NUMVERTEXNORMALS*2 ; j++)
avelocities[0][j] = (rand()&255) * 0.01;
}
j = 0;
m = 0;
break;
default: //others don't need intitialisation
break;
}
// time limit (for completeness)
if (ptype->spawntime && ts)
{
if (ts->state1.statetime > particletime)
return 0; // timelimit still in effect
ts->state1.statetime = particletime + ptype->spawntime; // record old time
}
// random chance for point effects
if (ptype->spawnchance < frandom())
{
i = ceil(pcount);
break;
}
if (!ptype->die && ptype->count == 1 && ptype->countrand == 0)
{
i = 0;
pcount = 1;
}
// particle spawning loop
for (i = 0; i < pcount; i++)
{
if (!free_particles)
break;
p = free_particles;
if (ptype->looks.type == PT_BEAM)
{
if (!free_beams)
break;
if (b)
{
b = b->next = free_beams;
free_beams = free_beams->next;
}
else
{
b = bfirst = free_beams;
free_beams = free_beams->next;
}
b->texture_s = i; // TODO: FIX THIS NUMBER
b->flags = 0;
b->p = p;
VectorClear(b->dir);
}
free_particles = p->next;
p->next = ptype->particles;
ptype->particles = p;
p->die = ptype->randdie*frandom();
p->scale = ptype->scale+ptype->randscale*frandom();
if (ptype->die)
p->alpha = ptype->alpha+p->die*ptype->alphachange;
else
p->alpha = ptype->alpha;
// p->color = 0;
if (ptype->emittime < 0)
p->state.trailstate = NULL;
else
p->state.nextemit = particletime + ptype->emitstart - p->die;
p->rotationspeed = ptype->rotationmin + frandom()*ptype->rotationrand;
p->angle = ptype->rotationstartmin + frandom()*ptype->rotationstartrand;
if (ptype->colorindex >= 0)
{
int cidx;
cidx = ptype->colorrand > 0 ? rand() % ptype->colorrand : 0;
cidx = ptype->colorindex + cidx;
if (cidx > 255)
p->alpha = p->alpha / 2; // Hexen 2 style transparency
cidx = (cidx & 0xff) * 3;
p->rgb[0] = host_basepal[cidx] * (1/255.0);
p->rgb[1] = host_basepal[cidx+1] * (1/255.0);
p->rgb[2] = host_basepal[cidx+2] * (1/255.0);
}
else
VectorCopy(ptype->rgb, p->rgb);
// use org temporarily for rgbsync
p->org[2] = frandom();
p->org[0] = p->org[2]*ptype->rgbrandsync[0] + frandom()*(1-ptype->rgbrandsync[0]);
p->org[1] = p->org[2]*ptype->rgbrandsync[1] + frandom()*(1-ptype->rgbrandsync[1]);
p->org[2] = p->org[2]*ptype->rgbrandsync[2] + frandom()*(1-ptype->rgbrandsync[2]);
p->rgb[0] += p->org[0]*ptype->rgbrand[0] + ptype->rgbchange[0]*p->die;
p->rgb[1] += p->org[1]*ptype->rgbrand[1] + ptype->rgbchange[1]*p->die;
p->rgb[2] += p->org[2]*ptype->rgbrand[2] + ptype->rgbchange[2]*p->die;
// randomvel
p->vel[0] = crandom()*ptype->randomvel;
p->vel[1] = crandom()*ptype->randomvel;
p->vel[2] = crandom()*ptype->randomvelvert;
// handle spawn modes (org/vel)
switch (ptype->spawnmode)
{
case SM_BOX:
ofsvec[0] = crandom();
ofsvec[1] = crandom();
ofsvec[2] = crandom();
arsvec[0] = ofsvec[0]*ptype->areaspread;
arsvec[1] = ofsvec[1]*ptype->areaspread;
arsvec[2] = ofsvec[2]*ptype->areaspreadvert;
break;
case SM_TELEBOX:
ofsvec[0] = k;
ofsvec[1] = j;
ofsvec[2] = l+4;
VectorNormalize(ofsvec);
VectorScale(ofsvec, 1.0-(frandom())*m, ofsvec);
// org is just like the original
arsvec[0] = j + (rand()%spawnspc);
arsvec[1] = k + (rand()%spawnspc);
arsvec[2] = l + (rand()%spawnspc);
// advance telebox loop
j += spawnspc;
if (j >= ptype->areaspread)
{
j = -ptype->areaspread;
k += spawnspc;
if (k >= ptype->areaspread)
{
k = -ptype->areaspread;
l += spawnspc;
if (l >= ptype->areaspreadvert)
l = -ptype->areaspreadvert;
}
}
break;
case SM_LAVASPLASH:
// calc directions, org with temp vector
ofsvec[0] = k + (rand()%spawnspc);
ofsvec[1] = j + (rand()%spawnspc);
ofsvec[2] = 256;
arsvec[0] = ofsvec[0];
arsvec[1] = ofsvec[1];
arsvec[2] = frandom()*ptype->areaspreadvert;
VectorNormalize(ofsvec);
VectorScale(ofsvec, 1.0-(frandom())*m, ofsvec);
// advance splash loop
j += spawnspc;
if (j >= ptype->areaspread)
{
j = -ptype->areaspread;
k += spawnspc;
if (k >= ptype->areaspread)
k = -ptype->areaspread;
}
break;
case SM_UNICIRCLE:
ofsvec[0] = cos(m*i);
ofsvec[1] = sin(m*i);
ofsvec[2] = 0;
VectorScale(ofsvec, ptype->areaspread, arsvec);
break;
case SM_FIELD:
arsvec[0] = cl.time * (avelocities[i][0] + m);
arsvec[1] = cl.time * (avelocities[i][1] + m);
arsvec[2] = cos(arsvec[1]);
ofsvec[0] = arsvec[2]*cos(arsvec[0]);
ofsvec[1] = arsvec[2]*sin(arsvec[0]);
ofsvec[2] = -sin(arsvec[1]);
arsvec[0] = r_avertexnormals[j][0]*ptype->areaspread + ofsvec[0]*BEAMLENGTH;
arsvec[1] = r_avertexnormals[j][1]*ptype->areaspread + ofsvec[1]*BEAMLENGTH;
arsvec[2] = r_avertexnormals[j][2]*ptype->areaspreadvert + ofsvec[2]*BEAMLENGTH;
VectorNormalize(ofsvec);
j++;
if (j >= NUMVERTEXNORMALS)
{
j = 0;
m += 0.1762891; // some BS number to try to "randomize" things
}
break;
case SM_DISTBALL:
{
float rdist;
rdist = ptype->spawnparam2 - crandom()*(1-(crandom() * ptype->spawnparam1));
// this is a strange spawntype, which is based on the fact that
// crandom()*crandom() provides something similar to an exponential
// probability curve
ofsvec[0] = hrandom();
ofsvec[1] = hrandom();
if (ptype->areaspreadvert)
ofsvec[2] = hrandom();
else
ofsvec[2] = 0;
VectorNormalize(ofsvec);
VectorScale(ofsvec, rdist, ofsvec);
arsvec[0] = ofsvec[0]*ptype->areaspread;
arsvec[1] = ofsvec[1]*ptype->areaspread;
arsvec[2] = ofsvec[2]*ptype->areaspreadvert;
}
break;
default: // SM_BALL, SM_CIRCLE
ofsvec[0] = hrandom();
ofsvec[1] = hrandom();
if (ptype->areaspreadvert)
ofsvec[2] = hrandom();
else
ofsvec[2] = 0;
VectorNormalize(ofsvec);
if (ptype->spawnmode != SM_CIRCLE)
VectorScale(ofsvec, frandom(), ofsvec);
arsvec[0] = ofsvec[0]*ptype->areaspread;
arsvec[1] = ofsvec[1]*ptype->areaspread;
arsvec[2] = ofsvec[2]*ptype->areaspreadvert;
break;
}
p->org[0] = org[0] + arsvec[0];
p->org[1] = org[1] + arsvec[1];
p->org[2] = org[2] + arsvec[2] + ptype->offsetup;
// apply arsvec+ofsvec
if (dir)
{
