/*
===============
RotatePointAroundVector
This is not implemented very well...
===============
*/
void RotatePointAroundVector( vec3_t dst, const vec3_t dir, const vec3_t point,
float degrees ) {
float m[3][3];
float im[3][3];
float zrot[3][3];
float tmpmat[3][3];
float rot[3][3];
int i;
vec3_t vr, vup, vf;
float rad;
vf[0] = dir[0];
vf[1] = dir[1];
vf[2] = dir[2];
PerpendicularVector( vr, dir );
CrossProduct( vr, vf, vup );
m[0][0] = vr[0];
m[1][0] = vr[1];
m[2][0] = vr[2];
m[0][1] = vup[0];
m[1][1] = vup[1];
m[2][1] = vup[2];
m[0][2] = vf[0];
m[1][2] = vf[1];
m[2][2] = vf[2];
memcpy( im, m, sizeof( im ) );
im[0][1] = m[1][0];
im[0][2] = m[2][0];
im[1][0] = m[0][1];
im[1][2] = m[2][1];
im[2][0] = m[0][2];
im[2][1] = m[1][2];
memset( zrot, 0, sizeof( zrot ) );
zrot[0][0] = zrot[1][1] = zrot[2][2] = 1.0F;
rad = (float)DEG2RAD( degrees );
zrot[0][0] = (vec_t)cos( rad );
zrot[0][1] = (vec_t)sin( rad );
zrot[1][0] = (vec_t)-sin( rad );
zrot[1][1] = (vec_t)cos( rad );
MatrixMultiply( m, zrot, tmpmat );
MatrixMultiply( tmpmat, im, rot );
for ( i = 0; i < 3; i++ ) {
dst[i] = rot[i][0] * point[0] + rot[i][1] * point[1] + rot[i][2] * point[2];
}
}
void RotatePointAroundVector( vec3_t &dst, const vec3_t &dir, const vec3_t &point, float degrees )
{
float m[3][3];
float im[3][3];
float zrot[3][3];
float tmpmat[3][3];
float rot[3][3];
int i;
vec3_t vr, vup, vf;
vf[0] = dir[0];
vf[1] = dir[1];
vf[2] = dir[2];
PerpendicularVector( vr, dir );
//CrossProduct( vr, vf, vup );
vup = CrossProduct( vr, vf );
m[0][0] = vr[0];
m[1][0] = vr[1];
m[2][0] = vr[2];
m[0][1] = vup[0];
m[1][1] = vup[1];
m[2][1] = vup[2];
m[0][2] = vf[0];
m[1][2] = vf[1];
m[2][2] = vf[2];
memcpy( im, m, sizeof( im ) );
im[0][1] = m[1][0];
im[0][2] = m[2][0];
im[1][0] = m[0][1];
im[1][2] = m[2][1];
im[2][0] = m[0][2];
im[2][1] = m[1][2];
memset( zrot, 0, sizeof( zrot ) );
zrot[0][0] = zrot[1][1] = zrot[2][2] = 1.0F;
zrot[0][0] = cos( DEG2RAD( degrees ) );
zrot[0][1] = sin( DEG2RAD( degrees ) );
zrot[1][0] = -sin( DEG2RAD( degrees ) );
zrot[1][1] = cos( DEG2RAD( degrees ) );
R_ConcatRotations( m, zrot, tmpmat );
R_ConcatRotations( tmpmat, im, rot );
for ( i = 0; i < 3; i++ )
{
dst[i] = rot[i][0] * point[0] + rot[i][1] * point[1] + rot[i][2] * point[2];
}
}
/**
* @brief Rotate a point around a given vector
* @param[in] dir The vector around which to rotate
* @param[in] point The point to be rotated
* @param[in] degrees How many degrees to rotate the point by
* @param[out] dst The point after rotation
* @note Warning: @c dst must be different from @c point (otherwise the result has no meaning)
* @pre @c dir must be normalized
*/
void RotatePointAroundVector (vec3_t dst, const vec3_t dir, const vec3_t point, float degrees)
{
float m[3][3];
float im[3][3];
float zrot[3][3];
float tmpmat[3][3];
float rot[3][3];
int i;
vec3_t vr, vup, vf;
vf[0] = dir[0];
vf[1] = dir[1];
vf[2] = dir[2];
PerpendicularVector(vr, dir);
CrossProduct(vr, vf, vup);
m[0][0] = vr[0];
m[1][0] = vr[1];
m[2][0] = vr[2];
m[0][1] = vup[0];
m[1][1] = vup[1];
m[2][1] = vup[2];
m[0][2] = vf[0];
m[1][2] = vf[1];
m[2][2] = vf[2];
memcpy(im, m, sizeof(im));
im[0][1] = m[1][0];
im[0][2] = m[2][0];
im[1][0] = m[0][1];
im[1][2] = m[2][1];
im[2][0] = m[0][2];
im[2][1] = m[1][2];
OBJZERO(zrot);
/* now prepare the rotation matrix */
zrot[0][0] = cos(degrees * torad);
zrot[0][1] = sin(degrees * torad);
zrot[1][0] = -sin(degrees * torad);
zrot[1][1] = cos(degrees * torad);
zrot[2][2] = 1.0F;
R_ConcatRotations(m, zrot, tmpmat);
R_ConcatRotations(tmpmat, im, rot);
for (i = 0; i < 3; i++) {
dst[i] = DotProduct(rot[i], point);
}
}
/*
-----------------------------------------------------------------------------
Function: RotatePointAroundVector -Rotate a point around a vector.
Parameters: dst -[out] Point after rotation.
dir -[in] vector.
point -[in] Point.
degrees -[in] Degrees of rotation.
Returns: Nothing.
Notes:
-----------------------------------------------------------------------------
*/
PUBLIC void RotatePointAroundVector( vec3_t dst, const vec3_t dir, const vec3_t point, float degrees )
{
mat3_t m;
mat3_t im;
mat3_t zrot;
mat3_t tmpmat;
mat3_t rot;
vec3_t vr, vup, vf;
float rad;
vf[0] = dir[0];
vf[1] = dir[1];
vf[2] = dir[2];
PerpendicularVector( vr, dir );
vectorCrossProduct( vr, vf, vup );
m[0] = vr[0];
m[3] = vr[1];
m[6] = vr[2];
m[1] = vup[0];
m[4] = vup[1];
m[7] = vup[2];
m[2] = vf[0];
m[5] = vf[1];
m[8] = vf[2];
memcpy( im, m, sizeof( im ) );
im[1] = m[3];
im[2] = m[6];
im[3] = m[1];
im[5] = m[7];
im[6] = m[2];
im[7] = m[5];
memset( zrot, 0, sizeof( zrot ) );
zrot[0] = zrot[4] = zrot[8] = 1.0F;
rad = DEG2RAD( degrees );
zrot[0] = (float)cos( rad );
zrot[1] = (float)sin( rad );
zrot[3] = (float)-sin( rad );
zrot[4] = (float)cos( rad );
Matrix3x3Multiply( m, zrot, tmpmat );
Matrix3x3Multiply( tmpmat, im, rot );
dst[0] = rot[0] * point[0] + rot[1] * point[1] + rot[2] * point[2];
dst[1] = rot[3] * point[0] + rot[4] * point[1] + rot[5] * point[2];
dst[2] = rot[6] * point[0] + rot[7] * point[1] + rot[8] * point[2];
}
static int vector_Perpendicular(lua_State * L)
{
vec_t *dst;
vec_t *src;
dst = lua_getvector(L, 1);
src = lua_getvector(L, 2);
PerpendicularVector(dst, src);
return 1;
}
/*
========================
GetSurfaceOrientations
========================
*/
void R_GetSurfaceOrientations( cplane_t *plane, orientation_t *surface, orientation_t *camera )
{
VectorCopy( plane->normal, surface->axis[0] );
PerpendicularVector( surface->axis[1], surface->axis[0] );
CrossProduct( surface->axis[0], surface->axis[1], surface->axis[2] );
VectorScale( plane->normal, plane->dist, surface->origin );
VectorCopy( surface->origin, camera->origin );
VectorSubtract( vec3_origin, surface->axis[0], camera->axis[0] );
VectorCopy( surface->axis[1], camera->axis[1] );
VectorCopy( surface->axis[2], camera->axis[2] );
}
void RotatePointAroundVector( Coord *dst, Coord dir, Coord point, float degrees )
{
float m[3][3];
float im[3][3];
float zrot[3][3];
float tmpmat[3][3];
float rot[3][3];
Coord vr, vup, vf;
vf.x = dir.x;
vf.y = dir.y;
vf.z = dir.z;
PerpendicularVector( &vr, dir );
CrossProduct( vr, vf, &vup );
m[0][0] = vr.x;
m[1][0] = vr.y;
m[2][0] = vr.z;
m[0][1] = vup.x;
m[1][1] = vup.y;
m[2][1] = vup.z;
m[0][2] = vf.x;
m[1][2] = vf.y;
m[2][2] = vf.z;
memcpy( im, m, sizeof( im ) );
im[0][1] = m[1][0];
im[0][2] = m[2][0];
im[1][0] = m[0][1];
im[1][2] = m[2][1];
im[2][0] = m[0][2];
im[2][1] = m[1][2];
memset( zrot, 0, sizeof( zrot ) );
zrot[0][0] = zrot[1][1] = zrot[2][2] = 1.0F;
zrot[0][0] = cos( ( degrees*DEGTORAD ) );
zrot[0][1] = sin( ( degrees*DEGTORAD ) );
zrot[1][0] = -sin( ( degrees*DEGTORAD ) );
zrot[1][1] = cos( ( degrees*DEGTORAD ) );
R_ConcatRotations( m, zrot, tmpmat );
R_ConcatRotations( tmpmat, im, rot );
dst->x = rot[0][0] * point.x + rot[0][1] * point.y + rot[0][2] * point.z;
dst->y = rot[1][0] * point.x + rot[1][1] * point.y + rot[1][2] * point.z;
dst->z = rot[2][0] * point.x + rot[2][1] * point.y + rot[2][2] * point.z;
}
void CG_EffectMark(qhandle_t markShader, const vec3_t origin, const vec3_t dir, float alpha, float radius)
{
// 'quick' version of the CG_ImpactMark function
vec3_t axis[3], originalPoints[4];
float texCoordScale;
byte colors[4];
int i;
polyVert_t *v, verts[4];
if (!cg_addMarks.integer) {
return;
}
if (radius <= 0) {
CG_Error("CG_EffectMark called with <= 0 radius");
}
// create the texture axis
VectorNormalize2(dir, axis[0]);
PerpendicularVector(axis[1], axis[0]);
VectorSet(axis[2], 1, 0, 0); // This is _wrong_, but the function is for water anyway (i.e. usually flat)
CrossProduct(axis[0], axis[2], axis[1]);
texCoordScale = 0.5 * 1.0 / radius;
// create the full polygon
for (i = 0; i < 3; i++) {
originalPoints[0][i] = origin[i] - radius * axis[1][i] - radius * axis[2][i];
originalPoints[1][i] = origin[i] + radius * axis[1][i] - radius * axis[2][i];
originalPoints[2][i] = origin[i] + radius * axis[1][i] + radius * axis[2][i];
originalPoints[3][i] = origin[i] - radius * axis[1][i] + radius * axis[2][i];
}
colors[0] = 127;
colors[1] = 127;
colors[2] = 127;
colors[3] = alpha * 255;
for (i = 0, v = verts; i < 4; i++, v++) {
vec3_t delta;
VectorCopy(originalPoints[i], v->xyz);
VectorSubtract(v->xyz, origin, delta);
v->st[0] = 0.5 + DotProduct(delta, axis[1]) * texCoordScale;
v->st[1] = 0.5 + DotProduct(delta, axis[2]) * texCoordScale;
*(int *) v->modulate = *(int *) colors;
}
trap_R_AddPolyToScene(markShader, 4, verts);
}
// This is not implemented very well...
void RotatePointAroundVector( vector3 *dst, const vector3 *dir, const vector3 *point, float degrees ) {
vector3 m[3], im[3], zrot[3], tmpmat[3], rot[3];
vector3 vr, vup, vf;
int i;
float rad;
vf.x = dir->x;
vf.y = dir->y;
vf.z = dir->z;
PerpendicularVector( &vr, dir );
CrossProduct( &vr, &vf, &vup );
m[0].x = vr.x;
m[1].x = vr.y;
m[2].x = vr.z;
m[0].y = vup.x;
m[1].y = vup.y;
m[2].y = vup.z;
m[0].z = vf.x;
m[1].z = vf.y;
m[2].z = vf.z;
memcpy( im, m, sizeof(im) );
im[0].y = m[1].x;
im[0].z = m[2].x;
im[1].x = m[0].y;
im[1].z = m[2].y;
im[2].x = m[0].z;
im[2].y = m[1].z;
memset( zrot, 0, sizeof(zrot) );
zrot[0].x = zrot[1].y = zrot[2].z = 1.0f;
rad = DEG2RAD( degrees );
zrot[0].x = cosf( rad );
zrot[0].y = sinf( rad );
zrot[1].x = -sinf( rad );
zrot[1].y = cosf( rad );
MatrixMultiply( m, zrot, tmpmat );
MatrixMultiply( tmpmat, im, rot );
for ( i = 0; i < 3; i++ ) {
dst->raw[i] = DotProduct( &rot[i], point );
}
}
qboolean fire_weaponDir(gentity_t *self, vec3_t start, vec3_t dir, int weaponnum, float quadFactor, int handSide)
{
vec3_t right, up;
if (weaponnum <= 0 || weaponnum >= BG_NumWeapons()) {
return qfalse;
}
// Get up and right from dir (which is "forward")
PerpendicularVector( up, dir );
CrossProduct( up, dir, right );
return fire_projectile(self, start, dir, right, up, bg_weaponinfo[weaponnum].projnum,
quadFactor, bg_weaponinfo[weaponnum].mod, bg_weaponinfo[weaponnum].splashMod, handSide);
}
// this should match CG_ShotgunPattern
void ShotgunPattern( vec3_t origin, vec3_t origin2, int seed, gentity_t *ent ) {
int i, n, c;
float r, u, d;
vec3_t end;
vec3_t forward, right, up;
qboolean hitClient = qfalse;
// derive the right and up vectors from the forward vector, because
// the client won't have any other information
VectorNormalize2( origin2, forward );
PerpendicularVector( right, forward );
CrossProduct( forward, right, up );
n = DEFAULT_SHOTGUN_COUNT;
d = DEFAULT_SHOTGUN_SPREAD / 2;
c = 3;
while (n > 0) {
float stepSize = (2 * M_PI) / c;
float step;
for (step = -M_PI; step < M_PI && n > 0; step += stepSize) {
r = cos(step) * d;
u = sin(step) * d;
VectorMA( origin, 8192, forward, end);
VectorMA (end, r, right, end);
VectorMA (end, u, up, end);
if( ShotgunPellet( origin, end, ent ) && !hitClient ) {
hitClient = qtrue;
ent->client->accuracy_hits++;
}
n--;
}
d += DEFAULT_SHOTGUN_SPREAD / 2;
c += 4;
}
/*
// generate the "random" spread pattern
for ( i = 0 ; i < DEFAULT_SHOTGUN_COUNT ; i++ ) {
r = Q_crandom( &seed ) * DEFAULT_SHOTGUN_SPREAD; // CPM
u = Q_crandom( &seed ) * DEFAULT_SHOTGUN_SPREAD; // CPM
VectorMA( origin, 8192, forward, end);
VectorMA (end, r, right, end);
VectorMA (end, u, up, end);
if( ShotgunPellet( origin, end, ent ) && !hitClient ) {
hitClient = qtrue;
ent->client->accuracy_hits++;
}
}
*/
}
void RotateAroundDirection( vector3 axis[3], float yaw ) {
// create an arbitrary axis[1]
PerpendicularVector( &axis[1], &axis[0] );
// rotate it around axis[0] by yaw
if ( yaw ) {
vector3 temp;
VectorCopy( &axis[1], &temp );
RotatePointAroundVector( &axis[1], &axis[0], &temp, yaw );
}
// cross to get axis[2]
CrossProduct( &axis[0], &axis[1], &axis[2] );
}
// this should match CG_ShotgunPattern
void ShotgunPattern( vec3_t origin, vec3_t origin2, int seed, gentity_t *ent ) {
int i;
float r, u;
vec3_t end;
vec3_t forward, right, up;
qboolean hitClient = qfalse;
//unlagged - attack prediction #2
// use this for testing
/*
if ( g_unlagged.integer )
Com_Printf( "Server seed: %d\n", seed );
*/
//-unlagged - attack prediction #2
// derive the right and up vectors from the forward vector, because
// the client won't have any other information
VectorNormalize2( origin2, forward );
PerpendicularVector( right, forward );
CrossProduct( forward, right, up );
//unlagged - backward reconciliation #2
// backward-reconcile the other clients
if ( g_unlagged.integer )
G_DoTimeShiftFor( ent );
//-unlagged - backward reconciliation #2
// generate the "random" spread pattern
for ( i = 0 ; i < DEFAULT_SHOTGUN_COUNT ; i++ ) {
r = Q_crandom( &seed ) * DEFAULT_SHOTGUN_SPREAD * 16;
u = Q_crandom( &seed ) * DEFAULT_SHOTGUN_SPREAD * 16;
VectorMA( origin, 8192 * 16, forward, end);
VectorMA (end, r, right, end);
VectorMA (end, u, up, end);
if( ShotgunPellet( origin, end, ent ) && !hitClient ) {
hitClient = qtrue;
ent->client->accuracy_hits++;
}
}
//unlagged - backward reconciliation #2
// put them back
if ( g_unlagged.integer )
G_UndoTimeShiftFor( ent );
//-unlagged - backward reconciliation #2
}
void Use_Shooter(gentity_t * ent, gentity_t * other, gentity_t * activator)
{
vec3_t dir;
float deg;
vec3_t up, right;
// see if we have a target
if(ent->enemy)
{
VectorSubtract(ent->enemy->r.currentOrigin, ent->s.origin, dir);
VectorNormalize(dir);
}
else
{
VectorCopy(ent->movedir, dir);
}
// randomize a bit
PerpendicularVector(up, dir);
CrossProduct(up, dir, right);
deg = crandom() * ent->random;
VectorMA(dir, deg, up, dir);
deg = crandom() * ent->random;
VectorMA(dir, deg, right, dir);
VectorNormalize(dir);
switch (ent->s.weapon)
{
case WP_GRENADE_LAUNCHER:
fire_grenade(ent, ent->s.origin, dir);
break;
case WP_ROCKET_LAUNCHER:
fire_rocket(ent, ent->s.origin, dir);
break;
case WP_PLASMAGUN:
fire_plasma(ent, ent->s.origin, dir);
break;
}
G_AddEvent(ent, EV_FIRE_WEAPON, 0);
}
/*
** RB_DrawSun
*/
void RB_DrawSun( float scale, shader_t *shader ) {
float size;
float dist;
vec3_t origin, vec1, vec2;
if ( !backEnd.skyRenderedThisView ) {
return;
}
//qglLoadMatrixf( backEnd.viewParms.world.modelMatrix );
//qglTranslatef (backEnd.viewParms.or.origin[0], backEnd.viewParms.or.origin[1], backEnd.viewParms.or.origin[2]);
{
// FIXME: this could be a lot cleaner
mat4_t translation, modelview;
Mat4Translation( backEnd.viewParms.or.origin, translation );
Mat4Multiply( backEnd.viewParms.world.modelMatrix, translation, modelview );
GL_SetModelviewMatrix( modelview );
}
dist = backEnd.viewParms.zFar / 1.75; // div sqrt(3)
size = dist * scale;
VectorScale( tr.sunDirection, dist, origin );
PerpendicularVector( vec1, tr.sunDirection );
CrossProduct( tr.sunDirection, vec1, vec2 );
VectorScale( vec1, size, vec1 );
VectorScale( vec2, size, vec2 );
// farthest depth range
qglDepthRange( 1.0, 1.0 );
RB_BeginSurface( shader, 0, 0 );
RB_AddQuadStamp(origin, vec1, vec2, colorWhite);
RB_EndSurface();
// back to normal depth range
qglDepthRange( 0.0, 1.0 );
}
/*
================
Keep this in sync with ShotgunPattern in CGAME!
================
*/
static void ShotgunPattern( vec3_t origin, vec3_t origin2, int seed, gentity_t *self )
{
int i;
float r, u, a;
vec3_t end;
vec3_t forward, right, up;
trace_t tr;
gentity_t *traceEnt;
// derive the right and up vectors from the forward vector, because
// the client won't have any other information
VectorNormalize2( origin2, forward );
PerpendicularVector( right, forward );
CrossProduct( forward, right, up );
// generate the "random" spread pattern
for ( i = 0; i < SHOTGUN_PELLETS; i++ )
{
r = Q_crandom( &seed ) * M_PI;
a = Q_random( &seed ) * SHOTGUN_SPREAD * 16;
u = sin( r ) * a;
r = cos( r ) * a;
VectorMA( origin, SHOTGUN_RANGE, forward, end );
VectorMA( end, r, right, end );
VectorMA( end, u, up, end );
trap_Trace( &tr, origin, NULL, NULL, end, self->s.number, MASK_SHOT );
traceEnt = &g_entities[ tr.entityNum ];
// do the damage
if ( !( tr.surfaceFlags & SURF_NOIMPACT ) )
{
if ( traceEnt->takedamage )
{
G_Damage( traceEnt, self, self, forward, tr.endpos, SHOTGUN_DMG, 0, MOD_SHOTGUN );
}
}
}
}
bool HoldableItemExplosive::findPlaceToSet( Vector &newOrigin, Vector &newAngles )
{
Player *player;
trace_t viewTrace;
Vector forward;
Vector left;
Vector up;
float axis[3][3];
vec3_t newAnglesVec;
if ( !_owner || !_owner->isSubclassOf( Player ) )
return false;
player = (Player *)_owner;
memset( &viewTrace, 0, sizeof(trace_t) );
player->GetViewTrace( viewTrace, MASK_SHOT, 16.0f * 7.0f );
if ( ( viewTrace.fraction < 1.0f ) && ( viewTrace.ent && viewTrace.entityNum == ENTITYNUM_WORLD ) )
{
newOrigin = viewTrace.endpos;
up = viewTrace.plane.normal;
PerpendicularVector( forward, viewTrace.plane.normal );
left.CrossProduct( up, forward );
forward.copyTo( axis[ AXIS_FORWARD_VECTOR ] );
left.copyTo( axis[ AXIS_RIGHT_VECTOR ] );
up.copyTo( axis[ AXIS_UP_VECTOR ] );
AxisToAngles( axis, newAnglesVec );
newAngles = newAnglesVec;
return true;
}
return false;
}
void CG_ExplosionsDust( vec3_t pos, vec3_t dir, float radius )
{
const int count = 32; /* Number of sprites used to create the circle */
lentity_t *le;
struct shader_s *shader = CG_MediaShader( cgs.media.shaderSmokePuff3 );
vec3_t dir_per1;
vec3_t dir_per2;
vec3_t dir_temp = { 0.0f, 0.0f, 0.0f };
int i;
float angle;
if( CG_PointContents( pos ) & MASK_WATER )
return; // no smoke under water :)
PerpendicularVector( dir_per2, dir );
CrossProduct( dir, dir_per2, dir_per1 );
//VectorScale( dir_per1, VectorNormalize( dir_per1 ), dir_per1 );
//VectorScale( dir_per2, VectorNormalize( dir_per2 ), dir_per2 );
// make a circle out of the specified number (int count) of sprites
for( i = 0; i < count; i++ )
{
angle = (float)( 6.2831f / count * i );
VectorSet( dir_temp, 0.0f, 0.0f, 0.0f );
VectorMA( dir_temp, sin( angle ), dir_per1, dir_temp );
VectorMA( dir_temp, cos( angle ), dir_per2, dir_temp );
//VectorScale(dir_temp, VectorNormalize(dir_temp),dir_temp );
VectorScale( dir_temp, crandom()*8 + radius + 16.0f, dir_temp );
// make the sprite smaller & alpha'd
le = CG_AllocSprite( LE_ALPHA_FADE, pos, 10, 10,
1.0f, 1.0f, 1.0f, 1.0f,
0, 0, 0, 0,
shader );
VectorCopy( dir_temp, le->velocity );
}
}
/*
================
CG_ShotgunPattern
Perform the same traces the server did to locate the
hit splashes
================
*/
static void CG_ShotgunPattern( vec3_t origin, vec3_t origin2, int seed, int otherEntNum )
{
int i;
float r, u;
vec3_t end;
vec3_t forward, right, up;
trace_t tr;
// derive the right and up vectors from the forward vector, because
// the client won't have any other information
VectorNormalize2( origin2, forward );
PerpendicularVector( right, forward );
CrossProduct( forward, right, up );
// generate the "random" spread pattern
for( i = 0; i < SHOTGUN_PELLETS; i++ )
{
r = Q_crandom( &seed ) * SHOTGUN_SPREAD * 16;
u = Q_crandom( &seed ) * SHOTGUN_SPREAD * 16;
VectorMA( origin, 8192 * 16, forward, end );
VectorMA( end, r, right, end );
VectorMA( end, u, up, end );
CG_Trace( &tr, origin, NULL, NULL, end, otherEntNum, MASK_SHOT );
if( !( tr.surfaceFlags & SURF_NOIMPACT ) )
{
if( cg_entities[ tr.entityNum ].currentState.eType == ET_PLAYER ||
cg_entities[ tr.entityNum ].currentState.eType == ET_BUILDABLE )
CG_MissileHitEntity( WP_SHOTGUN, WPM_PRIMARY, tr.endpos, tr.plane.normal, tr.entityNum, 0 );
else if( tr.surfaceFlags & SURF_METALSTEPS )
CG_MissileHitWall( WP_SHOTGUN, WPM_PRIMARY, 0, tr.endpos, tr.plane.normal, IMPACTSOUND_METAL, 0 );
else
CG_MissileHitWall( WP_SHOTGUN, WPM_PRIMARY, 0, tr.endpos, tr.plane.normal, IMPACTSOUND_DEFAULT, 0 );
}
}
}
// this should match CG_ShotgunPattern
void ShotgunPattern( vec3_t origin, vec3_t origin2, int seed, gentity_t *ent ) {
int i;
float r, u;
vec3_t end;
vec3_t forward, right, up;
int oldScore;
qboolean hitClient = qfalse;
/* LQ3A */
int spread;
// derive the right and up vectors from the forward vector, because
// the client won't have any other information
VectorNormalize2( origin2, forward );
PerpendicularVector( right, forward );
CrossProduct( forward, right, up );
oldScore = ent->client->ps.persistant[PERS_SCORE];
/* LQ3A */
spread = (g_damageBulletSpread.integer > 0) ? g_damageBulletSpread.integer : 0;
// generate the "random" spread pattern
for ( i = 0 ; i < DEFAULT_SHOTGUN_COUNT ; i++ ) {
/* LQ3A */
r = Q_crandom( &seed ) * spread * 16;
u = Q_crandom( &seed ) * spread * 16;
VectorMA( origin, 8192 * 16, forward, end);
VectorMA (end, r, right, end);
VectorMA (end, u, up, end);
if( ShotgunPellet( origin, end, ent ) && !hitClient ) {
hitClient = qtrue;
ent->client->accuracy_hits++;
}
}
}
/*
** RB_DrawSun
*/
void RB_DrawSun( void ) {
bfixed size;
bfixed dist;
bvec3_t origin;
avec3_t vec1, vec2;
bvec3_t bvec1, bvec2;
bvec3_t temp;
if ( !backEnd.skyRenderedThisView ) {
return;
}
if ( !r_drawSun->integer ) {
return;
}
glLoadMatrixX( backEnd.viewParms.world.modelMatrix );
glTranslateX ( REINTERPRET_GFIXED(backEnd.viewParms._or.origin[0]),
REINTERPRET_GFIXED(backEnd.viewParms._or.origin[1]),
REINTERPRET_GFIXED(backEnd.viewParms._or.origin[2]));
dist = backEnd.viewParms.zFar / BFIXED(1,75); // div sqrt(3)
size = dist * BFIXED(0,4);
FIXED_VEC3SCALE_R( tr.sunDirection, dist, origin );
PerpendicularVector( vec1, tr.sunDirection );
CrossProduct( tr.sunDirection, vec1, vec2 );
FIXED_VEC3SCALE_R( vec1, size, bvec1 );
FIXED_VEC3SCALE_R( vec2, size, bvec2 );
// farthest depth range
glDepthRangeX( GFIXED_1, GFIXED_1 );
// FIXME: use quad stamp
RB_BeginSurface( tr.sunShader, tess.fogNum );
VectorCopy( origin, temp );
VectorSubtract( temp, bvec1, temp );
VectorSubtract( temp, bvec2, temp );
VectorCopy( temp, tess.xyz[tess.numVertexes] );
tess.texCoords[tess.numVertexes][0][0] = GFIXED_0;
tess.texCoords[tess.numVertexes][0][1] = GFIXED_0;
tess.vertexColors[tess.numVertexes][0] = 255;
tess.vertexColors[tess.numVertexes][1] = 255;
tess.vertexColors[tess.numVertexes][2] = 255;
tess.numVertexes++;
VectorCopy( origin, temp );
VectorAdd( temp, bvec1, temp );
VectorSubtract( temp, bvec2, temp );
VectorCopy( temp, tess.xyz[tess.numVertexes] );
tess.texCoords[tess.numVertexes][0][0] = GFIXED_0;
tess.texCoords[tess.numVertexes][0][1] = GFIXED_1;
tess.vertexColors[tess.numVertexes][0] = 255;
tess.vertexColors[tess.numVertexes][1] = 255;
tess.vertexColors[tess.numVertexes][2] = 255;
tess.numVertexes++;
VectorCopy( origin, temp );
VectorAdd( temp, bvec1, temp );
VectorAdd( temp, bvec2, temp );
VectorCopy( temp, tess.xyz[tess.numVertexes] );
tess.texCoords[tess.numVertexes][0][0] = GFIXED_1;
tess.texCoords[tess.numVertexes][0][1] = GFIXED_1;
tess.vertexColors[tess.numVertexes][0] = 255;
tess.vertexColors[tess.numVertexes][1] = 255;
tess.vertexColors[tess.numVertexes][2] = 255;
tess.numVertexes++;
VectorCopy( origin, temp );
VectorSubtract( temp, bvec1, temp );
VectorAdd( temp, bvec2, temp );
VectorCopy( temp, tess.xyz[tess.numVertexes] );
tess.texCoords[tess.numVertexes][0][0] = GFIXED_1;
tess.texCoords[tess.numVertexes][0][1] = GFIXED_0;
tess.vertexColors[tess.numVertexes][0] = 255;
tess.vertexColors[tess.numVertexes][1] = 255;
tess.vertexColors[tess.numVertexes][2] = 255;
tess.numVertexes++;
tess.indexes[tess.numIndexes++] = 0;
tess.indexes[tess.numIndexes++] = 1;
tess.indexes[tess.numIndexes++] = 2;
tess.indexes[tess.numIndexes++] = 0;
tess.indexes[tess.numIndexes++] = 2;
tess.indexes[tess.numIndexes++] = 3;
RB_EndSurface();
// back to normal depth range
glDepthRangeX( GFIXED_0, GFIXED_1);
}
/*
====================
CL_UISystemCalls
The ui module is making a system call
====================
*/
intptr_t CL_UISystemCalls(intptr_t *args) {
switch(args[0]) {
//rww - alright, DO NOT EVER add a GAME/CGAME/UI generic call without adding a trap to match, and
//all of these traps must be shared and have cases in sv_game, cl_cgame, and cl_ui. They must also
//all be in the same order, and start at 100.