p->vel[0] += dir[0]*ptype->veladd+ofsvec[0]*ptype->offsetspread;
p->vel[1] += dir[1]*ptype->veladd+ofsvec[1]*ptype->offsetspread;
p->vel[2] += dir[2]*ptype->veladd+ofsvec[2]*ptype->offsetspreadvert;
p->org[0] += dir[0]*ptype->orgadd;
p->org[1] += dir[1]*ptype->orgadd;
p->org[2] += dir[2]*ptype->orgadd;
}
else
{
p->vel[0] += ofsvec[0]*ptype->offsetspread;
p->vel[1] += ofsvec[1]*ptype->offsetspread;
p->vel[2] += ofsvec[2]*ptype->offsetspreadvert - ptype->veladd;
p->org[2] -= ptype->orgadd;
}
p->die = particletime + ptype->die - p->die;
}
// update beam list
if (ptype->looks.type == PT_BEAM)
{
if (b)
{
// update dir for bfirst for certain modes since it will never get updated
switch (ptype->spawnmode)
{
case SM_UNICIRCLE:
// kinda hackish here, assuming ofsvec contains the point at i-1
arsvec[0] = cos(m*(i-2));
arsvec[1] = sin(m*(i-2));
arsvec[2] = 0;
VectorSubtract(ofsvec, arsvec, bfirst->dir);
VectorNormalize(bfirst->dir);
break;
default:
break;
}
b->flags |= BS_NODRAW;
b->next = ptype->beams;
ptype->beams = bfirst;
}
}
// save off emit times in trailstate
if (ts)
ts->state2.emittime = pcount - i;
// maintain run list
if (!(ptype->state & PS_INRUNLIST))
{
ptype->nexttorun = part_run_list;
part_run_list = ptype;
ptype->state |= PS_INRUNLIST;
}
// go to next associated effect
if (ptype->assoc < 0)
break;
// new trailstate
if (ts)
{
tsk = &(ts->assoc);
// if *tsk = NULL get a new one
if (*tsk == NULL)
{
ts = P_NewTrailstate(tsk);
*tsk = ts;
}
else
{
ts = *tsk;
if (ts->key != tsk) // trailstate was overwritten
{
ts = P_NewTrailstate(tsk); // so get a new one
*tsk = ts;
}
}
}
ptype = &part_type[ptype->assoc];
}
return 0;
}
static int PScript_RunParticleEffectTypeString (vec3_t org, vec3_t dir, float count, char *name)
{
int type = P_FindParticleType(name);
if (type < 0)
return 1;
return P_RunParticleEffectType(org, dir, count, type);
}
/*
===============
P_RunParticleEffect
===============
*/
static void PScript_RunParticleEffect (vec3_t org, vec3_t dir, int color, int count)
{
int ptype;
ptype = P_FindParticleType(va("pe_%i", color));
if (P_RunParticleEffectType(org, dir, count, ptype))
{
color &= ~0x7;
if (count > 130 && part_type[pe_size3].loaded)
{
part_type[pe_size3].colorindex = color;
part_type[pe_size3].colorrand = 8;
P_RunParticleEffectType(org, dir, count, pe_size3);
return;
}
if (count > 20 && part_type[pe_size2].loaded)
{
part_type[pe_size2].colorindex = color;
part_type[pe_size2].colorrand = 8;
P_RunParticleEffectType(org, dir, count, pe_size2);
return;
}
part_type[pe_default].colorindex = color;
part_type[pe_default].colorrand = 8;
P_RunParticleEffectType(org, dir, count, pe_default);
return;
}
}
//h2 stylie
static void PScript_RunParticleEffect2 (vec3_t org, vec3_t dmin, vec3_t dmax, int color, int effect, int count)
{
int i, j;
float num;
float invcount;
vec3_t nvel;
int ptype = P_FindParticleType(va("pe2_%i_%i", effect, color));
if (ptype < 0)
{
ptype = P_FindParticleType(va("pe2_%i", effect));
if (ptype < 0)
ptype = pe_default;
part_type[ptype].colorindex = color;
}
invcount = 1/part_type[ptype].count; // using this to get R_RPET to always spawn 1
count = count * part_type[ptype].count;
for (i=0 ; i<count ; i++)
{
if (!free_particles)
return;
for (j=0 ; j<3 ; j++)
{
num = rand() / (float)RAND_MAX;
nvel[j] = dmin[j] + ((dmax[j] - dmin[j]) * num);
}
P_RunParticleEffectType(org, nvel, invcount, ptype);
}
}
/*
===============
P_RunParticleEffect3
===============
*/
//h2 stylie
static void PScript_RunParticleEffect3 (vec3_t org, vec3_t box, int color, int effect, int count)
{
int i, j;
vec3_t nvel;
float num;
float invcount;
int ptype = P_FindParticleType(va("pe3_%i_%i", effect, color));
if (ptype < 0)
{
ptype = P_FindParticleType(va("pe3_%i", effect));
if (ptype < 0)
ptype = pe_default;
part_type[ptype].colorindex = color;
}
invcount = 1/part_type[ptype].count; // using this to get R_RPET to always spawn 1
count = count * part_type[ptype].count;
for (i=0 ; i<count ; i++)
{
if (!free_particles)
return;
for (j=0 ; j<3 ; j++)
{
num = rand() / (float)RAND_MAX;
nvel[j] = (box[j] * num * 2) - box[j];
}
P_RunParticleEffectType(org, nvel, invcount, ptype);
}
}
/*
===============
P_RunParticleEffect4
===============
*/
//h2 stylie
static void PScript_RunParticleEffect4 (vec3_t org, float radius, int color, int effect, int count)
{
int i, j;
vec3_t nvel;
float num;
float invcount;
int ptype = P_FindParticleType(va("pe4_%i_%i", effect, color));
if (ptype < 0)
{
ptype = P_FindParticleType(va("pe4_%i", effect));
if (ptype < 0)
ptype = pe_default;
part_type[ptype].colorindex = color;
}
invcount = 1/part_type[ptype].count; // using this to get R_RPET to always spawn 1
count = count * part_type[ptype].count;
for (i=0 ; i<count ; i++)
{
if (!free_particles)
return;
for (j=0 ; j<3 ; j++)
{
num = rand() / (float)RAND_MAX;
nvel[j] = (radius * num * 2) - radius;
}
P_RunParticleEffectType(org, nvel, invcount, ptype);
}
}
static void PScript_RunParticleCube(vec3_t minb, vec3_t maxb, vec3_t dir, float count, int colour, qboolean gravity, float jitter)
{
vec3_t org;
int i, j;
float num;
float invcount;
int ptype = P_FindParticleType(va("te_cube%s_%i", gravity?"_g":"", colour));
if (ptype < 0)
{
ptype = P_FindParticleType(va("te_cube%s", gravity?"_g":""));
if (ptype < 0)
ptype = pe_default;
part_type[ptype].colorindex = colour;
}
invcount = 1/part_type[ptype].count; // using this to get R_RPET to always spawn 1
count = count * part_type[ptype].count;
for (i=0 ; i<count ; i++)
{
if (!free_particles)
return;
for (j=0 ; j<3 ; j++)
{
num = rand() / (float)RAND_MAX;
org[j] = minb[j] + num*(maxb[j]-minb[j]);
}
P_RunParticleEffectType(org, dir, invcount, ptype);
}
}