case TRAP_MEMSET:
Com_Memset(VMA(1), args[2], args[3]);
return 0;
case TRAP_MEMCPY:
Com_Memcpy(VMA(1), VMA(2), args[3]);
return 0;
case TRAP_STRNCPY:
return (intptr_t)strncpy((char *)VMA(1), (const char *)VMA(2), args[3]);
case TRAP_SIN:
return FloatAsInt(sin(VMF(1)));
case TRAP_COS:
return FloatAsInt(cos(VMF(1)));
case TRAP_ATAN2:
return FloatAsInt(atan2(VMF(1), VMF(2)));
case TRAP_SQRT:
return FloatAsInt(sqrt(VMF(1)));
case TRAP_MATRIXMULTIPLY:
MatrixMultiply((vec3_t *)VMA(1), (vec3_t *)VMA(2), (vec3_t *)VMA(3));
return 0;
case TRAP_ANGLEVECTORS:
AngleVectors((const float *)VMA(1), (float *)VMA(2), (float *)VMA(3), (float *)VMA(4));
return 0;
case TRAP_PERPENDICULARVECTOR:
PerpendicularVector((float *)VMA(1), (const float *)VMA(2));
return 0;
case TRAP_FLOOR:
return FloatAsInt(floor(VMF(1)));
case TRAP_CEIL:
return FloatAsInt(ceil(VMF(1)));
case TRAP_TESTPRINTINT:
return 0;
case TRAP_TESTPRINTFLOAT:
return 0;
case TRAP_ACOS:
return FloatAsInt(Q_acos(VMF(1)));
case TRAP_ASIN:
return FloatAsInt(Q_asin(VMF(1)));
case UI_ERROR:
Com_Error( ERR_DROP, "%s", VMA(1) );
return 0;
case UI_PRINT:
Com_Printf( "%s", VMA(1) );
return 0;
case UI_MILLISECONDS:
return Sys_Milliseconds();
case UI_CVAR_REGISTER:
Cvar_Register( (vmCvar_t *)VMA(1), (const char *)VMA(2), (const char *)VMA(3), args[4] );
return 0;
case UI_CVAR_UPDATE:
Cvar_Update( (vmCvar_t *)VMA(1) );
return 0;
case UI_CVAR_SET:
Cvar_Set( (const char *)VMA(1), (const char *)VMA(2) );
return 0;
case UI_CVAR_VARIABLEVALUE:
return FloatAsInt( Cvar_VariableValue( (const char *)VMA(1) ) );
case UI_CVAR_VARIABLESTRINGBUFFER:
Cvar_VariableStringBuffer( (const char *)VMA(1), (char *)VMA(2), args[3] );
return 0;
case UI_CVAR_SETVALUE:
Cvar_SetValue( (const char *)VMA(1), VMF(2) );
return 0;
case UI_CVAR_RESET:
Cvar_Reset( (const char *)VMA(1) );
return 0;
case UI_CVAR_CREATE:
Cvar_Get( (const char *)VMA(1), (const char *)VMA(2), args[3] );
return 0;
case UI_CVAR_INFOSTRINGBUFFER:
Cvar_InfoStringBuffer( args[1], (char *)VMA(2), args[3] );
return 0;
case UI_ARGC:
return Cmd_Argc();
case UI_ARGV:
Cmd_ArgvBuffer( args[1], (char *)VMA(2), args[3] );
return 0;
case UI_CMD_EXECUTETEXT:
Cbuf_ExecuteText( args[1], (const char *)VMA(2) );
return 0;
case UI_FS_FOPENFILE:
return FS_FOpenFileByMode( (const char *)VMA(1), (int *)VMA(2), (fsMode_t)args[3] );
case UI_FS_READ:
FS_Read2( VMA(1), args[2], args[3] );
return 0;
case UI_FS_WRITE:
FS_Write( VMA(1), args[2], args[3] );
return 0;
case UI_FS_FCLOSEFILE:
FS_FCloseFile( args[1] );
return 0;
case UI_FS_GETFILELIST:
return FS_GetFileList( (const char *)VMA(1), (const char *)VMA(2), (char *)VMA(3), args[4] );
case UI_R_REGISTERMODEL:
return re.RegisterModel( (const char *)VMA(1) );
case UI_R_REGISTERSKIN:
return re.RegisterSkin( (const char *)VMA(1) );
case UI_R_REGISTERSHADERNOMIP:
return re.RegisterShaderNoMip( (const char *)VMA(1) );
case UI_R_SHADERNAMEFROMINDEX:
{
char *gameMem = (char *)VMA(1);
const char *retMem = re.ShaderNameFromIndex(args[2]);
if (retMem)
{
strcpy(gameMem, retMem);
}
else
{
gameMem[0] = 0;
}
}
return 0;
case UI_R_CLEARSCENE:
re.ClearScene();
return 0;
case UI_R_ADDREFENTITYTOSCENE:
re.AddRefEntityToScene( (const refEntity_t *)VMA(1) );
return 0;
case UI_R_ADDPOLYTOSCENE:
re.AddPolyToScene( args[1], args[2], (const polyVert_t *)VMA(3), 1 );
return 0;
case UI_R_ADDLIGHTTOSCENE:
#ifdef VV_LIGHTING
VVLightMan.RE_AddLightToScene( (const float *)VMA(1), VMF(2), VMF(3), VMF(4), VMF(5) );
#else
re.AddLightToScene( (const float *)VMA(1), VMF(2), VMF(3), VMF(4), VMF(5) );
#endif
return 0;
case UI_R_RENDERSCENE:
re.RenderScene( (const refdef_t *)VMA(1) );
return 0;
case UI_R_SETCOLOR:
re.SetColor( (const float *)VMA(1) );
return 0;
case UI_R_DRAWSTRETCHPIC:
re.DrawStretchPic( VMF(1), VMF(2), VMF(3), VMF(4), VMF(5), VMF(6), VMF(7), VMF(8), args[9] );
return 0;
case UI_R_MODELBOUNDS:
re.ModelBounds( args[1], (float *)VMA(2), (float *)VMA(3) );
return 0;
case UI_UPDATESCREEN:
SCR_UpdateScreen();
return 0;
case UI_CM_LERPTAG:
re.LerpTag( (orientation_t *)VMA(1), args[2], args[3], args[4], VMF(5), (const char *)VMA(6) );
return 0;
case UI_S_REGISTERSOUND:
return S_RegisterSound( (const char *)VMA(1) );
case UI_S_STARTLOCALSOUND:
S_StartLocalSound( args[1], args[2] );
return 0;
case UI_KEY_KEYNUMTOSTRINGBUF:
Key_KeynumToStringBuf( args[1], (char *)VMA(2), args[3] );
return 0;
case UI_KEY_GETBINDINGBUF:
Key_GetBindingBuf( args[1], (char *)VMA(2), args[3] );
return 0;
case UI_KEY_SETBINDING:
Key_SetBinding( args[1], (const char *)VMA(2) );
return 0;
case UI_KEY_ISDOWN:
return Key_IsDown( args[1] );
case UI_KEY_GETOVERSTRIKEMODE:
return Key_GetOverstrikeMode();
case UI_KEY_SETOVERSTRIKEMODE:
Key_SetOverstrikeMode( (qboolean)args[1] );
return 0;
case UI_KEY_CLEARSTATES:
Key_ClearStates();
return 0;
case UI_KEY_GETCATCHER:
return Key_GetCatcher();
case UI_KEY_SETCATCHER:
// Don't allow the ui module to close the console
Key_SetCatcher( args[1] | ( Key_GetCatcher( ) & KEYCATCH_CONSOLE ) );
return 0;
case UI_GETCLIPBOARDDATA:
GetClipboardData( (char *)VMA(1), args[2] );
return 0;
case UI_GETCLIENTSTATE:
GetClientState( (uiClientState_t *)VMA(1) );
return 0;
case UI_GETGLCONFIG:
CL_GetGlconfig( (glconfig_t *)VMA(1) );
return 0;
case UI_GETCONFIGSTRING:
return GetConfigString( args[1], (char *)VMA(2), args[3] );
case UI_LAN_LOADCACHEDSERVERS:
LAN_LoadCachedServers();
return 0;
case UI_LAN_SAVECACHEDSERVERS:
LAN_SaveServersToCache();
return 0;
case UI_LAN_ADDSERVER:
return LAN_AddServer(args[1], (const char *)VMA(2), (const char *)VMA(3));
case UI_LAN_REMOVESERVER:
LAN_RemoveServer(args[1], (const char *)VMA(2));
return 0;
case UI_LAN_GETPINGQUEUECOUNT:
return LAN_GetPingQueueCount();
case UI_LAN_CLEARPING:
LAN_ClearPing( args[1] );
return 0;
case UI_LAN_GETPING:
LAN_GetPing( args[1], (char *)VMA(2), args[3], (int *)VMA(4) );
return 0;
case UI_LAN_GETPINGINFO:
LAN_GetPingInfo( args[1], (char *)VMA(2), args[3] );
return 0;
case UI_LAN_GETSERVERCOUNT:
return LAN_GetServerCount(args[1]);
case UI_LAN_GETSERVERADDRESSSTRING:
LAN_GetServerAddressString( args[1], args[2], (char *)VMA(3), args[4] );
return 0;
case UI_LAN_GETSERVERINFO:
LAN_GetServerInfo( args[1], args[2], (char *)VMA(3), args[4] );
return 0;
case UI_LAN_GETSERVERPING:
return LAN_GetServerPing( args[1], args[2] );
case UI_LAN_MARKSERVERVISIBLE:
LAN_MarkServerVisible( args[1], args[2], (qboolean)args[3] );
return 0;
case UI_LAN_SERVERISVISIBLE:
return LAN_ServerIsVisible( args[1], args[2] );
case UI_LAN_UPDATEVISIBLEPINGS:
return LAN_UpdateVisiblePings( args[1] );
case UI_LAN_RESETPINGS:
LAN_ResetPings( args[1] );
return 0;
case UI_LAN_SERVERSTATUS:
return LAN_GetServerStatus( (char *)VMA(1), (char *)VMA(2), args[3] );
case UI_LAN_COMPARESERVERS:
return LAN_CompareServers( args[1], args[2], args[3], args[4], args[5] );
case UI_MEMORY_REMAINING:
return Hunk_MemoryRemaining();
case UI_R_REGISTERFONT:
return re.RegisterFont( (const char *)VMA(1) );
case UI_R_FONT_STRLENPIXELS:
return re.Font_StrLenPixels( (const char *)VMA(1), args[2], VMF(3) );
case UI_R_FONT_STRLENCHARS:
return re.Font_StrLenChars( (const char *)VMA(1) );
case UI_R_FONT_STRHEIGHTPIXELS:
return re.Font_HeightPixels( args[1], VMF(2) );
case UI_R_FONT_DRAWSTRING:
#ifdef __ANDROID__
re.Font_DrawString( VMF(1), VMF(2), (const char *)VMA(3), (const float *) VMA(4), args[5], args[6], VMF(7) );
#else
{float ox, oy;
if (cls.mmeState >= MME_STATE_DEFAULT) {
ox = VMF(1); oy = VMF(2);
} else {
ox = args[1]; oy = args[2];
}
re.Font_DrawString( ox, oy, (const char *)VMA(3), (const float *) VMA(4), args[5], args[6], VMF(7) );}
return 0;
#endif
case UI_LANGUAGE_ISASIAN:
return re.Language_IsAsian();
case UI_LANGUAGE_USESSPACES:
return re.Language_UsesSpaces();
case UI_ANYLANGUAGE_READCHARFROMSTRING:
return re.AnyLanguage_ReadCharFromString( (const char *)VMA(1), (int *) VMA(2), (qboolean *) VMA(3) );
case UI_PC_ADD_GLOBAL_DEFINE:
return botlib_export->PC_AddGlobalDefine( (char *)VMA(1) );
case UI_PC_LOAD_SOURCE:
return botlib_export->PC_LoadSourceHandle( (const char *)VMA(1) );
case UI_PC_FREE_SOURCE:
return botlib_export->PC_FreeSourceHandle( args[1] );
case UI_PC_READ_TOKEN:
return botlib_export->PC_ReadTokenHandle( args[1], (struct pc_token_s *)VMA(2) );
case UI_PC_SOURCE_FILE_AND_LINE:
return botlib_export->PC_SourceFileAndLine( args[1], (char *)VMA(2), (int *)VMA(3) );
case UI_PC_LOAD_GLOBAL_DEFINES:
return botlib_export->PC_LoadGlobalDefines ( (char *)VMA(1) );
case UI_PC_REMOVE_ALL_GLOBAL_DEFINES:
botlib_export->PC_RemoveAllGlobalDefines ( );
return 0;
case UI_S_STOPBACKGROUNDTRACK:
S_StopBackgroundTrack();
return 0;
case UI_S_STARTBACKGROUNDTRACK:
S_StartBackgroundTrack( (const char *)VMA(1), (const char *)VMA(2), qfalse);
return 0;
case UI_REAL_TIME:
return Com_RealTime( (struct qtime_s *)VMA(1) );
case UI_CIN_PLAYCINEMATIC:
Com_DPrintf("UI_CIN_PlayCinematic\n");
return CIN_PlayCinematic((const char *)VMA(1), args[2], args[3], args[4], args[5], args[6]);
case UI_CIN_STOPCINEMATIC:
return CIN_StopCinematic(args[1]);
case UI_CIN_RUNCINEMATIC:
return CIN_RunCinematic(args[1]);
case UI_CIN_DRAWCINEMATIC:
CIN_DrawCinematic(args[1]);
return 0;
case UI_CIN_SETEXTENTS:
CIN_SetExtents(args[1], args[2], args[3], args[4], args[5]);
return 0;
case UI_R_REMAP_SHADER:
re.RemapShader( (const char *)VMA(1), (const char *)VMA(2), (const char *)VMA(3) );
return 0;
case UI_SP_GETNUMLANGUAGES:
return SE_GetNumLanguages();
case UI_SP_GETLANGUAGENAME:
char *languageName,*holdName;
holdName = ((char *)VMA(2));
languageName = (char *) SE_GetLanguageName((const intptr_t)VMA(1));
Q_strncpyz( holdName, languageName,128 );
return 0;
case UI_SP_GETSTRINGTEXTSTRING:
const char* text;
assert(VMA(1));
assert(VMA(2));
text = SE_GetString((const char *) VMA(1));
Q_strncpyz( (char *) VMA(2), text, args[3] );
return qtrue;
/*
Ghoul2 Insert Start
*/
/*
Ghoul2 Insert Start
*/
case UI_G2_LISTSURFACES:
re.G2API_ListSurfaces( (CGhoul2Info *) args[1] );
return 0;
case UI_G2_LISTBONES:
re.G2API_ListBones( (CGhoul2Info *) args[1], args[2]);
return 0;
case UI_G2_HAVEWEGHOULMODELS:
return re.G2API_HaveWeGhoul2Models(((CGhoul2Info_v *)args[1]) );
case UI_G2_SETMODELS:
re.G2API_SetGhoul2ModelIndexes(((CGhoul2Info_v *)args[1]),(qhandle_t *)VMA(2),(qhandle_t *)VMA(3));
return 0;
case UI_G2_GETBOLT:
return re.G2API_GetBoltMatrix(((CGhoul2Info_v *)args[1]), args[2], args[3], (mdxaBone_t *)VMA(4), (const float *)VMA(5),(const float *)VMA(6), args[7], (qhandle_t *)VMA(8), (float *)VMA(9));
case UI_G2_GETBOLT_NOREC:
re.G2API_BoltMatrixReconstruction( qfalse );//gG2_GBMNoReconstruct = qtrue;
return re.G2API_GetBoltMatrix(((CGhoul2Info_v *)args[1]), args[2], args[3], (mdxaBone_t *)VMA(4), (const float *)VMA(5),(const float *)VMA(6), args[7], (qhandle_t *)VMA(8), (float *)VMA(9));
case UI_G2_GETBOLT_NOREC_NOROT:
//RAZFIXME: cgame reconstructs bolt matrix, why is this different?
re.G2API_BoltMatrixReconstruction( qfalse );//gG2_GBMNoReconstruct = qtrue;
re.G2API_BoltMatrixSPMethod( qtrue );//gG2_GBMUseSPMethod = qtrue;
return re.G2API_GetBoltMatrix(((CGhoul2Info_v *)args[1]), args[2], args[3], (mdxaBone_t *)VMA(4), (const float *)VMA(5),(const float *)VMA(6), args[7], (qhandle_t *)VMA(8), (float *)VMA(9));
case UI_G2_INITGHOUL2MODEL:
#ifdef _FULL_G2_LEAK_CHECKING
g_G2AllocServer = 0;
#endif
return re.G2API_InitGhoul2Model((CGhoul2Info_v **)VMA(1), (const char *)VMA(2), args[3], (qhandle_t) args[4],
(qhandle_t) args[5], args[6], args[7]);
case UI_G2_COLLISIONDETECT:
case UI_G2_COLLISIONDETECTCACHE:
return 0; //not supported for ui
case UI_G2_ANGLEOVERRIDE:
return re.G2API_SetBoneAngles(((CGhoul2Info_v *)args[1]), args[2], (const char *)VMA(3), (float *)VMA(4), args[5],
(const Eorientations) args[6], (const Eorientations) args[7], (const Eorientations) args[8],
(qhandle_t *)VMA(9), args[10], args[11] );
case UI_G2_CLEANMODELS:
#ifdef _FULL_G2_LEAK_CHECKING
g_G2AllocServer = 0;
#endif
re.G2API_CleanGhoul2Models((CGhoul2Info_v **)VMA(1));
// re.G2API_CleanGhoul2Models((CGhoul2Info_v **)args[1]);
return 0;
case UI_G2_PLAYANIM:
return re.G2API_SetBoneAnim(((CGhoul2Info_v *)args[1]), args[2], (const char *)VMA(3), args[4], args[5],
args[6], VMF(7), args[8], VMF(9), args[10]);
case UI_G2_GETBONEANIM:
{
CGhoul2Info_v &g2 = *((CGhoul2Info_v *)args[1]);
int modelIndex = args[10];
return re.G2API_GetBoneAnim(&g2[modelIndex], (const char*)VMA(2), args[3], (float *)VMA(4), (int *)VMA(5),
(int *)VMA(6), (int *)VMA(7), (float *)VMA(8), (int *)VMA(9));
}
case UI_G2_GETBONEFRAME:
{ //rwwFIXMEFIXME: Just make a G2API_GetBoneFrame func too. This is dirty.
CGhoul2Info_v &g2 = *((CGhoul2Info_v *)args[1]);
int modelIndex = args[6];
int iDontCare1 = 0, iDontCare2 = 0, iDontCare3 = 0;
float fDontCare1 = 0;
return re.G2API_GetBoneAnim(&g2[modelIndex], (const char*)VMA(2), args[3], (float *)VMA(4), &iDontCare1,
&iDontCare2, &iDontCare3, &fDontCare1, (int *)VMA(5));
}
case UI_G2_GETGLANAME:
// return (int)G2API_GetGLAName(*((CGhoul2Info_v *)VMA(1)), args[2]);
{
char *point = ((char *)VMA(3));
char *local;
local = re.G2API_GetGLAName(((CGhoul2Info_v *)args[1]), args[2]);
if (local)
{
strcpy(point, local);
}
}
return 0;
case UI_G2_COPYGHOUL2INSTANCE:
return (int)re.G2API_CopyGhoul2Instance(((CGhoul2Info_v *)args[1]), ((CGhoul2Info_v *)args[2]), args[3]);
case UI_G2_COPYSPECIFICGHOUL2MODEL:
re.G2API_CopySpecificG2Model(((CGhoul2Info_v *)args[1]), args[2], ((CGhoul2Info_v *)args[3]), args[4]);
return 0;
case UI_G2_DUPLICATEGHOUL2INSTANCE:
#ifdef _FULL_G2_LEAK_CHECKING
g_G2AllocServer = 0;
#endif
re.G2API_DuplicateGhoul2Instance(((CGhoul2Info_v *)args[1]), (CGhoul2Info_v **)VMA(2));
return 0;
case UI_G2_HASGHOUL2MODELONINDEX:
return (int)re.G2API_HasGhoul2ModelOnIndex((CGhoul2Info_v **)VMA(1), args[2]);
//return (int)G2API_HasGhoul2ModelOnIndex((CGhoul2Info_v **)args[1], args[2]);
case UI_G2_REMOVEGHOUL2MODEL:
#ifdef _FULL_G2_LEAK_CHECKING
g_G2AllocServer = 0;
#endif
return (int)re.G2API_RemoveGhoul2Model((CGhoul2Info_v **)VMA(1), args[2]);
//return (int)G2API_RemoveGhoul2Model((CGhoul2Info_v **)args[1], args[2]);
case UI_G2_ADDBOLT:
return re.G2API_AddBolt(((CGhoul2Info_v *)args[1]), args[2], (const char *)VMA(3));
// case UI_G2_REMOVEBOLT:
// return G2API_RemoveBolt(*((CGhoul2Info_v *)VMA(1)), args[2]);
case UI_G2_SETBOLTON:
re.G2API_SetBoltInfo(((CGhoul2Info_v *)args[1]), args[2], args[3]);
return 0;
#ifdef _SOF2
case UI_G2_ADDSKINGORE:
re.G2API_AddSkinGore(*((CGhoul2Info_v *)args[1]),*(SSkinGoreData *)VMA(2));
return 0;
#endif // _SOF2
/*
Ghoul2 Insert End
*/
case UI_G2_SETROOTSURFACE:
return re.G2API_SetRootSurface(((CGhoul2Info_v *)args[1]), args[2], (const char *)VMA(3));
case UI_G2_SETSURFACEONOFF:
return re.G2API_SetSurfaceOnOff(((CGhoul2Info_v *)args[1]), (const char *)VMA(2), /*(const int)VMA(3)*/args[3]);
case UI_G2_SETNEWORIGIN:
return re.G2API_SetNewOrigin(((CGhoul2Info_v *)args[1]), /*(const int)VMA(2)*/args[2]);
case UI_G2_GETTIME:
return re.G2API_GetTime(0);
case UI_G2_SETTIME:
re.G2API_SetTime(args[1], args[2]);
return 0;
case UI_G2_SETRAGDOLL:
return 0; //not supported for ui
break;
case UI_G2_ANIMATEG2MODELS:
return 0; //not supported for ui
break;
case UI_G2_SETBONEIKSTATE:
return re.G2API_SetBoneIKState(*((CGhoul2Info_v *)args[1]), args[2], (const char *)VMA(3), args[4], (sharedSetBoneIKStateParams_t *)VMA(5));
case UI_G2_IKMOVE:
return re.G2API_IKMove(*((CGhoul2Info_v *)args[1]), args[2], (sharedIKMoveParams_t *)VMA(3));
case UI_G2_GETSURFACENAME:
{ //Since returning a pointer in such a way to a VM seems to cause MASSIVE FAILURE<tm>, we will shove data into the pointer the vm passes instead
char *point = ((char *)VMA(4));
char *local;
int modelindex = args[3];
CGhoul2Info_v &g2 = *((CGhoul2Info_v *)args[1]);
local = re.G2API_GetSurfaceName(&g2[modelindex], args[2]);
if (local)
{
strcpy(point, local);
}
}
return 0;
case UI_G2_SETSKIN:
{
CGhoul2Info_v &g2 = *((CGhoul2Info_v *)args[1]);
int modelIndex = args[2];
return re.G2API_SetSkin(&g2[modelIndex], args[3], args[4]);
}
case UI_G2_ATTACHG2MODEL:
{
CGhoul2Info_v *g2From = ((CGhoul2Info_v *)args[1]);
CGhoul2Info_v *g2To = ((CGhoul2Info_v *)args[3]);
return re.G2API_AttachG2Model(g2From, args[2], g2To, args[4], args[5]);
}
/*
Ghoul2 Insert End
*/
case UI_MME_FONTRATIOFIX:
re.FontRatioFix(VMF(1));
return 0;
case UI_MME_EDITINGFIELD:
cls.uiEditingField = (qboolean)args[1];
return 0;
default:
Com_Error( ERR_DROP, "Bad UI system trap: %ld", (long int) args[0] );
}
return 0;
}
/*
** RB_DrawSun
*/
void RB_DrawSun( void ) {
float size;
float dist;
vec3_t origin, vec1, vec2;
vec3_t temp;
if ( !backEnd.skyRenderedThisView ) {
return;
}
if ( !r_drawSun->integer ) {
return;
}
qglLoadMatrixf( backEnd.viewParms.world.modelMatrix );
qglTranslatef (backEnd.viewParms.ori.origin[0], backEnd.viewParms.ori.origin[1], backEnd.viewParms.ori.origin[2]);
dist = backEnd.viewParms.zFar / 1.75; // div sqrt(3)
size = dist * 0.4;
VectorScale( tr.sunDirection, dist, origin );
PerpendicularVector( vec1, tr.sunDirection );
CrossProduct( tr.sunDirection, vec1, vec2 );
VectorScale( vec1, size, vec1 );
VectorScale( vec2, size, vec2 );
// farthest depth range
qglDepthRange( 1.0, 1.0 );
// FIXME: use quad stamp
RB_BeginSurface( tr.sunShader, tess.fogNum );
VectorCopy( origin, temp );
VectorSubtract( temp, vec1, temp );
VectorSubtract( temp, vec2, temp );
VectorCopy( temp, tess.xyz[tess.numVertexes] );
tess.texCoords[tess.numVertexes][0][0] = 0;
tess.texCoords[tess.numVertexes][0][1] = 0;
tess.vertexColors[tess.numVertexes][0] = 255;
tess.vertexColors[tess.numVertexes][1] = 255;
tess.vertexColors[tess.numVertexes][2] = 255;
tess.numVertexes++;
VectorCopy( origin, temp );
VectorAdd( temp, vec1, temp );
VectorSubtract( temp, vec2, temp );
VectorCopy( temp, tess.xyz[tess.numVertexes] );
tess.texCoords[tess.numVertexes][0][0] = 0;
tess.texCoords[tess.numVertexes][0][1] = 1;
tess.vertexColors[tess.numVertexes][0] = 255;
tess.vertexColors[tess.numVertexes][1] = 255;
tess.vertexColors[tess.numVertexes][2] = 255;
tess.numVertexes++;
VectorCopy( origin, temp );
VectorAdd( temp, vec1, temp );
VectorAdd( temp, vec2, temp );
VectorCopy( temp, tess.xyz[tess.numVertexes] );
tess.texCoords[tess.numVertexes][0][0] = 1;
tess.texCoords[tess.numVertexes][0][1] = 1;
tess.vertexColors[tess.numVertexes][0] = 255;
tess.vertexColors[tess.numVertexes][1] = 255;
tess.vertexColors[tess.numVertexes][2] = 255;
tess.numVertexes++;
VectorCopy( origin, temp );
VectorSubtract( temp, vec1, temp );
VectorAdd( temp, vec2, temp );
VectorCopy( temp, tess.xyz[tess.numVertexes] );
tess.texCoords[tess.numVertexes][0][0] = 1;
tess.texCoords[tess.numVertexes][0][1] = 0;
tess.vertexColors[tess.numVertexes][0] = 255;
tess.vertexColors[tess.numVertexes][1] = 255;
tess.vertexColors[tess.numVertexes][2] = 255;
tess.numVertexes++;
tess.indexes[tess.numIndexes++] = 0;
tess.indexes[tess.numIndexes++] = 1;
tess.indexes[tess.numIndexes++] = 2;
tess.indexes[tess.numIndexes++] = 0;
tess.indexes[tess.numIndexes++] = 2;
tess.indexes[tess.numIndexes++] = 3;
RB_EndSurface();
// back to normal depth range
qglDepthRange( 0.0, 1.0 );
}
/*
=================
R_GetPortalOrientation
entityNum is the entity that the portal surface is a part of, which may
be moving and rotating.
Returns qtrue if it should be mirrored
=================
*/
qboolean R_GetPortalOrientations( drawSurf_t *drawSurf, int entityNum,
orientation_t *surface, orientation_t *camera,
vec3_t pvsOrigin, qboolean *mirror ) {
int i;
cplane_t originalPlane, plane;
trRefEntity_t *e;
float d;
vec3_t transformed;
// create plane axis for the portal we are seeing
R_PlaneForSurface( drawSurf->surface, &originalPlane );
// rotate the plane if necessary
if ( entityNum != REFENTITYNUM_WORLD ) {
tr.currentEntityNum = entityNum;
tr.currentEntity = &tr.refdef.entities[entityNum];
// get the orientation of the entity
R_RotateForEntity( tr.currentEntity, &tr.viewParms, &tr.ori );
// rotate the plane, but keep the non-rotated version for matching
// against the portalSurface entities
R_LocalNormalToWorld( originalPlane.normal, plane.normal );
plane.dist = originalPlane.dist + DotProduct( plane.normal, tr.ori.origin );
// translate the original plane
originalPlane.dist = originalPlane.dist + DotProduct( originalPlane.normal, tr.ori.origin );
} else {
plane = originalPlane;
}
VectorCopy( plane.normal, surface->axis[0] );
PerpendicularVector( surface->axis[1], surface->axis[0] );
CrossProduct( surface->axis[0], surface->axis[1], surface->axis[2] );
// locate the portal entity closest to this plane.