static void PScript_RunParticleWeather(vec3_t minb, vec3_t maxb, vec3_t dir, float count, int colour, char *efname)
{
vec3_t org;
int i, j;
float num;
float invcount;
int ptype = P_FindParticleType(va("te_%s_%i", efname, colour));
if (ptype < 0)
{
ptype = P_FindParticleType(va("te_%s", efname));
if (ptype < 0)
ptype = pe_default;
part_type[ptype].colorindex = colour;
}
invcount = 1/part_type[ptype].count; // using this to get R_RPET to always spawn 1
count = count * part_type[ptype].count;
for (i=0 ; i<count ; i++)
{
if (!free_particles)
return;
for (j=0 ; j<3 ; j++)
{
num = rand() / (float)RAND_MAX;
org[j] = minb[j] + num*(maxb[j]-minb[j]);
}
P_RunParticleEffectType(org, dir, invcount, ptype);
}
}
static void P_ParticleTrailDraw (vec3_t startpos, vec3_t end, part_type_t *ptype, trailstate_t **tsk)
{
vec3_t vec, vstep, right, up, start;
float len;
int tcount;
particle_t *p;
beamseg_t *b;
beamseg_t *bfirst;
trailstate_t *ts;
float veladd = -ptype->veladd;
float randvel = ptype->randomvel;
float randvelvert = ptype->randomvelvert;
float step;
float stop;
float tdegree = 2*M_PI/256; /* MSVC whine */
float sdegree = 0;
float nrfirst, nrlast;
VectorCopy(startpos, start);
// eliminate trailstate if flag set
if (ptype->flags & PT_NOSTATE)
tsk = NULL;
// trailstate allocation/deallocation
if (tsk)
{
// if *tsk = NULL get a new one
if (*tsk == NULL)
{
ts = P_NewTrailstate(tsk);
*tsk = ts;
}
else
{
ts = *tsk;
if (ts->key != tsk) // trailstate was overwritten
{
ts = P_NewTrailstate(tsk); // so get a new one
*tsk = ts;
}
}
}
else
ts = NULL;
if (ptype->assoc>=0)
{
if (ts)
P_ParticleTrail(start, end, ptype->assoc, &(ts->assoc));
else
P_ParticleTrail(start, end, ptype->assoc, NULL);
}
// time limit for trails
if (ptype->spawntime && ts)
{
if (ts->state1.statetime > particletime)
return; // timelimit still in effect
ts->state1.statetime = particletime + ptype->spawntime; // record old time
ts = NULL; // clear trailstate so we don't save length/lastseg
}
// random chance for trails
if (ptype->spawnchance < frandom())
return; // don't spawn but return success
if (!ptype->die)
ts = NULL;
// use ptype step to calc step vector and step size
step = 1/ptype->count;
if (step < 0.01)
step = 0.01;
VectorSubtract (end, start, vec);
len = VectorNormalize (vec);
if (ptype->flags & PT_AVERAGETRAIL)
{
float tavg;
// mangle len/step to get last point to be at end
tavg = len / step;
tavg = tavg / ceil(tavg);
step *= tavg;
len += step;
}
VectorScale(vec, step, vstep);
// add offset
start[2] += ptype->offsetup;
// spawn mode precalculations
if (ptype->spawnmode == SM_SPIRAL)
{
VectorVectors(vec, right, up);
// precalculate degree of rotation
if (ptype->spawnparam1)
tdegree = 2*M_PI/ptype->spawnparam1; /* distance per rotation inversed */
sdegree = ptype->spawnparam2*(M_PI/180);
}
else if (ptype->spawnmode == SM_CIRCLE)
{
VectorVectors(vec, right, up);
}
// store last stop here for lack of a better solution besides vectors
if (ts)
{
ts->state2.laststop = stop = ts->state2.laststop + len; //when to stop
len = ts->state1.lastdist;
}
else
{
stop = len;
len = 0;
}
// len = ts->lastdist/step;
// len = (len - (int)len)*step;
// VectorMA (start, -len, vec, start);
if (ptype->flags & PT_NOSPREADFIRST)
nrfirst = len + step*1.5;
else
nrfirst = len;
if (ptype->flags & PT_NOSPREADLAST)
nrlast = stop;
else
nrlast = stop + step;
b = bfirst = NULL;
while (len < stop)
{
len += step;
if (!free_particles)
{
len = stop;
break;
}
p = free_particles;
if (ptype->looks.type == PT_BEAM)
{
if (!free_beams)
{
len = stop;
break;
}
if (b)
{
b = b->next = free_beams;
free_beams = free_beams->next;
}
else
{
b = bfirst = free_beams;
free_beams = free_beams->next;
}
b->texture_s = len; // not sure how to calc this
b->flags = 0;
b->p = p;
VectorCopy(vec, b->dir);
}
free_particles = p->next;
p->next = ptype->particles;
ptype->particles = p;
p->die = ptype->randdie*frandom();
p->scale = ptype->scale+ptype->randscale*frandom();
if (ptype->die)
p->alpha = ptype->alpha+p->die*ptype->alphachange;
else
p->alpha = ptype->alpha;
// p->color = 0;
// if (ptype->spawnmode == SM_TRACER)
if (ptype->spawnparam1)
tcount = (int)(len * ptype->count / ptype->spawnparam1);
else
tcount = (int)(len * ptype->count);
if (ptype->colorindex >= 0)
{
int cidx;
cidx = ptype->colorrand > 0 ? rand() % ptype->colorrand : 0;
if (ptype->flags & PT_CITRACER) // colorindex behavior as per tracers in std Q1
cidx += ((tcount & 4) << 1);
cidx = ptype->colorindex + cidx;
if (cidx > 255)
p->alpha = p->alpha / 2;
cidx = (cidx & 0xff) * 3;
p->rgb[0] = host_basepal[cidx] * (1/255.0);
p->rgb[1] = host_basepal[cidx+1] * (1/255.0);
p->rgb[2] = host_basepal[cidx+2] * (1/255.0);
}
else
VectorCopy(ptype->rgb, p->rgb);
// use org temporarily for rgbsync
p->org[2] = frandom();
p->org[0] = p->org[2]*ptype->rgbrandsync[0] + frandom()*(1-ptype->rgbrandsync[0]);
p->org[1] = p->org[2]*ptype->rgbrandsync[1] + frandom()*(1-ptype->rgbrandsync[1]);
p->org[2] = p->org[2]*ptype->rgbrandsync[2] + frandom()*(1-ptype->rgbrandsync[2]);
if (ptype->orgadd)
{
p->org[0] += vec[0]*ptype->orgadd;
p->org[1] += vec[1]*ptype->orgadd;
p->org[2] += vec[2]*ptype->orgadd;
}
p->rgb[0] += p->org[0]*ptype->rgbrand[0] + ptype->rgbchange[0]*p->die;
p->rgb[1] += p->org[1]*ptype->rgbrand[1] + ptype->rgbchange[1]*p->die;
p->rgb[2] += p->org[2]*ptype->rgbrand[2] + ptype->rgbchange[2]*p->die;
VectorClear (p->vel);
if (ptype->emittime < 0)
p->state.trailstate = NULL; // init trailstate
else
p->state.nextemit = particletime + ptype->emitstart - p->die;
p->rotationspeed = ptype->rotationmin + frandom()*ptype->rotationrand;
p->angle = ptype->rotationstartmin + frandom()*ptype->rotationstartrand;
if (len < nrfirst || len >= nrlast)
{
// no offset or areaspread for these particles...