// origin will be the origin of the portal, origin2 will be
// the origin of the camera
for ( i = 0 ; i < tr.refdef.num_entities ; i++ ) {
e = &tr.refdef.entities[i];
if ( e->e.reType != RT_PORTALSURFACE ) {
continue;
}
d = DotProduct( e->e.origin, originalPlane.normal ) - originalPlane.dist;
if ( d > 64 || d < -64) {
continue;
}
// get the pvsOrigin from the entity
VectorCopy( e->e.oldorigin, pvsOrigin );
// if the entity is just a mirror, don't use as a camera point
if ( e->e.oldorigin[0] == e->e.origin[0] &&
e->e.oldorigin[1] == e->e.origin[1] &&
e->e.oldorigin[2] == e->e.origin[2] ) {
VectorScale( plane.normal, plane.dist, surface->origin );
VectorCopy( surface->origin, camera->origin );
VectorSubtract( vec3_origin, surface->axis[0], camera->axis[0] );
VectorCopy( surface->axis[1], camera->axis[1] );
VectorCopy( surface->axis[2], camera->axis[2] );
*mirror = qtrue;
return qtrue;
}
// project the origin onto the surface plane to get
// an origin point we can rotate around
d = DotProduct( e->e.origin, plane.normal ) - plane.dist;
VectorMA( e->e.origin, -d, surface->axis[0], surface->origin );
// now get the camera origin and orientation
VectorCopy( e->e.oldorigin, camera->origin );
AxisCopy( e->e.axis, camera->axis );
VectorSubtract( vec3_origin, camera->axis[0], camera->axis[0] );
VectorSubtract( vec3_origin, camera->axis[1], camera->axis[1] );
// optionally rotate
if ( e->e.oldframe ) {
// if a speed is specified
if ( e->e.frame ) {
// continuous rotate
d = (tr.refdef.time/1000.0f) * e->e.frame;
VectorCopy( camera->axis[1], transformed );
RotatePointAroundVector( camera->axis[1], camera->axis[0], transformed, d );
CrossProduct( camera->axis[0], camera->axis[1], camera->axis[2] );
} else {
// bobbing rotate, with skinNum being the rotation offset
d = sin( tr.refdef.time * 0.003f );
d = e->e.skinNum + d * 4;
VectorCopy( camera->axis[1], transformed );
RotatePointAroundVector( camera->axis[1], camera->axis[0], transformed, d );
CrossProduct( camera->axis[0], camera->axis[1], camera->axis[2] );
}
}
else if ( e->e.skinNum ) {
d = e->e.skinNum;
VectorCopy( camera->axis[1], transformed );
RotatePointAroundVector( camera->axis[1], camera->axis[0], transformed, d );
CrossProduct( camera->axis[0], camera->axis[1], camera->axis[2] );
}
*mirror = qfalse;
return qtrue;
}
// if we didn't locate a portal entity, don't render anything.
// We don't want to just treat it as a mirror, because without a
// portal entity the server won't have communicated a proper entity set
// in the snapshot
// unfortunately, with local movement prediction it is easily possible
// to see a surface before the server has communicated the matching
// portal surface entity, so we don't want to print anything here...
//ri->Printf( PRINT_ALL, "Portal surface without a portal entity\n" );
return qfalse;
}
/*
** RB_DrawSun
*/
void RB_DrawSun( void )
{
#if 0
float size;
float dist;
vec3_t origin, vec1, vec2;
vec3_t temp;
matrix_t transformMatrix;
matrix_t modelViewMatrix;
if ( !backEnd.skyRenderedThisView )
{
return;
}
if ( !r_drawSun->integer )
{
return;
}
GL_PushMatrix();
GL_BindProgram( &tr.genericShader );
// set uniforms
GLSL_SetUniform_TCGen_Environment( &tr.genericShader, qfalse );
GLSL_SetUniform_InverseVertexColor( &tr.genericShader, qfalse );
if ( glConfig2.vboVertexSkinningAvailable )
{
GLSL_SetUniform_VertexSkinning( &tr.genericShader, qfalse );
}
GLSL_SetUniform_DeformGen( &tr.genericShader, DGEN_NONE );
GLSL_SetUniform_AlphaTest( &tr.genericShader, -1.0 );
MatrixSetupTranslation( transformMatrix, backEnd.viewParms.orientation.origin[ 0 ], backEnd.viewParms.orientation.origin[ 1 ],
backEnd.viewParms.orientation.origin[ 2 ] );
MatrixMultiply( backEnd.viewParms.world.viewMatrix, transformMatrix, modelViewMatrix );
GL_LoadProjectionMatrix( backEnd.viewParms.projectionMatrix );
GL_LoadModelViewMatrix( modelViewMatrix );
GLSL_SetUniform_ModelMatrix( &tr.genericShader, backEnd.orientation.transformMatrix );
GLSL_SetUniform_ModelViewProjectionMatrix( &tr.genericShader, glState.modelViewProjectionMatrix[ glState.stackIndex ] );
GLSL_SetUniform_PortalClipping( &tr.genericShader, backEnd.viewParms.isPortal );
if ( backEnd.viewParms.isPortal )
{
float plane[ 4 ];
// clipping plane in world space
plane[ 0 ] = backEnd.viewParms.portalPlane.normal[ 0 ];
plane[ 1 ] = backEnd.viewParms.portalPlane.normal[ 1 ];
plane[ 2 ] = backEnd.viewParms.portalPlane.normal[ 2 ];
plane[ 3 ] = backEnd.viewParms.portalPlane.dist;
GLSL_SetUniform_PortalPlane( &tr.genericShader, plane );
}
dist = backEnd.viewParms.skyFar / 1.75; // div sqrt(3)
size = dist * 0.4;
VectorScale( tr.sunDirection, dist, origin );
PerpendicularVector( vec1, tr.sunDirection );
CrossProduct( tr.sunDirection, vec1, vec2 );
VectorScale( vec1, size, vec1 );
VectorScale( vec2, size, vec2 );
// farthest depth range
glDepthRange( 1.0, 1.0 );
// FIXME: use quad stamp
Tess_Begin( Tess_StageIteratorGeneric, tr.sunShader, NULL, tess.skipTangentSpaces, qfalse, -1, tess.fogNum );
VectorCopy( origin, temp );
VectorSubtract( temp, vec1, temp );
VectorSubtract( temp, vec2, temp );
VectorCopy( temp, tess.xyz[ tess.numVertexes ] );
tess.xyz[ tess.numVertexes ][ 3 ] = 1;
tess.texCoords[ tess.numVertexes ][ 0 ] = 0;
tess.texCoords[ tess.numVertexes ][ 1 ] = 0;
tess.texCoords[ tess.numVertexes ][ 2 ] = 0;
tess.texCoords[ tess.numVertexes ][ 3 ] = 1;
tess.colors[ tess.numVertexes ][ 0 ] = 1;
tess.colors[ tess.numVertexes ][ 1 ] = 1;
tess.colors[ tess.numVertexes ][ 2 ] = 1;
tess.numVertexes++;
VectorCopy( origin, temp );
VectorAdd( temp, vec1, temp );
VectorSubtract( temp, vec2, temp );
VectorCopy( temp, tess.xyz[ tess.numVertexes ] );
tess.xyz[ tess.numVertexes ][ 3 ] = 1;
tess.texCoords[ tess.numVertexes ][ 0 ] = 0;
tess.texCoords[ tess.numVertexes ][ 1 ] = 1;
tess.texCoords[ tess.numVertexes ][ 2 ] = 0;
tess.texCoords[ tess.numVertexes ][ 3 ] = 1;
tess.colors[ tess.numVertexes ][ 0 ] = 1;
tess.colors[ tess.numVertexes ][ 1 ] = 1;
tess.colors[ tess.numVertexes ][ 2 ] = 1;
tess.numVertexes++;
VectorCopy( origin, temp );
VectorAdd( temp, vec1, temp );
VectorAdd( temp, vec2, temp );
VectorCopy( temp, tess.xyz[ tess.numVertexes ] );
tess.xyz[ tess.numVertexes ][ 3 ] = 1;
tess.texCoords[ tess.numVertexes ][ 0 ] = 1;
tess.texCoords[ tess.numVertexes ][ 1 ] = 1;
tess.texCoords[ tess.numVertexes ][ 2 ] = 0;
tess.texCoords[ tess.numVertexes ][ 3 ] = 1;
tess.colors[ tess.numVertexes ][ 0 ] = 1;
tess.colors[ tess.numVertexes ][ 1 ] = 1;
tess.colors[ tess.numVertexes ][ 2 ] = 1;
tess.numVertexes++;
VectorCopy( origin, temp );
VectorSubtract( temp, vec1, temp );
VectorAdd( temp, vec2, temp );
VectorCopy( temp, tess.xyz[ tess.numVertexes ] );
tess.xyz[ tess.numVertexes ][ 3 ] = 1;
tess.texCoords[ tess.numVertexes ][ 0 ] = 1;
tess.texCoords[ tess.numVertexes ][ 1 ] = 0;
tess.texCoords[ tess.numVertexes ][ 2 ] = 0;
tess.texCoords[ tess.numVertexes ][ 3 ] = 1;
tess.colors[ tess.numVertexes ][ 0 ] = 1;
tess.colors[ tess.numVertexes ][ 1 ] = 1;
tess.colors[ tess.numVertexes ][ 2 ] = 1;
tess.numVertexes++;
tess.indexes[ tess.numIndexes++ ] = 0;
tess.indexes[ tess.numIndexes++ ] = 1;
tess.indexes[ tess.numIndexes++ ] = 2;
tess.indexes[ tess.numIndexes++ ] = 0;
tess.indexes[ tess.numIndexes++ ] = 2;
tess.indexes[ tess.numIndexes++ ] = 3;
Tess_End();
// back to standard depth range
glDepthRange( 0.0, 1.0 );
GL_PopMatrix();
#endif
}
/*
====================
SV_GameSystemCalls
The module is making a system call
====================
*/
intptr_t SV_GameSystemCalls(intptr_t * args) {
switch (args[0]) {
case G_PRINT:
Com_Printf("%s", (char *)VMA(1));
return 0;
case G_ERROR:
Com_Error(ERR_DROP, "%s", (char *)VMA(1));
return 0;
case G_MILLISECONDS:
return Sys_Milliseconds();
case G_CVAR_REGISTER:
Cvar_Register((vmCvar_t*)VMA(1), (char*)VMA(2), (char*)VMA(3), args[4]);
return 0;
case G_CVAR_UPDATE:
Cvar_Update((vmCvar_t*)VMA(1));
return 0;
case G_CVAR_SET:
Cvar_Set((const char *)VMA(1), (const char *)VMA(2));
return 0;
case G_CVAR_VARIABLE_INTEGER_VALUE:
return Cvar_VariableIntegerValue((const char *)VMA(1));
case G_CVAR_VARIABLE_STRING_BUFFER:
Cvar_VariableStringBuffer((char *)VMA(1), (char*)VMA(2), args[3]);
return 0;
case G_CVAR_LATCHEDVARIABLESTRINGBUFFER:
Cvar_LatchedVariableStringBuffer((char *)VMA(1), (char*)VMA(2), args[3]);
return 0;
case G_ARGC:
return Cmd_Argc();
case G_ARGV:
Cmd_ArgvBuffer(args[1], (char*)VMA(2), args[3]);
return 0;
case G_SEND_CONSOLE_COMMAND:
Cbuf_ExecuteText(args[1], (char *)VMA(2));
return 0;
case G_FS_FOPEN_FILE:
return FS_FOpenFileByMode((char *)VMA(1), (fileHandle_t*)VMA(2), (fsMode_t)args[3]);
case G_FS_READ:
FS_Read2(VMA(1), args[2], args[3]);
return 0;
case G_FS_WRITE:
return FS_Write(VMA(1), args[2], args[3]);
case G_FS_RENAME:
FS_Rename((char *)VMA(1), (char *)VMA(2));
return 0;
case G_FS_FCLOSE_FILE:
FS_FCloseFile(args[1]);
return 0;
case G_FS_GETFILELIST:
return FS_GetFileList((char *)VMA(1), (char *)VMA(2), (char*)VMA(3), args[4]);
case G_LOCATE_GAME_DATA:
SV_LocateGameData((sharedEntity_t*)VMA(1), args[2], args[3], (playerState_t*)VMA(4), args[5]);
return 0;
case G_DROP_CLIENT:
SV_GameDropClient(args[1], (char*)VMA(2), args[3]);
return 0;
case G_SEND_SERVER_COMMAND:
SV_GameSendServerCommand(args[1], (char*)VMA(2));
return 0;
case G_LINKENTITY:
SV_LinkEntity((sharedEntity_t*)VMA(1));
return 0;
case G_UNLINKENTITY:
SV_UnlinkEntity((sharedEntity_t*)VMA(1));
return 0;
case G_ENTITIES_IN_BOX:
return SV_AreaEntities((float*)VMA(1), (float*)VMA(2), (int*)VMA(3), args[4]);
case G_ENTITY_CONTACT:
return SV_EntityContact((float*)VMA(1), (float*)VMA(2), (sharedEntity_t*)VMA(3), TT_AABB);
case G_ENTITY_CONTACTCAPSULE:
return SV_EntityContact((float*)VMA(1), (float*)VMA(2), (sharedEntity_t*)VMA(3), TT_CAPSULE);
case G_TRACE:
SV_Trace((trace_t*)VMA(1), (float*)VMA(2), (float*)VMA(3), (float*)VMA(4), (float*)VMA(5), args[6], args[7], TT_AABB);
return 0;
case G_TRACECAPSULE:
SV_Trace((trace_t*)VMA(1), (float*)VMA(2), (float*)VMA(3), (float*)VMA(4), (float*)VMA(5), args[6], args[7], TT_CAPSULE);
return 0;
case G_POINT_CONTENTS:
return SV_PointContents((float*)VMA(1), args[2]);
case G_SET_BRUSH_MODEL:
SV_SetBrushModel((sharedEntity_t*)VMA(1), (char*)VMA(2));
return 0;
case G_IN_PVS:
return SV_inPVS((float*)VMA(1), (float*)VMA(2));
case G_IN_PVS_IGNORE_PORTALS:
return SV_inPVSIgnorePortals((float*)VMA(1), (float*)VMA(2));
case G_SET_CONFIGSTRING:
SV_SetConfigstring(args[1], (char*)VMA(2));
return 0;
case G_GET_CONFIGSTRING:
SV_GetConfigstring(args[1], (char*)VMA(2), args[3]);
return 0;
case G_SET_CONFIGSTRING_RESTRICTIONS:
SV_SetConfigstringRestrictions( args[1], (clientList_t*)VMA(2) );
return 0;
case G_SET_USERINFO:
SV_SetUserinfo(args[1], (char*)VMA(2));
return 0;
case G_GET_USERINFO:
SV_GetUserinfo(args[1], (char*)VMA(2), args[3]);
return 0;
case G_GET_SERVERINFO:
SV_GetServerinfo((char*)VMA(1), args[2]);
return 0;
case G_ADJUST_AREA_PORTAL_STATE:
SV_AdjustAreaPortalState((sharedEntity_t*)VMA(1),(bool)args[2]);
return 0;
case G_AREAS_CONNECTED:
return CM_AreasConnected(args[1], args[2]);
case G_UPDATE_SHARED_CONFIG:
SV_UpdateSharedConfig( args[1], (char*)VMA(2) );
return 0;
case G_BOT_ALLOCATE_CLIENT:
return SV_BotAllocateClient(args[1]);
case G_BOT_FREE_CLIENT:
SV_BotFreeClient(args[1]);
return 0;
case G_GET_USERCMD:
SV_GetUsercmd(args[1], (usercmd_t*)VMA(2));
return 0;
case G_GET_ENTITY_TOKEN: {
const char *s;
s = COM_Parse(&sv.entityParsePoint);
Q_strncpyz((char*)VMA(1), s, args[2]);
if(!sv.entityParsePoint && !s[0]) {
return false;
} else {
return true;
}
}
case G_DEBUG_POLYGON_CREATE:
return BotImport_DebugPolygonCreate(args[1], args[2], (vec3_t*)VMA(3));
case G_DEBUG_POLYGON_DELETE:
BotImport_DebugPolygonDelete(args[1]);
return 0;
case G_REAL_TIME:
return Com_RealTime((qtime_t*)VMA(1));
case G_SNAPVECTOR:
Q_SnapVector((float*)VMA(1));
return 0;
case G_SEND_GAMESTAT:
SV_MasterGameStat( (char*)VMA(1) );
return 0;
case G_ADDCOMMAND:
Cmd_AddCommand( (char*)VMA(1), NULL, (char*)VMA(3) );
return 0;
case G_REMOVECOMMAND:
Cmd_RemoveCommand( (char*)VMA(1) );
return 0;
case G_GETTAG:
return SV_GetTag(args[1], args[2], (char*)VMA(3), (orientation_t*)VMA(4));
case G_REGISTERTAG:
return SV_LoadTag((char*)VMA(1));
case G_REGISTERSOUND:
return S_RegisterSound((char*)VMA(1), (bool)args[2]);
case G_GET_SOUND_LENGTH:
return S_GetSoundLength(args[1]);
case G_PARSE_ADD_GLOBAL_DEFINE:
return Parse_AddGlobalDefine( (char*)VMA(1) );
case G_PARSE_LOAD_SOURCE:
return Parse_LoadSourceHandle( (char*)VMA(1) );
case G_PARSE_FREE_SOURCE:
return Parse_FreeSourceHandle( args[1] );
case G_PARSE_READ_TOKEN:
return Parse_ReadTokenHandle( args[1], (pc_token_t*)VMA(2) );
case G_PARSE_SOURCE_FILE_AND_LINE:
return Parse_SourceFileAndLine( args[1], (char*)VMA(2), (int*)VMA(3) );
case BOTLIB_SETUP:
return SV_BotLibSetup();
case BOTLIB_SHUTDOWN:
return SV_BotLibShutdown();
case BOTLIB_LIBVAR_SET:
return botlib_export->BotLibVarSet((char*)VMA(1), (char*)VMA(2));
case BOTLIB_LIBVAR_GET:
return botlib_export->BotLibVarGet((char*)VMA(1), (char*)VMA(2), args[3]);
case BOTLIB_PC_ADD_GLOBAL_DEFINE:
return Parse_AddGlobalDefine( (char*)VMA(1) );
case BOTLIB_PC_LOAD_SOURCE:
return Parse_LoadSourceHandle((char*)VMA(1));
case BOTLIB_PC_FREE_SOURCE:
return Parse_FreeSourceHandle(args[1]);
case BOTLIB_PC_READ_TOKEN:
return Parse_ReadTokenHandle(args[1], (pc_token_t*)VMA(2));
case BOTLIB_PC_SOURCE_FILE_AND_LINE:
return Parse_SourceFileAndLine(args[1], (char*)VMA(2), (int*)VMA(3));
case BOTLIB_PC_UNREAD_TOKEN:
Parse_UnreadLastTokenHandle(args[1]);
return 0;
case BOTLIB_START_FRAME:
return botlib_export->BotLibStartFrame(VMF(1));
case BOTLIB_LOAD_MAP:
return botlib_export->BotLibLoadMap((char*)VMA(1));
case BOTLIB_UPDATENTITY:
return botlib_export->BotLibUpdateEntity(args[1], (bot_entitystate_t*)VMA(2));
case BOTLIB_TEST:
return botlib_export->Test( args[1], (char*)VMA(2), (float*)VMA(3), (float*)VMA(4) );
case BOTLIB_GET_SNAPSHOT_ENTITY:
return SV_BotGetSnapshotEntity(args[1], args[2]);
case BOTLIB_GET_CONSOLE_MESSAGE:
return SV_BotGetConsoleMessage(args[1], (char*)VMA(2), args[3]);
case BOTLIB_USER_COMMAND:
SV_ClientThink(&svs.clients[args[1]], (usercmd_t*)VMA(2));
return 0;
case BOTLIB_AAS_ENTITY_INFO:
botlib_export->aas.AAS_EntityInfo(args[1], (aas_entityinfo_s*)VMA(2));
return 0;
case BOTLIB_AAS_INITIALIZED:
return botlib_export->aas.AAS_Initialized();
case BOTLIB_AAS_PRESENCE_TYPE_BOUNDING_BOX:
botlib_export->aas.AAS_PresenceTypeBoundingBox( args[1], (float*)VMA(2), (float*)VMA(3) );
return 0;
case BOTLIB_AAS_TIME:
return FloatAsInt(botlib_export->aas.AAS_Time());
case BOTLIB_AAS_SETCURRENTWORLD:
botlib_export->aas.AAS_SetCurrentWorld(args[1]);
return 0;
case BOTLIB_AAS_POINT_AREA_NUM:
return botlib_export->aas.AAS_PointAreaNum( (float*)VMA(1) );
case BOTLIB_AAS_TRACE_AREAS:
return botlib_export->aas.AAS_TraceAreas( (float*)VMA(1), (float*)VMA(2), (int*)VMA(3), (vec3_t*)VMA(4), args[5] );
case BOTLIB_AAS_BBOX_AREAS:
return botlib_export->aas.AAS_BBoxAreas( (float*)VMA(1), (float*)VMA(2), (int*)VMA(3), args[4] );
case BOTLIB_AAS_AREA_CENTER:
botlib_export->aas.AAS_AreaCenter(args[1], (float*)VMA(2));
return 0;
case BOTLIB_AAS_AREA_WAYPOINT:
return botlib_export->aas.AAS_AreaWaypoint(args[1], (float*)VMA(2));
case BOTLIB_AAS_POINT_CONTENTS:
return botlib_export->aas.AAS_PointContents((float*)VMA(1));
case BOTLIB_AAS_NEXT_BSP_ENTITY:
return botlib_export->aas.AAS_NextBSPEntity(args[1]);
case BOTLIB_AAS_VALUE_FOR_BSP_EPAIR_KEY:
return botlib_export->aas.AAS_ValueForBSPEpairKey(args[1], (char*)VMA(2), (char*)VMA(3), args[4]);
case BOTLIB_AAS_VECTOR_FOR_BSP_EPAIR_KEY:
return botlib_export->aas.AAS_VectorForBSPEpairKey(args[1], (char*)VMA(2), (float*)VMA(3));
case BOTLIB_AAS_FLOAT_FOR_BSP_EPAIR_KEY:
return botlib_export->aas.AAS_FloatForBSPEpairKey(args[1], (char*)VMA(2), (float*)VMA(3));
case BOTLIB_AAS_INT_FOR_BSP_EPAIR_KEY:
return botlib_export->aas.AAS_IntForBSPEpairKey(args[1], (char*)VMA(2), (int*)VMA(3));
case BOTLIB_AAS_AREA_REACHABILITY:
return botlib_export->aas.AAS_AreaReachability(args[1]);
case BOTLIB_AAS_AREA_LADDER:
return botlib_export->aas.AAS_AreaLadder(args[1]);
case BOTLIB_AAS_AREA_TRAVEL_TIME_TO_GOAL_AREA:
return botlib_export->aas.AAS_AreaTravelTimeToGoalArea(args[1], (float*)VMA(2), args[3], args[4]);
case BOTLIB_AAS_SWIMMING:
return botlib_export->aas.AAS_Swimming((float*)VMA(1));
case BOTLIB_AAS_PREDICT_CLIENT_MOVEMENT:
return botlib_export->aas.AAS_PredictClientMovement((aas_clientmove_s*)VMA(1), args[2], (float*)VMA(3), args[4], args[5], (float*)VMA(6), (float*)VMA(7), args[8], args[9], VMF(10), args[11], args[12], args[13]);
case BOTLIB_AAS_RT_SHOWROUTE:
botlib_export->aas.AAS_RT_ShowRoute((float*)VMA(1), args[2], args[3]);
return 0;
case BOTLIB_AAS_NEARESTHIDEAREA:
return botlib_export->aas.AAS_NearestHideArea(args[1], (float*)VMA(2), args[3], args[4], (float*)VMA(5), args[6], args[7], VMF(8), (float*)VMA(9));
case BOTLIB_AAS_LISTAREASINRANGE:
return botlib_export->aas.AAS_ListAreasInRange((float*)VMA(1), args[2], VMF(3), args[4], (vec3_t*)VMA(5), args[6]);
case BOTLIB_AAS_AVOIDDANGERAREA:
return botlib_export->aas.AAS_AvoidDangerArea((float*)VMA(1), args[2], (float*)VMA(3), args[4], VMF(5), args[6]);
case BOTLIB_AAS_RETREAT:
return botlib_export->aas.AAS_Retreat((int*)VMA(1), args[2], (float*)VMA(3), args[4], (float*)VMA(5), args[6], VMF(7), VMF(8), args[9]);
case BOTLIB_AAS_ALTROUTEGOALS:
return botlib_export->aas.AAS_AlternativeRouteGoals((float*)VMA(1), (float*)VMA(2), args[3], (aas_altroutegoal_t*)VMA(4), args[5], args[6]);
case BOTLIB_AAS_SETAASBLOCKINGENTITY:
botlib_export->aas.AAS_SetAASBlockingEntity((float*)VMA(1), (float*)VMA(2), args[3]);
return 0;
case BOTLIB_AAS_RECORDTEAMDEATHAREA:
botlib_export->aas.AAS_RecordTeamDeathArea((float*)VMA(1), args[2], args[3], args[4], args[5]);
return 0;
case BOTLIB_EA_SAY:
botlib_export->ea.EA_Say(args[1], (char*)VMA(2));
return 0;
case BOTLIB_EA_SAY_TEAM:
botlib_export->ea.EA_SayTeam(args[1], (char*)VMA(2));
return 0;
case BOTLIB_EA_USE_ITEM:
botlib_export->ea.EA_UseItem(args[1], (char*)VMA(2));
return 0;
case BOTLIB_EA_DROP_ITEM:
botlib_export->ea.EA_DropItem(args[1], (char*)VMA(2));
return 0;
case BOTLIB_EA_USE_INV:
botlib_export->ea.EA_UseInv(args[1], (char*)VMA(2));
return 0;
case BOTLIB_EA_DROP_INV:
botlib_export->ea.EA_DropInv(args[1], (char*)VMA(2));
return 0;
case BOTLIB_EA_GESTURE:
botlib_export->ea.EA_Gesture(args[1]);
return 0;
case BOTLIB_EA_COMMAND:
botlib_export->ea.EA_Command(args[1], (char*)VMA(2));
return 0;
case BOTLIB_EA_SELECT_WEAPON:
botlib_export->ea.EA_SelectWeapon(args[1], args[2]);
return 0;
case BOTLIB_EA_TALK:
botlib_export->ea.EA_Talk(args[1]);
return 0;
case BOTLIB_EA_ATTACK:
botlib_export->ea.EA_Attack(args[1]);
return 0;
case BOTLIB_EA_RELOAD:
botlib_export->ea.EA_Reload(args[1]);
return 0;
case BOTLIB_EA_USE:
botlib_export->ea.EA_Use(args[1]);
return 0;
case BOTLIB_EA_RESPAWN:
botlib_export->ea.EA_Respawn(args[1]);
return 0;
case BOTLIB_EA_JUMP:
botlib_export->ea.EA_Jump(args[1]);
return 0;
case BOTLIB_EA_DELAYED_JUMP:
botlib_export->ea.EA_DelayedJump(args[1]);
return 0;
case BOTLIB_EA_CROUCH:
botlib_export->ea.EA_Crouch(args[1]);
return 0;
case BOTLIB_EA_WALK:
botlib_export->ea.EA_Walk(args[1]);
return 0;
case BOTLIB_EA_MOVE_UP:
botlib_export->ea.EA_MoveUp(args[1]);
return 0;
case BOTLIB_EA_MOVE_DOWN:
botlib_export->ea.EA_MoveDown(args[1]);
return 0;
case BOTLIB_EA_MOVE_FORWARD:
botlib_export->ea.EA_MoveForward(args[1]);
return 0;
case BOTLIB_EA_MOVE_BACK:
botlib_export->ea.EA_MoveBack(args[1]);
return 0;
case BOTLIB_EA_MOVE_LEFT:
botlib_export->ea.EA_MoveLeft(args[1]);
return 0;
case BOTLIB_EA_MOVE_RIGHT:
botlib_export->ea.EA_MoveRight(args[1]);
return 0;
case BOTLIB_EA_MOVE:
botlib_export->ea.EA_Move(args[1], (float*)VMA(2), VMF(3));
return 0;
case BOTLIB_EA_VIEW:
botlib_export->ea.EA_View(args[1], (float*)VMA(2));
return 0;
case BOTLIB_EA_PRONE:
botlib_export->ea.EA_Prone(args[1]);
return 0;
case BOTLIB_EA_END_REGULAR:
botlib_export->ea.EA_EndRegular(args[1], VMF(2));
return 0;
case BOTLIB_EA_GET_INPUT:
botlib_export->ea.EA_GetInput(args[1], VMF(2), (bot_input_t*)VMA(3));
return 0;
case BOTLIB_EA_RESET_INPUT:
botlib_export->ea.EA_ResetInput(args[1], (bot_input_t*)VMA(2));
return 0;
case BOTLIB_AI_LOAD_CHARACTER:
return botlib_export->ai.BotLoadCharacter((char*)VMA(1), args[2]);
case BOTLIB_AI_FREE_CHARACTER:
botlib_export->ai.BotFreeCharacter(args[1]);
return 0;
case BOTLIB_AI_CHARACTERISTIC_FLOAT:
return FloatAsInt(botlib_export->ai.Characteristic_Float(args[1], args[2]));
case BOTLIB_AI_CHARACTERISTIC_BFLOAT:
return FloatAsInt(botlib_export->ai.Characteristic_BFloat(args[1], args[2], VMF(3), VMF(4)));
case BOTLIB_AI_CHARACTERISTIC_INTEGER:
return botlib_export->ai.Characteristic_Integer(args[1], args[2]);
case BOTLIB_AI_CHARACTERISTIC_BINTEGER:
return botlib_export->ai.Characteristic_BInteger(args[1], args[2], args[3], args[4]);
case BOTLIB_AI_CHARACTERISTIC_STRING:
botlib_export->ai.Characteristic_String(args[1], args[2], (char*)VMA(3), args[4]);
return 0;
case BOTLIB_AI_ALLOC_CHAT_STATE:
return botlib_export->ai.BotAllocChatState();
case BOTLIB_AI_FREE_CHAT_STATE:
botlib_export->ai.BotFreeChatState(args[1]);
return 0;
case BOTLIB_AI_QUEUE_CONSOLE_MESSAGE:
botlib_export->ai.BotQueueConsoleMessage(args[1], args[2], (char*)VMA(3));
return 0;
case BOTLIB_AI_REMOVE_CONSOLE_MESSAGE:
botlib_export->ai.BotRemoveConsoleMessage(args[1], args[2]);
return 0;
case BOTLIB_AI_NEXT_CONSOLE_MESSAGE:
return botlib_export->ai.BotNextConsoleMessage(args[1], (bot_consolemessage_s*)VMA(2));
case BOTLIB_AI_NUM_CONSOLE_MESSAGE:
return botlib_export->ai.BotNumConsoleMessages(args[1]);
case BOTLIB_AI_INITIAL_CHAT:
botlib_export->ai.BotInitialChat(args[1], (char*)VMA(2), args[3], (char*)VMA(4), (char*)VMA(5), (char*)VMA(6), (char*)VMA(7), (char*)VMA(8), (char*)VMA(9), (char*)VMA(10), (char*)VMA(11));
return 0;
case BOTLIB_AI_NUM_INITIAL_CHATS:
return botlib_export->ai.BotNumInitialChats(args[1], (char*)VMA(2));
case BOTLIB_AI_REPLY_CHAT:
return botlib_export->ai.BotReplyChat(args[1], (char*)VMA(2), args[3], args[4], (char*)VMA(5), (char*)VMA(6), (char*)VMA(7), (char*)VMA(8), (char*)VMA(9), (char*)VMA(10), (char*)VMA(11), (char*)VMA(12));
case BOTLIB_AI_CHAT_LENGTH:
return botlib_export->ai.BotChatLength(args[1]);
case BOTLIB_AI_ENTER_CHAT:
botlib_export->ai.BotEnterChat(args[1], args[2], args[3]);
return 0;
case BOTLIB_AI_GET_CHAT_MESSAGE:
botlib_export->ai.BotGetChatMessage(args[1], (char*)VMA(2), args[3]);
return 0;
case BOTLIB_AI_STRING_CONTAINS:
return botlib_export->ai.StringContains((char*)VMA(1), (char*)VMA(2), args[3]);
case BOTLIB_AI_FIND_MATCH:
return botlib_export->ai.BotFindMatch((char*)VMA(1), (bot_match_s*)VMA(2), args[3]);
case BOTLIB_AI_MATCH_VARIABLE:
botlib_export->ai.BotMatchVariable((bot_match_s*)VMA(1), args[2], (char*)VMA(3), args[4]);
return 0;
case BOTLIB_AI_UNIFY_WHITE_SPACES:
botlib_export->ai.UnifyWhiteSpaces((char*)VMA(1));
return 0;
case BOTLIB_AI_REPLACE_SYNONYMS:
botlib_export->ai.BotReplaceSynonyms((char*)VMA(1), args[2]);
return 0;
case BOTLIB_AI_LOAD_CHAT_FILE:
return botlib_export->ai.BotLoadChatFile(args[1], (char*)VMA(2), (char*)VMA(3));
case BOTLIB_AI_SET_CHAT_GENDER:
botlib_export->ai.BotSetChatGender(args[1], args[2]);
return 0;
case BOTLIB_AI_SET_CHAT_NAME:
botlib_export->ai.BotSetChatName(args[1], (char*)VMA(2));
return 0;
case BOTLIB_AI_RESET_GOAL_STATE:
botlib_export->ai.BotResetGoalState(args[1]);
return 0;
case BOTLIB_AI_RESET_AVOID_GOALS:
botlib_export->ai.BotResetAvoidGoals(args[1]);
return 0;
case BOTLIB_AI_REMOVE_FROM_AVOID_GOALS:
botlib_export->ai.BotRemoveFromAvoidGoals(args[1], args[2]);
return 0;
case BOTLIB_AI_PUSH_GOAL:
botlib_export->ai.BotPushGoal(args[1], (bot_goal_s*)VMA(2));
return 0;
case BOTLIB_AI_POP_GOAL:
botlib_export->ai.BotPopGoal(args[1]);
return 0;
case BOTLIB_AI_EMPTY_GOAL_STACK:
botlib_export->ai.BotEmptyGoalStack(args[1]);
return 0;
case BOTLIB_AI_DUMP_AVOID_GOALS:
botlib_export->ai.BotDumpAvoidGoals(args[1]);
return 0;
case BOTLIB_AI_DUMP_GOAL_STACK:
botlib_export->ai.BotDumpGoalStack(args[1]);
return 0;
case BOTLIB_AI_GOAL_NAME:
botlib_export->ai.BotGoalName(args[1], (char*)VMA(2), args[3]);
return 0;
case BOTLIB_AI_GET_TOP_GOAL:
return botlib_export->ai.BotGetTopGoal(args[1], (bot_goal_s*)VMA(2));
case BOTLIB_AI_GET_SECOND_GOAL:
return botlib_export->ai.BotGetSecondGoal(args[1], (bot_goal_s*)VMA(2));
case BOTLIB_AI_CHOOSE_LTG_ITEM:
return botlib_export->ai.BotChooseLTGItem(args[1], (float*)VMA(2), (int*)VMA(3), args[4]);
case BOTLIB_AI_CHOOSE_NBG_ITEM:
return botlib_export->ai.BotChooseNBGItem(args[1], (float*)VMA(2), (int*)VMA(3), args[4], (bot_goal_s*)VMA(5), VMF(6));
case BOTLIB_AI_TOUCHING_GOAL:
return botlib_export->ai.BotTouchingGoal((float*)VMA(1), (bot_goal_s*)VMA(2));
case BOTLIB_AI_ITEM_GOAL_IN_VIS_BUT_NOT_VISIBLE:
return botlib_export->ai.BotItemGoalInVisButNotVisible(args[1], (float*)VMA(2), (float*)VMA(3), (bot_goal_s*)VMA(4));
case BOTLIB_AI_GET_LEVEL_ITEM_GOAL:
return botlib_export->ai.BotGetLevelItemGoal(args[1], (char*)VMA(2), (bot_goal_s*)VMA(3));
case BOTLIB_AI_GET_NEXT_CAMP_SPOT_GOAL:
return botlib_export->ai.BotGetNextCampSpotGoal(args[1], (bot_goal_s*)VMA(2));
case BOTLIB_AI_GET_MAP_LOCATION_GOAL:
return botlib_export->ai.BotGetMapLocationGoal((char*)VMA(1), (bot_goal_s*)VMA(2));
case BOTLIB_AI_AVOID_GOAL_TIME:
return FloatAsInt(botlib_export->ai.BotAvoidGoalTime(args[1], args[2]));
case BOTLIB_AI_INIT_LEVEL_ITEMS:
botlib_export->ai.BotInitLevelItems();
return 0;
case BOTLIB_AI_UPDATE_ENTITY_ITEMS:
botlib_export->ai.BotUpdateEntityItems();
return 0;
case BOTLIB_AI_LOAD_ITEM_WEIGHTS:
return botlib_export->ai.BotLoadItemWeights(args[1], (char*)VMA(2));
case BOTLIB_AI_FREE_ITEM_WEIGHTS:
botlib_export->ai.BotFreeItemWeights(args[1]);
return 0;
case BOTLIB_AI_INTERBREED_GOAL_FUZZY_LOGIC:
botlib_export->ai.BotInterbreedGoalFuzzyLogic(args[1], args[2], args[3]);
return 0;
case BOTLIB_AI_SAVE_GOAL_FUZZY_LOGIC:
botlib_export->ai.BotSaveGoalFuzzyLogic(args[1], (char*)VMA(2));
return 0;
case BOTLIB_AI_MUTATE_GOAL_FUZZY_LOGIC:
botlib_export->ai.BotMutateGoalFuzzyLogic(args[1], VMF(2));
return 0;
case BOTLIB_AI_ALLOC_GOAL_STATE:
return botlib_export->ai.BotAllocGoalState(args[1]);
case BOTLIB_AI_FREE_GOAL_STATE:
botlib_export->ai.BotFreeGoalState(args[1]);
return 0;
case BOTLIB_AI_RESET_MOVE_STATE:
botlib_export->ai.BotResetMoveState(args[1]);
return 0;
case BOTLIB_AI_MOVE_TO_GOAL:
botlib_export->ai.BotMoveToGoal((bot_moveresult_s*)VMA(1), args[2], (bot_goal_s*)VMA(3), args[4]);
return 0;
case BOTLIB_AI_MOVE_IN_DIRECTION:
return botlib_export->ai.BotMoveInDirection(args[1], (float*)VMA(2), VMF(3), args[4]);
case BOTLIB_AI_RESET_AVOID_REACH:
botlib_export->ai.BotResetAvoidReach(args[1]);
return 0;
case BOTLIB_AI_RESET_LAST_AVOID_REACH:
botlib_export->ai.BotResetLastAvoidReach(args[1]);
return 0;
case BOTLIB_AI_REACHABILITY_AREA:
return botlib_export->ai.BotReachabilityArea((float*)VMA(1), args[2]);
case BOTLIB_AI_MOVEMENT_VIEW_TARGET:
return botlib_export->ai.BotMovementViewTarget(args[1], (bot_goal_s*)VMA(2), args[3], VMF(4), (float*)VMA(5));
case BOTLIB_AI_PREDICT_VISIBLE_POSITION:
return botlib_export->ai.BotPredictVisiblePosition((float*)VMA(1), args[2], (bot_goal_s*)VMA(3), args[4], (vec_t*)VMA(5));
case BOTLIB_AI_ALLOC_MOVE_STATE:
return botlib_export->ai.BotAllocMoveState();
case BOTLIB_AI_FREE_MOVE_STATE:
botlib_export->ai.BotFreeMoveState(args[1]);
return 0;
case BOTLIB_AI_INIT_MOVE_STATE:
botlib_export->ai.BotInitMoveState(args[1], (bot_initmove_s*)VMA(2));
return 0;
case BOTLIB_AI_INIT_AVOID_REACH:
botlib_export->ai.BotInitAvoidReach(args[1]);
return 0;
case BOTLIB_AI_CHOOSE_BEST_FIGHT_WEAPON:
return botlib_export->ai.BotChooseBestFightWeapon(args[1], (int*)VMA(2));
case BOTLIB_AI_GET_WEAPON_INFO:
botlib_export->ai.BotGetWeaponInfo(args[1], args[2], (weaponinfo_s*)VMA(3));
return 0;
case BOTLIB_AI_LOAD_WEAPON_WEIGHTS:
return botlib_export->ai.BotLoadWeaponWeights(args[1], (char*)VMA(2));
case BOTLIB_AI_ALLOC_WEAPON_STATE:
return botlib_export->ai.BotAllocWeaponState();
case BOTLIB_AI_FREE_WEAPON_STATE:
botlib_export->ai.BotFreeWeaponState(args[1]);
return 0;
case BOTLIB_AI_RESET_WEAPON_STATE:
botlib_export->ai.BotResetWeaponState(args[1]);
return 0;
case BOTLIB_AI_GENETIC_PARENTS_AND_CHILD_SELECTION:
return botlib_export->ai.GeneticParentsAndChildSelection(args[1], (float*)VMA(2), (int*)VMA(3), (int*)VMA(4), (int*)VMA(5));
case G_ADD_PHYSICS_ENTITY:
#ifdef USE_PHYSICS
CMod_PhysicsAddEntity((sharedEntity_t*)VMA(1));
#endif
return 0;
case G_ADD_PHYSICS_STATIC:
#ifdef USE_PHYSICS
CMod_PhysicsAddStatic((sharedEntity_t*)VMA(1));
#endif
return 0;
case TRAP_MEMSET:
memset(VMA(1), args[2], args[3]);
return 0;
case TRAP_MEMCPY:
memcpy(VMA(1), VMA(2), args[3]);
return 0;
case TRAP_STRNCPY:
return (intptr_t)strncpy( (char*)VMA( 1 ), (char*)VMA( 2 ), args[3] );
case TRAP_SIN:
return FloatAsInt(sin(VMF(1)));
case TRAP_COS:
return FloatAsInt(cos(VMF(1)));
case TRAP_ATAN2:
return FloatAsInt(atan2(VMF(1), VMF(2)));
case TRAP_SQRT:
return FloatAsInt(sqrt(VMF(1)));
case TRAP_MATRIXMULTIPLY:
AxisMultiply((vec3_t*)VMA(1), (vec3_t*)VMA(2), (vec3_t*)VMA(3));
return 0;
case TRAP_ANGLEVECTORS:
AngleVectors((vec_t*)VMA(1), (vec_t*)VMA(2), (vec_t*)VMA(3), (vec_t*)VMA(4));
return 0;
case TRAP_PERPENDICULARVECTOR:
PerpendicularVector((vec_t*)VMA(1), (vec_t*)VMA(2));
return 0;
case TRAP_FLOOR:
return FloatAsInt(floor(VMF(1)));
case TRAP_CEIL:
return FloatAsInt(ceil(VMF(1)));
case G_SENDMESSAGE:
SV_SendBinaryMessage(args[1], (char*)VMA(2), args[3]);
return 0;
case G_MESSAGESTATUS:
return SV_BinaryMessageStatus(args[1]);
#if defined(ET_MYSQL)
case G_SQL_RUNQUERY:
return OW_RunQuery( (char*)VMA(1) );
case G_SQL_FINISHQUERY:
OW_FinishQuery( args[1] );
return 0;
case G_SQL_NEXTROW:
return OW_NextRow( args[1] );
case G_SQL_ROWCOUNT:
return OW_RowCount( args[1] );
case G_SQL_GETFIELDBYID:
OW_GetFieldByID( args[1], args[2], (char*)VMA(3), args[4] );
return 0;
case G_SQL_GETFIELDBYNAME:
OW_GetFieldByName( args[1], (char*)VMA(2), (char*)VMA(3), args[4] );
return 0;
case G_SQL_GETFIELDBYID_INT:
return OW_GetFieldByID_int( args[1], args[2] );
case G_SQL_GETFIELDBYNAME_INT:
return OW_GetFieldByName_int( args[1], (char*)VMA(2) );
case G_SQL_FIELDCOUNT:
return OW_FieldCount( args[1] );
case G_SQL_CLEANSTRING:
OW_CleanString( (char*)VMA(1), (char*)VMA(2), args[3] );
return 0;
#endif
case G_RSA_GENMSG:
return SV_RSAGenMsg( (char*)VMA(1), (char*)VMA(2), (char*)VMA(3) );
default:
Com_Error( ERR_DROP, "Bad game system trap: %ld", (long int) args[0] );
}
return -1;
}
void CG_ImpactMark( qhandle_t markShader, const vec3_t origin, const vec3_t dir,
float orientation, float red, float green, float blue, float alpha,
bool alphaFade, float radius, bool temporary )
{
vec3_t axis[ 3 ];
float texCoordScale;
vec3_t originalPoints[ 4 ];
byte colors[ 4 ];
int i, j;
int numFragments;
markFragment_t markFragments[ MAX_MARK_FRAGMENTS ], *mf;
vec3_t markPoints[ MAX_MARK_POINTS ];
vec3_t projection;
if ( !cg_addMarks.integer )
{
return;
}
if( temporary )
{
if( CG_CullPointAndRadius( origin, M_SQRT2 * radius ) )
{
return;
}
}
if ( radius <= 0 )
{
Com_Error(errorParm_t::ERR_DROP, "CG_ImpactMark called with <= 0 radius" );
}
//if ( markTotal >= MAX_MARK_POLYS ) {
// return;
//}
// create the texture axis
VectorNormalize2( dir, axis[ 0 ] );
PerpendicularVector( axis[ 1 ], axis[ 0 ] );