p->vel[0] = vec[0]*veladd+crandom()*randvel;
p->vel[1] = vec[1]*veladd+crandom()*randvel;
p->vel[2] = vec[2]*veladd+crandom()*randvelvert;
VectorCopy(start, p->org);
}
else
{
switch(ptype->spawnmode)
{
case SM_TRACER:
if (tcount & 1)
{
p->vel[0] = vec[1]*ptype->offsetspread;
p->vel[1] = -vec[0]*ptype->offsetspread;
p->org[0] = vec[1]*ptype->areaspread;
p->org[1] = -vec[0]*ptype->areaspread;
}
else
{
p->vel[0] = -vec[1]*ptype->offsetspread;
p->vel[1] = vec[0]*ptype->offsetspread;
p->org[0] = -vec[1]*ptype->areaspread;
p->org[1] = vec[0]*ptype->areaspread;
}
p->vel[0] += vec[0]*veladd+crandom()*randvel;
p->vel[1] += vec[1]*veladd+crandom()*randvel;
p->vel[2] = vec[2]*veladd+crandom()*randvelvert;
p->org[0] += start[0];
p->org[1] += start[1];
p->org[2] = start[2];
break;
case SM_SPIRAL:
{
float tsin, tcos;
float tright, tup;
tcos = cos(len*tdegree+sdegree);
tsin = sin(len*tdegree+sdegree);
tright = tcos*ptype->areaspread;
tup = tsin*ptype->areaspread;
p->org[0] = start[0] + right[0]*tright + up[0]*tup;
p->org[1] = start[1] + right[1]*tright + up[1]*tup;
p->org[2] = start[2] + right[2]*tright + up[2]*tup;
tright = tcos*ptype->offsetspread;
tup = tsin*ptype->offsetspread;
p->vel[0] = vec[0]*veladd+crandom()*randvel + right[0]*tright + up[0]*tup;
p->vel[1] = vec[1]*veladd+crandom()*randvel + right[1]*tright + up[1]*tup;
p->vel[2] = vec[2]*veladd+crandom()*randvelvert + right[2]*tright + up[2]*tup;
}
break;
// TODO: directionalize SM_BALL/SM_CIRCLE/SM_DISTBALL
case SM_BALL:
p->org[0] = crandom();
p->org[1] = crandom();
p->org[2] = crandom();
VectorNormalize(p->org);
VectorScale(p->org, frandom(), p->org);
p->vel[0] = vec[0]*veladd+crandom()*randvel + p->org[0]*ptype->offsetspread;
p->vel[1] = vec[1]*veladd+crandom()*randvel + p->org[1]*ptype->offsetspread;
p->vel[2] = vec[2]*veladd+crandom()*randvelvert + p->org[2]*ptype->offsetspreadvert;
p->org[0] = p->org[0]*ptype->areaspread + start[0];
p->org[1] = p->org[1]*ptype->areaspread + start[1];
p->org[2] = p->org[2]*ptype->areaspreadvert + start[2];
break;
case SM_CIRCLE:
{
float tsin, tcos;
tcos = cos(len*tdegree)*ptype->areaspread;
tsin = sin(len*tdegree)*ptype->areaspread;
p->org[0] = start[0] + right[0]*tcos + up[0]*tsin + vstep[0] * (len*tdegree);
p->org[1] = start[1] + right[1]*tcos + up[1]*tsin + vstep[1] * (len*tdegree);
p->org[2] = start[2] + right[2]*tcos + up[2]*tsin + vstep[2] * (len*tdegree)*50;
tcos = cos(len*tdegree)*ptype->offsetspread;
tsin = sin(len*tdegree)*ptype->offsetspread;
p->vel[0] = vec[0]*veladd+crandom()*randvel + right[0]*tcos + up[0]*tsin;
p->vel[1] = vec[1]*veladd+crandom()*randvel + right[1]*tcos + up[1]*tsin;
p->vel[2] = vec[2]*veladd+crandom()*randvelvert + right[2]*tcos + up[2]*tsin;
}
break;
case SM_DISTBALL:
{
float rdist;
rdist = ptype->spawnparam2 - crandom()*(1-(crandom() * ptype->spawnparam1));
// this is a strange spawntype, which is based on the fact that
// crandom()*crandom() provides something similar to an exponential
// probability curve
p->org[0] = crandom();
p->org[1] = crandom();
p->org[2] = crandom();
VectorNormalize(p->org);
VectorScale(p->org, rdist, p->org);
p->vel[0] = vec[0]*veladd+crandom()*randvel + p->org[0]*ptype->offsetspread;
p->vel[1] = vec[1]*veladd+crandom()*randvel + p->org[1]*ptype->offsetspread;
p->vel[2] = vec[2]*veladd+crandom()*randvelvert + p->org[2]*ptype->offsetspreadvert;
p->org[0] = p->org[0]*ptype->areaspread + start[0];
p->org[1] = p->org[1]*ptype->areaspread + start[1];
p->org[2] = p->org[2]*ptype->areaspreadvert + start[2];
}
break;
default:
p->org[0] = crandom();
p->org[1] = crandom();
p->org[2] = crandom();
p->vel[0] = vec[0]*veladd+crandom()*randvel + p->org[0]*ptype->offsetspread;
p->vel[1] = vec[1]*veladd+crandom()*randvel + p->org[1]*ptype->offsetspread;
p->vel[2] = vec[2]*veladd+crandom()*randvelvert + p->org[2]*ptype->offsetspreadvert;
p->org[0] = p->org[0]*ptype->areaspread + start[0];
p->org[1] = p->org[1]*ptype->areaspread + start[1];
p->org[2] = p->org[2]*ptype->areaspreadvert + start[2];
break;
}
}
VectorAdd (start, vstep, start);
if (ptype->countrand)
{
float rstep = frandom() / ptype->countrand;
VectorMA(start, rstep, vec, start);
step += rstep;
}
p->die = particletime + ptype->die - p->die;
}
if (ts)
{
ts->state1.lastdist = len;
// update beamseg list
if (ptype->looks.type == PT_BEAM)
{
if (b)
{
if (ptype->beams)
{
if (ts->lastbeam)
{
b->next = ts->lastbeam->next;
ts->lastbeam->next = bfirst;
ts->lastbeam->flags &= ~BS_LASTSEG;
}
else
{
b->next = ptype->beams;
ptype->beams = bfirst;
}
}
else
{
ptype->beams = bfirst;
b->next = NULL;
}
b->flags |= BS_LASTSEG;
ts->lastbeam = b;
}
if ((!free_particles || !free_beams) && ts->lastbeam)
{
ts->lastbeam->flags &= ~BS_LASTSEG;
ts->lastbeam->flags |= BS_NODRAW;
ts->lastbeam = NULL;
}
}
}
else if (ptype->looks.type == PT_BEAM)
{
if (b)
{
b->flags |= BS_NODRAW;
b->next = ptype->beams;
ptype->beams = bfirst;
}
}
// maintain run list
if (!(ptype->state & PS_INRUNLIST))
{
ptype->nexttorun = part_run_list;
part_run_list = ptype;
ptype->state |= PS_INRUNLIST;
}
return;
}
static int PScript_ParticleTrail (vec3_t startpos, vec3_t end, int type, trailstate_t **tsk)
{
part_type_t *ptype = &part_type[type];
if (type < 0 || type >= numparticletypes)
return 1; //bad value
if (!ptype->loaded)
return 1;
// inwater check, switch only once
if (r_part_contentswitch.value && ptype->inwater >= 0)
{
int cont;
cont = cl.worldmodel->funcs.PointContents(cl.worldmodel, startpos);
if (cont & FTECONTENTS_WATER)
ptype = &part_type[ptype->inwater];
}
P_ParticleTrailDraw (startpos, end, ptype, tsk);
return 0;
}
static void PScript_ParticleTrailIndex (vec3_t start, vec3_t end, int color, int crnd, trailstate_t **tsk)
{
part_type[pe_defaulttrail].colorindex = color;
part_type[pe_defaulttrail].colorrand = crnd;
P_ParticleTrail(start, end, pe_defaulttrail, tsk);
}
vec3_t pright, pup;
static float pframetime;
#ifdef RGLQUAKE
static void GL_DrawTexturedParticle(int count, particle_t **plist, plooks_t *type)
{
particle_t *p;
float x,y;
float scale;
qglEnable(GL_TEXTURE_2D);
GL_Bind(type->texturenum);
APPLYBLEND(type->blendmode);
qglShadeModel(GL_FLAT);
qglBegin(GL_QUADS);
while (count--)
{
p = *plist++;
scale = (p->org[0] - r_origin[0])*vpn[0] + (p->org[1] - r_origin[1])*vpn[1]
+ (p->org[2] - r_origin[2])*vpn[2];
scale = (scale*p->scale)*(type->invscalefactor) + p->scale * (type->scalefactor*250);