RotatePointAroundVector( axis[ 2 ], axis[ 0 ], axis[ 1 ], orientation );
CrossProduct( axis[ 0 ], axis[ 2 ], axis[ 1 ] );
texCoordScale = 0.5 * 1.0 / radius;
// create the full polygon
for ( i = 0; i < 3; i++ )
{
originalPoints[ 0 ][ i ] = origin[ i ] - radius * axis[ 1 ][ i ] - radius * axis[ 2 ][ i ];
originalPoints[ 1 ][ i ] = origin[ i ] + radius * axis[ 1 ][ i ] - radius * axis[ 2 ][ i ];
originalPoints[ 2 ][ i ] = origin[ i ] + radius * axis[ 1 ][ i ] + radius * axis[ 2 ][ i ];
originalPoints[ 3 ][ i ] = origin[ i ] - radius * axis[ 1 ][ i ] + radius * axis[ 2 ][ i ];
}
// get the fragments
VectorScale( dir, -20, projection );
numFragments = trap_CM_MarkFragments( 4, ( const vec3_t * ) originalPoints,
projection, MAX_MARK_POINTS, markPoints[ 0 ],
MAX_MARK_FRAGMENTS, markFragments );
colors[ 0 ] = red * 255;
colors[ 1 ] = green * 255;
colors[ 2 ] = blue * 255;
colors[ 3 ] = alpha * 255;
for ( i = 0, mf = markFragments; i < numFragments; i++, mf++ )
{
polyVert_t *v;
polyVert_t verts[ MAX_VERTS_ON_POLY ];
markPoly_t *mark;
// we have an upper limit on the complexity of polygons
// that we store persistently
if ( mf->numPoints > MAX_VERTS_ON_POLY )
{
mf->numPoints = MAX_VERTS_ON_POLY;
}
for ( j = 0, v = verts; j < mf->numPoints; j++, v++ )
{
vec3_t delta;
VectorCopy( markPoints[ mf->firstPoint + j ], v->xyz );
VectorSubtract( v->xyz, origin, delta );
v->st[ 0 ] = 0.5 + DotProduct( delta, axis[ 1 ] ) * texCoordScale;
v->st[ 1 ] = 0.5 + DotProduct( delta, axis[ 2 ] ) * texCoordScale;
* ( int * ) v->modulate = * ( int * ) colors;
}
// if it is a temporary (shadow) mark, add it immediately and forget about it
if ( temporary )
{
trap_R_AddPolyToScene( markShader, mf->numPoints, verts );
continue;
}
// otherwise save it persistently
mark = CG_AllocMark();
mark->time = cg.time;
mark->alphaFade = alphaFade;
mark->markShader = markShader;
mark->poly.numVerts = mf->numPoints;
mark->color[ 0 ] = red;
mark->color[ 1 ] = green;
mark->color[ 2 ] = blue;
mark->color[ 3 ] = alpha;
memcpy( mark->verts, verts, mf->numPoints * sizeof( verts[ 0 ] ) );
markTotal++;
}
}
void RE_AddDecalToScene( qhandle_t decalShader, const vec3_t origin, const vec3_t dir, float orientation, float red, float green, float blue, float alpha, qboolean alphaFade, float radius, qboolean temporary )
{
matrix3_t axis;
float texCoordScale;
vec3_t originalPoints[4];
byte colors[4];
int i, j;
int numFragments;
markFragment_t markFragments[MAX_DECAL_FRAGMENTS], *mf;
vec3_t markPoints[MAX_DECAL_POINTS];
vec3_t projection;
assert(decalShader);
if ( r_markcount->integer <= 0 && !temporary )
return;
if ( radius <= 0 )
Com_Error( ERR_FATAL, "RE_AddDecalToScene: called with <= 0 radius" );
// create the texture axis
VectorNormalize2( dir, axis[0] );
PerpendicularVector( axis[1], axis[0] );
RotatePointAroundVector( axis[2], axis[0], axis[1], orientation );
CrossProduct( axis[0], axis[2], axis[1] );
texCoordScale = 0.5 * 1.0 / radius;
// create the full polygon
for ( i = 0 ; i < 3 ; i++ )
{
originalPoints[0][i] = origin[i] - radius * axis[1][i] - radius * axis[2][i];
originalPoints[1][i] = origin[i] + radius * axis[1][i] - radius * axis[2][i];
originalPoints[2][i] = origin[i] + radius * axis[1][i] + radius * axis[2][i];
originalPoints[3][i] = origin[i] - radius * axis[1][i] + radius * axis[2][i];
}
// get the fragments
VectorScale( dir, -20, projection );
numFragments = R_MarkFragments( 4, (const vec3_t*)originalPoints,
projection, MAX_DECAL_POINTS, markPoints[0],
MAX_DECAL_FRAGMENTS, markFragments );
colors[0] = red * 255;
colors[1] = green * 255;
colors[2] = blue * 255;
colors[3] = alpha * 255;
for ( i = 0, mf = markFragments ; i < numFragments ; i++, mf++ )
{
polyVert_t *v;
polyVert_t verts[MAX_VERTS_ON_DECAL_POLY];
decalPoly_t *decal;
// we have an upper limit on the complexity of polygons
// that we store persistantly
if ( mf->numPoints > MAX_VERTS_ON_DECAL_POLY )
mf->numPoints = MAX_VERTS_ON_DECAL_POLY;
for ( j = 0, v = verts ; j < mf->numPoints ; j++, v++ )
{
vec3_t delta;
VectorCopy( markPoints[mf->firstPoint + j], v->xyz );
VectorSubtract( v->xyz, origin, delta );
v->st[0] = 0.5 + DotProduct( delta, axis[1] ) * texCoordScale;
v->st[1] = 0.5 + DotProduct( delta, axis[2] ) * texCoordScale;
for ( int k=0; k<4; k++ )
v->modulate[k] = colors[k];
}
// if it is a temporary (shadow) mark, add it immediately and forget about it
if ( temporary )
{
RE_AddPolyToScene( decalShader, mf->numPoints, verts, 1 );
continue;
}
// otherwise save it persistantly
decal = RE_AllocDecal( DECALPOLY_TYPE_NORMAL );
decal->time = tr.refdef.time;
decal->shader = decalShader;
decal->poly.numVerts = mf->numPoints;
decal->color[0] = red;
decal->color[1] = green;
decal->color[2] = blue;
decal->color[3] = alpha;
memcpy( decal->verts, verts, mf->numPoints * sizeof( verts[0] ) );
}
}
// origin should be a point within a unit of the plane
// dir should be the plane normal
// temporary marks will not be stored or randomly oriented, but immediately passed to the renderer.
void CG_ImpactMark( qhandle_t markShader, const vector3 *origin, const vector3 *dir, float orientation, float red, float green, float blue, float alpha, qboolean alphaFade, float radius, qboolean temporary ) {
matrix3 axis;
float texCoordScale;
vector3 originalPoints[4];
byte colors[4];
int i, j, numFragments;
markFragment_t markFragments[MAX_MARK_FRAGMENTS] = {0}, *mf;
vector3 markPoints[MAX_MARK_POINTS] = {0};
vector3 projection;
if ( !cg_marks->boolean ) {
return;
}
if ( radius <= 0 ) {
trap->Error( ERR_DROP, "CG_ImpactMark called with <= 0 radius" );
}
//if ( markTotal >= MAX_MARK_POLYS ) {
// return;
//}
// create the texture axis
VectorNormalize2( dir, &axis[0] );
PerpendicularVector( &axis[1], &axis[0] );
RotatePointAroundVector( &axis[2], &axis[0], &axis[1], orientation );
CrossProduct( &axis[0], &axis[2], &axis[1] );
texCoordScale = 0.5f * 1.0f / radius;
// create the full polygon
for ( i = 0 ; i < 3 ; i++ ) {
originalPoints[0].data[i] = origin->data[i] - radius * axis[1].data[i] - radius * axis[2].data[i];
originalPoints[1].data[i] = origin->data[i] + radius * axis[1].data[i] - radius * axis[2].data[i];
originalPoints[2].data[i] = origin->data[i] + radius * axis[1].data[i] + radius * axis[2].data[i];
originalPoints[3].data[i] = origin->data[i] - radius * axis[1].data[i] + radius * axis[2].data[i];
}
// get the fragments
VectorScale( dir, -20, &projection );
numFragments = trap->R_MarkFragments( 4, originalPoints, &projection, MAX_MARK_POINTS, &markPoints[0], MAX_MARK_FRAGMENTS, markFragments );
colors[0] = (byte)(red * 255);
colors[1] = (byte)(green * 255);
colors[2] = (byte)(blue * 255);
colors[3] = (byte)(alpha * 255);
for ( i = 0, mf = markFragments ; i < numFragments ; i++, mf++ ) {
polyVert_t *v;
polyVert_t verts[MAX_VERTS_ON_POLY] = {0};
markPoly_t *mark;
// we have an upper limit on the complexity of polygons
// that we store persistently
if ( mf->numPoints > MAX_VERTS_ON_POLY ) {
mf->numPoints = MAX_VERTS_ON_POLY;
}
for ( j = 0, v = verts ; j < mf->numPoints ; j++, v++ ) {
vector3 delta;
VectorCopy( &markPoints[mf->firstPoint + j], &v->xyz );
VectorSubtract( &v->xyz, origin, &delta );
v->st.x = 0.5f + DotProduct( &delta, &axis[1] ) * texCoordScale;
v->st.y = 0.5f + DotProduct( &delta, &axis[2] ) * texCoordScale;
{
int k;
for ( k=0; k<4; k++ )
v->modulate[k] = colors[k];
}
}
// if it is a temporary (shadow) mark, add it immediately and forget about it
if ( temporary ) {
trap->R_AddPolysToScene( markShader, mf->numPoints, verts, 1 );
continue;
}
// otherwise save it persistently
mark = CG_AllocMark();
mark->time = cg.time;
mark->alphaFade = alphaFade;
mark->markShader = markShader;
mark->poly.numVerts = mf->numPoints;
mark->color[0] = red;
mark->color[1] = green;
mark->color[2] = blue;
mark->color[3] = alpha;
memcpy( mark->verts, verts, mf->numPoints * sizeof( verts[0] ) );
markTotal++;
}
}
/*
* CG_AddFragmentedDecal
*/
void CG_AddFragmentedDecal( vec3_t origin, vec3_t dir, float orient, float radius,
float r, float g, float b, float a, struct shader_s *shader ) {
int i, j, c;
vec3_t axis[3];
byte_vec4_t color;
fragment_t *fr, fragments[MAX_TEMPDECAL_FRAGMENTS];
int numfragments;
poly_t poly;
vec4_t verts[MAX_BLOBSHADOW_VERTS];
static vec4_t t_verts[MAX_TEMPDECAL_VERTS * MAX_TEMPDECALS];
static vec4_t t_norms[MAX_TEMPDECAL_VERTS * MAX_TEMPDECALS];
static vec2_t t_stcoords[MAX_TEMPDECAL_VERTS * MAX_TEMPDECALS];
static byte_vec4_t t_colors[MAX_TEMPDECAL_VERTS * MAX_TEMPDECALS];
if( radius <= 0 || VectorCompare( dir, vec3_origin ) ) {
return; // invalid
}
// calculate orientation matrix
VectorNormalize2( dir, axis[0] );
PerpendicularVector( axis[1], axis[0] );
RotatePointAroundVector( axis[2], axis[0], axis[1], orient );
CrossProduct( axis[0], axis[2], axis[1] );
numfragments = trap_R_GetClippedFragments( origin, radius, axis, // clip it
MAX_BLOBSHADOW_VERTS, verts, MAX_TEMPDECAL_FRAGMENTS, fragments );
// no valid fragments
if( !numfragments ) {
return;
}
// clamp and scale colors
if( r < 0 ) {
r = 0;
} else if( r > 1 ) {
r = 255;
} else {
r *= 255;
}
if( g < 0 ) {
g = 0;
} else if( g > 1 ) {
g = 255;
} else {
g *= 255;
}
if( b < 0 ) {
b = 0;
} else if( b > 1 ) {
b = 255;
} else {
b *= 255;
}
if( a < 0 ) {
a = 0;
} else if( a > 1 ) {
a = 255;
} else {
a *= 255;
}
color[0] = ( uint8_t )( r );
color[1] = ( uint8_t )( g );
color[2] = ( uint8_t )( b );
color[3] = ( uint8_t )( a );
c = *( int * )color;
radius = 0.5f / radius;
VectorScale( axis[1], radius, axis[1] );
VectorScale( axis[2], radius, axis[2] );
memset( &poly, 0, sizeof( poly ) );
for( i = 0, fr = fragments; i < numfragments; i++, fr++ ) {
if( fr->numverts <= 0 ) {
continue;
}
if( cg_numDecalVerts + (unsigned)fr->numverts > sizeof( t_verts ) / sizeof( t_verts[0] ) ) {
return;
}
poly.shader = shader;
poly.verts = &t_verts[cg_numDecalVerts];
poly.normals = &t_norms[cg_numDecalVerts];
poly.stcoords = &t_stcoords[cg_numDecalVerts];
poly.colors = &t_colors[cg_numDecalVerts];
poly.numverts = fr->numverts;
poly.fognum = fr->fognum;
cg_numDecalVerts += (unsigned)fr->numverts;
for( j = 0; j < fr->numverts; j++ ) {
vec3_t v;
Vector4Copy( verts[fr->firstvert + j], poly.verts[j] );
VectorCopy( axis[0], poly.normals[j] ); poly.normals[j][3] = 0;
VectorSubtract( poly.verts[j], origin, v );
poly.stcoords[j][0] = DotProduct( v, axis[1] ) + 0.5f;
poly.stcoords[j][1] = DotProduct( v, axis[2] ) + 0.5f;
*( int * )poly.colors[j] = c;
}
trap_R_AddPolyToScene( &poly );
}
}