if (scale < 20)
scale = 0.25;
else
scale = 0.25 + scale * 0.001;
qglColor4f (p->rgb[0],
p->rgb[1],
p->rgb[2],
p->alpha);
if (p->angle)
{
x = sin(p->angle)*scale;
y = cos(p->angle)*scale;
}
else
{
x = 0;
y = scale;
}
qglTexCoord2f(0,0);
qglVertex3f (p->org[0] - x*pright[0] - y*pup[0], p->org[1] - x*pright[1] - y*pup[1], p->org[2] - x*pright[2] - y*pup[2]);
qglTexCoord2f(0,1);
qglVertex3f (p->org[0] - y*pright[0] + x*pup[0], p->org[1] - y*pright[1] + x*pup[1], p->org[2] - y*pright[2] + x*pup[2]);
qglTexCoord2f(1,1);
qglVertex3f (p->org[0] + x*pright[0] + y*pup[0], p->org[1] + x*pright[1] + y*pup[1], p->org[2] + x*pright[2] + y*pup[2]);
qglTexCoord2f(1,0);
qglVertex3f (p->org[0] + y*pright[0] - x*pup[0], p->org[1] + y*pright[1] - x*pup[1], p->org[2] + y*pright[2] - x*pup[2]);
}
qglEnd();
}
static void GL_DrawSketchParticle(int count, particle_t **plist, plooks_t *type)
{
particle_t *p;
float x,y;
float scale;
int quant;
qglDisable(GL_TEXTURE_2D);
GL_Bind(type->texturenum);
// if (type->blendmode == BM_ADD) //addative
// glBlendFunc(GL_SRC_ALPHA, GL_ONE);
// else if (type->blendmode == BM_SUBTRACT) //subtractive
// glBlendFunc(GL_SRC_ALPHA, GL_ONE_MINUS_SRC_ALPHA);
// else
qglBlendFunc(GL_SRC_ALPHA, GL_ONE_MINUS_SRC_ALPHA);
qglShadeModel(GL_SMOOTH);
qglBegin(GL_LINES);
while (count--)
{
p = *plist++;
scale = (p->org[0] - r_origin[0])*vpn[0] + (p->org[1] - r_origin[1])*vpn[1]
+ (p->org[2] - r_origin[2])*vpn[2];
scale = (scale*p->scale)*(type->invscalefactor) + p->scale * (type->scalefactor*250);
if (scale < 20)
scale = 0.25;
else
scale = 0.25 + scale * 0.001;
qglColor4f (p->rgb[0]/2,
p->rgb[1]/2,
p->rgb[2]/2,
p->alpha*2);
quant = scale;
if (p->angle)
{
x = sin(p->angle)*scale;
y = cos(p->angle)*scale;
}
else
{
x = 0;
y = scale;
}
qglVertex3f (p->org[0] - x*pright[0] - y*pup[0], p->org[1] - x*pright[1] - y*pup[1], p->org[2] - x*pright[2] - y*pup[2]);
qglVertex3f (p->org[0] + x*pright[0] + y*pup[0], p->org[1] + x*pright[1] + y*pup[1], p->org[2] + x*pright[2] + y*pup[2]);
qglVertex3f (p->org[0] + y*pright[0] - x*pup[0], p->org[1] + y*pright[1] - x*pup[1], p->org[2] + y*pright[2] - x*pup[2]);
qglVertex3f (p->org[0] - y*pright[0] + x*pup[0], p->org[1] - y*pright[1] + x*pup[1], p->org[2] - y*pright[2] + x*pup[2]);
}
qglEnd();
}
static void GL_DrawTrifanParticle(int count, particle_t **plist, plooks_t *type)
{
particle_t *p;
int i;
vec3_t v;
float scale;
qglDisable(GL_TEXTURE_2D);
APPLYBLEND(type->blendmode);
qglShadeModel(GL_SMOOTH);
while (count--)
{
p = *plist++;
scale = (p->org[0] - r_origin[0])*vpn[0] + (p->org[1] - r_origin[1])*vpn[1]
+ (p->org[2] - r_origin[2])*vpn[2];
scale = (scale*p->scale)*(type->invscalefactor) + p->scale * (type->scalefactor*250);
if (scale < 20)
scale = 0.05;
else
scale = 0.05 + scale * 0.0001;
/*
if ((p->vel[0]*p->vel[0]+p->vel[1]*p->vel[1]+p->vel[2]*p->vel[2])*2*scale > 30*30)
scale = 1+1/30/Length(p->vel)*2;*/
qglBegin (GL_TRIANGLE_FAN);
qglColor4f (p->rgb[0],
p->rgb[1],
p->rgb[2],
p->alpha);
qglVertex3fv (p->org);
qglColor4f (p->rgb[0]/2,
p->rgb[1]/2,
p->rgb[2]/2,
0);
for (i=7 ; i>=0 ; i--)
{
v[0] = p->org[0] - p->vel[0]*scale + vright[0]*cost[i%7]*p->scale + vup[0]*sint[i%7]*p->scale;
v[1] = p->org[1] - p->vel[1]*scale + vright[1]*cost[i%7]*p->scale + vup[1]*sint[i%7]*p->scale;
v[2] = p->org[2] - p->vel[2]*scale + vright[2]*cost[i%7]*p->scale + vup[2]*sint[i%7]*p->scale;
qglVertex3fv (v);
}
qglEnd ();
}
}
static void GL_DrawLineSparkParticle(int count, particle_t **plist, plooks_t *type)
{
particle_t *p;
qglDisable(GL_TEXTURE_2D);
GL_Bind(type->texturenum);
APPLYBLEND(type->blendmode);
qglShadeModel(GL_SMOOTH);
qglBegin(GL_LINES);
while (count--)
{
p = *plist++;
qglColor4f (p->rgb[0],
p->rgb[1],
p->rgb[2],
p->alpha);
qglVertex3f (p->org[0], p->org[1], p->org[2]);
qglColor4f (p->rgb[0],
p->rgb[1],
p->rgb[2],
0);
qglVertex3f (p->org[0]-p->vel[0]/10, p->org[1]-p->vel[1]/10, p->org[2]-p->vel[2]/10);
}
qglEnd();
}
static void GL_DrawTexturedSparkParticle(int count, particle_t **plist, plooks_t *type)
{
particle_t *p;
vec3_t v, cr, o2, point;
qglEnable(GL_TEXTURE_2D);
GL_Bind(type->texturenum);
APPLYBLEND(type->blendmode);
qglShadeModel(GL_SMOOTH);
qglBegin(GL_QUADS);
while(count--)
{
p = *plist++;
qglColor4f (p->rgb[0],
p->rgb[1],
p->rgb[2],
p->alpha);
VectorSubtract(r_refdef.vieworg, p->org, v);
CrossProduct(v, p->vel, cr);
VectorNormalize(cr);
VectorMA(p->org, -p->scale/2, cr, point);
qglTexCoord2f(0, 0);
qglVertex3fv(point);
VectorMA(p->org, p->scale/2, cr, point);
qglTexCoord2f(0, 1);
qglVertex3fv(point);
VectorMA(p->org, 0.1, p->vel, o2);
VectorSubtract(r_refdef.vieworg, o2, v);
CrossProduct(v, p->vel, cr);
VectorNormalize(cr);
VectorMA(o2, p->scale/2, cr, point);
qglTexCoord2f(1, 1);
qglVertex3fv(point);
VectorMA(o2, -p->scale/2, cr, point);
qglTexCoord2f(1, 0);
qglVertex3fv(point);
}
qglEnd();
}
static void GL_DrawSketchSparkParticle(int count, particle_t **plist, plooks_t *type)
{
particle_t *p;
qglDisable(GL_TEXTURE_2D);
GL_Bind(type->texturenum);
APPLYBLEND(type->blendmode);
qglShadeModel(GL_SMOOTH);
qglBegin(GL_LINES);
while(count--)
{
p = *plist++;
qglColor4f (p->rgb[0],
p->rgb[1],
p->rgb[2],
p->alpha);
qglVertex3f (p->org[0], p->org[1], p->org[2]);
qglColor4f (p->rgb[0],
p->rgb[1],
p->rgb[2],
0);
qglVertex3f (p->org[0]-p->vel[0]/10, p->org[1]-p->vel[1]/10, p->org[2]-p->vel[2]/10);
}
qglEnd();
}
static void GL_DrawParticleBeam_Textured(int count, beamseg_t **blist, plooks_t *type)
{
beamseg_t *b;
vec3_t v, point;
vec3_t cr;
beamseg_t *c;
particle_t *p;
particle_t *q;
float ts;
qglEnable(GL_TEXTURE_2D);
GL_Bind(type->texturenum);
APPLYBLEND(type->blendmode);
qglShadeModel(GL_SMOOTH);
qglBegin(GL_QUADS);
while(count--)
{
b = *blist++;
c = b->next;
q = c->p;
// if (!q)
// continue;
p = b->p;
// if (!p)
// continue;
qglColor4f(q->rgb[0],
q->rgb[1],
q->rgb[2],
q->alpha);
// qglBegin(GL_LINE_LOOP);
VectorSubtract(r_refdef.vieworg, q->org, v);
VectorNormalize(v);
CrossProduct(c->dir, v, cr);
ts = c->texture_s*q->angle + particletime*q->rotationspeed;
VectorMA(q->org, -q->scale, cr, point);
qglTexCoord2f(ts, 0);
qglVertex3fv(point);
VectorMA(q->org, q->scale, cr, point);
qglTexCoord2f(ts, 1);
qglVertex3fv(point);
qglColor4f(p->rgb[0],
p->rgb[1],
p->rgb[2],
p->alpha);
VectorSubtract(r_refdef.vieworg, p->org, v);
VectorNormalize(v);
CrossProduct(b->dir, v, cr); // replace with old p->dir?
ts = b->texture_s*p->angle + particletime*p->rotationspeed;
VectorMA(p->org, p->scale, cr, point);
qglTexCoord2f(ts, 1);
qglVertex3fv(point);
VectorMA(p->org, -p->scale, cr, point);
qglTexCoord2f(ts, 0);
qglVertex3fv(point);
}
qglEnd();
}
static void GL_DrawParticleBeam_Untextured(int count, beamseg_t **blist, plooks_t *type)
{
vec3_t v;
vec3_t cr;
beamseg_t *c;
particle_t *p;
particle_t *q;
beamseg_t *b;
vec3_t point[4];
qglDisable(GL_TEXTURE_2D);
GL_Bind(type->texturenum);
APPLYBLEND(type->blendmode);
qglShadeModel(GL_SMOOTH);
qglBegin(GL_QUADS);
while(count--)
{
b = *blist++;
c = b->next;
q = c->p;
// if (!q)
// continue;
p = b->p;
// if (!p)
// continue;
VectorSubtract(r_refdef.vieworg, q->org, v);
VectorNormalize(v);
CrossProduct(c->dir, v, cr);
VectorMA(q->org, -q->scale, cr, point[0]);
VectorMA(q->org, q->scale, cr, point[1]);
VectorSubtract(r_refdef.vieworg, p->org, v);
VectorNormalize(v);
CrossProduct(b->dir, v, cr); // replace with old p->dir?
VectorMA(p->org, p->scale, cr, point[2]);
VectorMA(p->org, -p->scale, cr, point[3]);
//one half
//back out
//back in
//front in
//front out
qglColor4f(q->rgb[0],
q->rgb[1],
q->rgb[2],
0);
qglVertex3fv(point[0]);
qglColor4f(q->rgb[0],
q->rgb[1],
q->rgb[2],
q->alpha);
qglVertex3fv(q->org);
qglColor4f(p->rgb[0],
p->rgb[1],
p->rgb[2],
p->alpha);
qglVertex3fv(p->org);
qglColor4f(p->rgb[0],
p->rgb[1],
p->rgb[2],
0);
qglVertex3fv(point[3]);
//front out
//front in
//back in
//back out
qglColor4f(p->rgb[0],
p->rgb[1],
p->rgb[2],
0);
qglVertex3fv(point[2]);
qglColor4f(p->rgb[0],
p->rgb[1],
p->rgb[2],
p->alpha);
qglVertex3fv(p->org);
qglColor4f(q->rgb[0],
q->rgb[1],
q->rgb[2],
q->alpha);
qglVertex3fv(q->org);
qglColor4f(q->rgb[0],
q->rgb[1],
q->rgb[2],
0);
qglVertex3fv(point[1]);
}
qglEnd();
}
static void GL_DrawClippedDecal(int count, clippeddecal_t **dlist, plooks_t *type)
{
clippeddecal_t *d;
qglEnable(GL_TEXTURE_2D);
GL_Bind(type->texturenum);
APPLYBLEND(type->blendmode);
qglShadeModel(GL_SMOOTH);
// qglDisable(GL_TEXTURE_2D);
// qglBegin(GL_LINE_LOOP);
qglBegin(GL_TRIANGLES);
while (count--)
{
d = *dlist++;
qglColor4f(d->rgb[0],
d->rgb[1],
d->rgb[2],
d->alpha);
qglTexCoord2fv(d->texcoords[0]);
qglVertex3fv(d->vertex[0]);
qglTexCoord2fv(d->texcoords[1]);
qglVertex3fv(d->vertex[1]);
qglTexCoord2fv(d->texcoords[2]);
qglVertex3fv(d->vertex[2]);
}
qglEnd();
}
#endif
#ifdef SWQUAKE
static void SWD_DrawParticleSpark(int count, particle_t **plist, plooks_t *type)
{
float speed;
vec3_t src, dest;
particle_t *p;
int r,g,b; //if you have a cpu with mmx, good for you...
while (count--)
{
p = *plist++;
r = p->rgb[0]*255;
if (r < 0)
r = 0;
else if (r > 255)
r = 255;
g = p->rgb[1]*255;
if (g < 0)
g = 0;
else if (g > 255)
g = 255;
b = p->rgb[2]*255;
if (b < 0)
b = 0;
else if (b > 255)
b = 255;
p->color = GetPaletteIndex(r, g, b);
speed = Length(p->vel);
if ((speed) < 1)
{
VectorCopy(p->org, src);
VectorCopy(p->org, dest);
}
else
{ //causes flickers with lower vels (due to bouncing in physics)
if (speed < 50)
speed *= 50/speed;
VectorMA(p->org, 2.5/(speed), p->vel, src);
VectorMA(p->org, -2.5/(speed), p->vel, dest);
}
D_DrawSparkTrans(src, dest, p->alpha, p->color, type->blendmode);
}
}
static void SWD_DrawParticleBlob(int count, particle_t **plist, plooks_t *type)
{
particle_t *p;
int r,g,b; //This really shouldn't be like this. Pitty the 32 bit renderer...
while(count--)
{
p = *plist++;
r = p->rgb[0]*255;
if (r < 0)
r = 0;
else if (r > 255)
r = 255;
g = p->rgb[1]*255;
if (g < 0)
g = 0;
else if (g > 255)
g = 255;
b = p->rgb[2]*255;
if (b < 0)
b = 0;
else if (b > 255)
b = 255;
p->color = GetPaletteIndex(r, g, b);
D_DrawParticleTrans(p->org, p->alpha, p->scale, p->color, type->blendmode);
}
}
static void SWD_DrawParticleBeam(int count, beamseg_t **blist, plooks_t *type)
{
int r,g,b; //if you have a cpu with mmx, good for you...
beamseg_t *beam;
beamseg_t *c;
particle_t *p;
particle_t *q;
// if (!b->next)
// return;
while(count--)
{
beam = *blist++;
c = beam->next;
q = c->p;
// if (!q)
// return;
p = beam->p;
r = p->rgb[0]*255;
if (r < 0)
r = 0;
else if (r > 255)
r = 255;
g = p->rgb[1]*255;
if (g < 0)
g = 0;
else if (g > 255)
g = 255;
b = p->rgb[2]*255;
if (b < 0)
b = 0;
else if (b > 255)
b = 255;
p->color = GetPaletteIndex(r, g, b);
D_DrawSparkTrans(p->org, q->org, p->alpha, p->color, type->blendmode);
}
}
#endif
void PScript_DrawParticleTypes (void (*texturedparticles)(int count, particle_t **,plooks_t*), void (*sparklineparticles)(int count, particle_t **,plooks_t*), void (*sparkfanparticles)(int count, particle_t **,plooks_t*), void (*sparktexturedparticles)(int count, particle_t **,plooks_t*), void (*beamparticlest)(int count, beamseg_t**,plooks_t*), void (*beamparticlesut)(int count, beamseg_t**,plooks_t*), void (*drawdecalparticles)(int count, clippeddecal_t**,plooks_t*))
{
RSpeedMark();
qboolean (*tr) (vec3_t start, vec3_t end, vec3_t impact, vec3_t normal);
void *pdraw, *bdraw;
vec3_t oldorg;
vec3_t stop, normal;
part_type_t *type, *lastvalidtype;
particle_t *p, *kill;
clippeddecal_t *d, *dkill;
ramp_t *ramp;
float grav;
vec3_t friction;
float dist;
particle_t *kill_list, *kill_first; //the kill list is to stop particles from being freed and reused whilst still in this loop
//which is bad because beams need to find out when particles died. Reuse can do wierd things.
//remember that they're not drawn instantly either.
beamseg_t *b, *bkill;
int traces=r_particle_tracelimit.value;
int rampind;
pframetime = host_frametime;
if (cl.paused || r_secondaryview)
pframetime = 0;
VectorScale (vup, 1.5, pup);
VectorScale (vright, 1.5, pright);
#ifdef SWQUAKE
VectorScale (vright, xscaleshrink, r_pright);
VectorScale (vup, yscaleshrink, r_pup);
VectorCopy (vpn, r_ppn);
#endif
#ifdef Q2BSPS
if (cl.worldmodel->fromgame == fg_quake2 || cl.worldmodel->fromgame == fg_quake3)
tr = Q2TraceLineN;
else
#endif
tr = TraceLineN;
kill_list = kill_first = NULL;
// reassign drawing methods by cvars
if (r_part_beams_textured.value < 0)
beamparticlest = NULL;
else if (!r_part_beams_textured.value)
beamparticlest = beamparticlesut;
if (r_part_beams.value < 0)
beamparticlesut = NULL;
else if (!r_part_beams.value)
{
beamparticlest = NULL;
beamparticlesut = NULL;
}
if (r_part_sparks_textured.value < 0)
sparktexturedparticles = NULL;
else if (!r_part_sparks_textured.value)
sparktexturedparticles = sparklineparticles;
if (r_part_sparks_trifan.value < 0)
sparkfanparticles = NULL;
else if (!r_part_sparks_trifan.value)
sparkfanparticles = sparklineparticles;
if (r_part_sparks.value < 0)
sparklineparticles = NULL;
else if (!r_part_sparks.value)
{
sparktexturedparticles = NULL;
sparkfanparticles = NULL;
sparklineparticles = NULL;
}
for (type = part_run_list, lastvalidtype = NULL; type != NULL; type = type->nexttorun)
{
if (type->clippeddecals)
{
for ( ;; )
{
dkill = type->clippeddecals;
if (dkill && dkill->die < particletime)
{
type->clippeddecals = dkill->next;
dkill->next = free_decals;
free_decals = dkill;
continue;
}
break;
}
for (d=type->clippeddecals ; d ; d=d->next)
{
for ( ;; )
{
dkill = d->next;
if (dkill && dkill->die < particletime)
{
d->next = dkill->next;
dkill->next = free_decals;
free_decals = dkill;
continue;
}
break;
}
switch (type->rampmode)
{
case RAMP_ABSOLUTE:
rampind = (int)(type->rampindexes * (type->die - (d->die - particletime)) / type->die);
if (rampind >= type->rampindexes)
rampind = type->rampindexes - 1;
ramp = type->ramp + rampind;
VectorCopy(ramp->rgb, d->rgb);
d->alpha = ramp->alpha;
break;
case RAMP_DELTA: //particle ramps
ramp = type->ramp + (int)(type->rampindexes * (type->die - (d->die - particletime)) / type->die);
VectorMA(d->rgb, pframetime, ramp->rgb, d->rgb);
d->alpha -= pframetime*ramp->alpha;
break;
case RAMP_NONE: //particle changes acording to it's preset properties.
if (particletime < (d->die-type->die+type->rgbchangetime))
{
d->rgb[0] += pframetime*type->rgbchange[0];
d->rgb[1] += pframetime*type->rgbchange[1];
d->rgb[2] += pframetime*type->rgbchange[2];
}
d->alpha += pframetime*type->alphachange;
}
drawdecalparticles(1, &d, &type->looks);
}
}
bdraw = NULL;
pdraw = NULL;
// set drawing methods by type and cvars and hope branch
// prediction takes care of the rest
switch(type->looks.type)
{
case PT_BEAM:
if (*type->texname)
bdraw = beamparticlest;
else
bdraw = beamparticlesut;
break;
case PT_DECAL:
break;
case PT_NORMAL:
pdraw = texturedparticles;
break;
case PT_SPARK:
pdraw = sparklineparticles;
break;
case PT_SPARKFAN:
pdraw = sparkfanparticles;
break;
case PT_TEXTUREDSPARK:
pdraw = sparktexturedparticles;
break;
}
if (!type->die)
{
while ((p=type->particles))
{
if (pdraw)
RQ_AddDistReorder(pdraw, p, &type->looks, p->org);
// make sure emitter runs at least once
if (type->emit >= 0 && type->emitstart <= 0)
P_RunParticleEffectType(p->org, p->vel, 1, type->emit);
// make sure stain effect runs
if (type->stains && r_bloodstains.value)
{
if (traces-->0&&tr(oldorg, p->org, stop, normal))
{
R_AddStain(stop, (p->rgb[1]*-10+p->rgb[2]*-10),
(p->rgb[0]*-10+p->rgb[2]*-10),
(p->rgb[0]*-10+p->rgb[1]*-10),
30*p->alpha*type->stains);
}
}
type->particles = p->next;
// p->next = free_particles;
// free_particles = p;
p->next = kill_list;
kill_list = p;
if (!kill_first) // branch here is probably faster than list traversal later
kill_first = p;
}
if (type->beams)
{
b = type->beams;
}
while ((b=type->beams) && (b->flags & BS_DEAD))
{
type->beams = b->next;
b->next = free_beams;
free_beams = b;
}
while (b)
{
if (!(b->flags & BS_NODRAW))
{
// no BS_NODRAW implies b->next != NULL
// BS_NODRAW should imply b->next == NULL or b->next->flags & BS_DEAD
VectorCopy(b->next->p->org, stop);
VectorCopy(b->p->org, oldorg);
VectorSubtract(stop, oldorg, b->next->dir);
VectorNormalize(b->next->dir);
if (bdraw)
{
VectorAdd(stop, oldorg, stop);
VectorScale(stop, 0.5, stop);
RQ_AddDistReorder(bdraw, b, &type->looks, stop);
}
}
// clean up dead entries ahead of current
for ( ;; )
{
bkill = b->next;
if (bkill && (bkill->flags & BS_DEAD))
{
b->next = bkill->next;
bkill->next = free_beams;
free_beams = bkill;
continue;
}
break;
}
b->flags |= BS_DEAD;
b = b->next;
}
continue;
}
//kill off early ones.
if (type->emittime < 0)
{
for ( ;; )
{
kill = type->particles;
if (kill && kill->die < particletime)
{
P_DelinkTrailstate(&kill->state.trailstate);
type->particles = kill->next;
kill->next = kill_list;
kill_list = kill;
if (!kill_first)
kill_first = kill;
continue;
}
break;
}
}
else
{
for ( ;; )
{
kill = type->particles;
if (kill && kill->die < particletime)
{
type->particles = kill->next;
kill->next = kill_list;
kill_list = kill;
if (!kill_first)
kill_first = kill;
continue;
}
break;
}
}
grav = type->gravity*pframetime;
VectorScale(type->friction, pframetime, friction);
for (p=type->particles ; p ; p=p->next)
{
if (type->emittime < 0)
{
for ( ;; )
{
kill = p->next;
if (kill && kill->die < particletime)
{
P_DelinkTrailstate(&kill->state.trailstate);
p->next = kill->next;
kill->next = kill_list;
kill_list = kill;
if (!kill_first)
kill_first = kill;
continue;
}
break;
}
}
else
{
for ( ;; )
{
kill = p->next;
if (kill && kill->die < particletime)
{
p->next = kill->next;
kill->next = kill_list;
kill_list = kill;
if (!kill_first)
kill_first = kill;
continue;
}
break;
}
}
VectorCopy(p->org, oldorg);
if (type->flags & PT_VELOCITY)
{
p->org[0] += p->vel[0]*pframetime;
p->org[1] += p->vel[1]*pframetime;
p->org[2] += p->vel[2]*pframetime;
if (type->flags & PT_FRICTION)
{
p->vel[0] -= friction[0]*p->vel[0];
p->vel[1] -= friction[1]*p->vel[1];
p->vel[2] -= friction[2]*p->vel[2];
}
p->vel[2] -= grav;
}
p->angle += p->rotationspeed*pframetime;
switch (type->rampmode)
{
case RAMP_ABSOLUTE:
rampind = (int)(type->rampindexes * (type->die - (p->die - particletime)) / type->die);
if (rampind >= type->rampindexes)
rampind = type->rampindexes - 1;
ramp = type->ramp + rampind;
VectorCopy(ramp->rgb, p->rgb);
p->alpha = ramp->alpha;
p->scale = ramp->scale;
break;
case RAMP_DELTA: //particle ramps
rampind = (int)(type->rampindexes * (type->die - (p->die - particletime)) / type->die);
if (rampind >= type->rampindexes)
rampind = type->rampindexes - 1;
ramp = type->ramp + rampind;
VectorMA(p->rgb, pframetime, ramp->rgb, p->rgb);
p->alpha -= pframetime*ramp->alpha;
p->scale += pframetime*ramp->scale;
break;
case RAMP_NONE: //particle changes acording to it's preset properties.
if (particletime < (p->die-type->die+type->rgbchangetime))
{
p->rgb[0] += pframetime*type->rgbchange[0];
p->rgb[1] += pframetime*type->rgbchange[1];
p->rgb[2] += pframetime*type->rgbchange[2];
}
p->alpha += pframetime*type->alphachange;
p->scale += pframetime*type->scaledelta;
}
if (type->emit >= 0)
{
if (type->emittime < 0)
P_ParticleTrail(oldorg, p->org, type->emit, &p->state.trailstate);
else if (p->state.nextemit < particletime)
{
p->state.nextemit = particletime + type->emittime + frandom()*type->emitrand;
P_RunParticleEffectType(p->org, p->vel, 1, type->emit);
}
}
if (type->cliptype>=0 && r_bouncysparks.value)
{
if (traces-->0&&tr(oldorg, p->org, stop, normal))
{
if (type->stains && r_bloodstains.value)
R_AddStain(stop, p->rgb[1]*-10+p->rgb[2]*-10,
p->rgb[0]*-10+p->rgb[2]*-10,
p->rgb[0]*-10+p->rgb[1]*-10,
30*p->alpha);
if (part_type + type->cliptype == type)
{ //bounce
dist = DotProduct(p->vel, normal) * (-1-(rand()/(float)0x7fff)/2);
VectorMA(p->vel, dist, normal, p->vel);
VectorCopy(stop, p->org);
p->vel[0] *= type->clipbounce;
p->vel[1] *= type->clipbounce;
p->vel[2] *= type->clipbounce;
if (!*type->texname && Length(p->vel)<1000*pframetime && type->looks.type == PT_NORMAL)
p->die = -1;
}
else
{
p->die = -1;
VectorNormalize(p->vel);
P_RunParticleEffectType(stop, p->vel, type->clipcount/part_type[type->cliptype].count, type->cliptype);
}
continue;
}
}
else if (type->stains && r_bloodstains.value)
{
if (traces-->0&&tr(oldorg, p->org, stop, normal))
{
R_AddStain(stop, (p->rgb[1]*-10+p->rgb[2]*-10),
(p->rgb[0]*-10+p->rgb[2]*-10),
(p->rgb[0]*-10+p->rgb[1]*-10),
30*p->alpha*type->stains);
p->die = -1;
continue;
}
}
if (pdraw)
RQ_AddDistReorder((void*)pdraw, p, &type->looks, p->org);
}
// beams are dealt with here
// kill early entries
for ( ;; )
{
bkill = type->beams;
if (bkill && (bkill->flags & BS_DEAD || bkill->p->die < particletime) && !(bkill->flags & BS_LASTSEG))
{
type->beams = bkill->next;
bkill->next = free_beams;
free_beams = bkill;
continue;
}
break;
}
b = type->beams;
if (b)
{
for ( ;; )
{
if (b->next)
{
// mark dead entries
if (b->flags & (BS_LASTSEG|BS_DEAD|BS_NODRAW))
{
// kill some more dead entries
for ( ;; )
{
bkill = b->next;
if (bkill && (bkill->flags & BS_DEAD) && !(bkill->flags & BS_LASTSEG))
{
b->next = bkill->next;
bkill->next = free_beams;
free_beams = bkill;
continue;
}
break;
}
if (!bkill) // have to check so we don't hit NULL->next
continue;
}
else
{
if (!(b->next->flags & BS_DEAD))
{
VectorCopy(b->next->p->org, stop);
VectorCopy(b->p->org, oldorg);
VectorSubtract(stop, oldorg, b->next->dir);
VectorNormalize(b->next->dir);
if (bdraw)
{
VectorAdd(stop, oldorg, stop);
VectorScale(stop, 0.5, stop);
RQ_AddDistReorder(bdraw, b, &type->looks, stop);
}
}
// if (b->p->die < particletime)
// b->flags |= BS_DEAD;
}
}
else
{
if (b->p->die < particletime) // end of the list check
b->flags |= BS_DEAD;
break;
}
if (b->p->die < particletime)
b->flags |= BS_DEAD;
b = b->next;
}
}
// delete from run list if necessary
if (!type->particles && !type->beams && !type->clippeddecals)
{
// if (!lastvalidtype)
// part_run_list = type->nexttorun;
// else
// lastvalidtype->nexttorun = type->nexttorun;
// type->state &= ~PS_INRUNLIST;
}
else
lastvalidtype = type;
}
RSpeedEnd(RSPEED_PARTICLES);
// lazy delete for particles is done here
if (kill_list)
{
kill_first->next = free_particles;
free_particles = kill_list;
}
particletime += pframetime;
}
static void PScript_FlushRenderer(void)
{
#ifdef RGLQUAKE
qglDepthMask(0); //primarily to stop close particles from obscuring each other
qglDisable(GL_ALPHA_TEST);
qglEnable (GL_BLEND);
GL_TexEnv(GL_MODULATE);
qglBlendFunc(GL_SRC_ALPHA, GL_ONE_MINUS_SRC_ALPHA);
#endif
}
/*
===============
R_DrawParticles
===============
*/
static void PScript_DrawParticles (void)
{
RSpeedMark();
P_AddRainParticles();
#if defined(RGLQUAKE)
if (qrenderer == QR_OPENGL)
{
extern int gldepthfunc;
extern cvar_t r_drawflat;
P_FlushRenderer();
if (qglPolygonOffset)
qglPolygonOffset(-1, 0);
qglEnable(GL_POLYGON_OFFSET_FILL);
qglEnable(GL_BLEND);
qglDepthFunc(gldepthfunc);
qglDisable(GL_ALPHA_TEST);
if (r_drawflat.value == 2)
PScript_DrawParticleTypes(GL_DrawSketchParticle, GL_DrawSketchSparkParticle, GL_DrawSketchSparkParticle, GL_DrawSketchSparkParticle, GL_DrawParticleBeam_Textured, GL_DrawParticleBeam_Untextured, GL_DrawClippedDecal);
else
PScript_DrawParticleTypes(GL_DrawTexturedParticle, GL_DrawLineSparkParticle, GL_DrawTrifanParticle, GL_DrawTexturedSparkParticle, GL_DrawParticleBeam_Textured, GL_DrawParticleBeam_Untextured, GL_DrawClippedDecal);
qglDisable(GL_POLYGON_OFFSET_FILL);
RSpeedRemark();
RQ_RenderBatchClear();
RSpeedEnd(RSPEED_PARTICLESDRAW);
qglEnable(GL_TEXTURE_2D);
GL_TexEnv(GL_MODULATE);
qglBlendFunc(GL_SRC_ALPHA, GL_ONE_MINUS_SRC_ALPHA);
qglDepthMask(1);
return;
}
#endif
#ifdef SWQUAKE
if (qrenderer == QR_SOFTWARE)
{
PScript_DrawParticleTypes(SWD_DrawParticleBlob, SWD_DrawParticleSpark, SWD_DrawParticleSpark, SWD_DrawParticleSpark, SWD_DrawParticleBeam, SWD_DrawParticleBeam, NULL);
RSpeedRemark();
D_StartParticles();
RQ_RenderDistAndClear();
D_EndParticles();
RSpeedEnd(RSPEED_PARTICLESDRAW);
return;
}
#endif
#if defined(D3DQUAKE)
if (qrenderer == QR_DIRECT3D)
{
if (!D3D7_DrawParticles(particletime))
D3D9_DrawParticles(particletime);
}
#endif
if (qrenderer)
{
RSpeedRemark();
RQ_RenderDistAndClear();
RSpeedEnd(RSPEED_PARTICLESDRAW);
}
}
particleengine_t pe_script =
{
"script",
"fte",
PScript_ParticleTypeForName,
PScript_FindParticleType,
PScript_RunParticleEffectTypeString,
PScript_ParticleTrail,
PScript_RunParticleEffectState,
PScript_RunParticleWeather,
PScript_RunParticleCube,
PScript_RunParticleEffect,
PScript_RunParticleEffect2,
PScript_RunParticleEffect3,
PScript_RunParticleEffect4,
PScript_ParticleTrailIndex,
PScript_EmitSkyEffectTris,
PScript_InitParticles,
PScript_Shutdown,
PScript_DelinkTrailstate,
PScript_ClearParticles,
PScript_DrawParticles,
PScript_FlushRenderer
};
#endif
#endif