/*
===============
V_ParseDamage
===============
*/
void V_ParseDamage (void)
{
int armor, blood;
vec3_t from;
//vec3_t forward, right;
vec3_t localfrom;
entity_t *ent;
//float side;
float count;
armor = MSG_ReadByte(&cl_message);
blood = MSG_ReadByte(&cl_message);
MSG_ReadVector(&cl_message, from, cls.protocol);
// Send the Dmg Globals to CSQC
CL_VM_UpdateDmgGlobals(blood, armor, from);
count = blood*0.5 + armor*0.5;
if (count < 10)
count = 10;
cl.faceanimtime = cl.time + 0.2; // put sbar face into pain frame
cl.cshifts[CSHIFT_DAMAGE].percent += 3*count;
cl.cshifts[CSHIFT_DAMAGE].alphafade = 150;
if (cl.cshifts[CSHIFT_DAMAGE].percent < 0)
cl.cshifts[CSHIFT_DAMAGE].percent = 0;
if (cl.cshifts[CSHIFT_DAMAGE].percent > 150)
cl.cshifts[CSHIFT_DAMAGE].percent = 150;
if (armor > blood)
{
cl.cshifts[CSHIFT_DAMAGE].destcolor[0] = 200;
cl.cshifts[CSHIFT_DAMAGE].destcolor[1] = 100;
cl.cshifts[CSHIFT_DAMAGE].destcolor[2] = 100;
}
else if (armor)
{
cl.cshifts[CSHIFT_DAMAGE].destcolor[0] = 220;
cl.cshifts[CSHIFT_DAMAGE].destcolor[1] = 50;
cl.cshifts[CSHIFT_DAMAGE].destcolor[2] = 50;
}
else
{
cl.cshifts[CSHIFT_DAMAGE].destcolor[0] = 255;
cl.cshifts[CSHIFT_DAMAGE].destcolor[1] = 0;
cl.cshifts[CSHIFT_DAMAGE].destcolor[2] = 0;
}
// calculate view angle kicks
if (cl.entities[cl.viewentity].state_current.active)
{
ent = &cl.entities[cl.viewentity];
Matrix4x4_Transform(&ent->render.inversematrix, from, localfrom);
VectorNormalize(localfrom);
v_dmg_pitch = count * localfrom[0] * v_kickpitch.value;
v_dmg_roll = count * localfrom[1] * v_kickroll.value;
v_dmg_time = v_kicktime.value;
}
}
/**
* @brief Adds new stains from the view each frame.
*/
void R_AddStains(void) {
const r_stain_t *s = r_view.stains;
for (int32_t i = 0; i < r_view.num_stains; i++, s++) {
R_StainNode(s, r_model_state.world->bsp->nodes);
for (uint16_t i = 0; i < cl.frame.num_entities; i++) {
const uint32_t snum = (cl.frame.entity_state + i) & ENTITY_STATE_MASK;
const entity_state_t *st = &cl.entity_states[snum];
if (st->solid != SOLID_BSP) {
continue;
}
const cl_entity_t *ent = &cl.entities[st->number];
const cm_bsp_model_t *mod = cl.cm_models[st->model1];
if (mod == NULL || mod->head_node == -1) {
continue;
}
r_bsp_node_t *node = &r_model_state.world->bsp->nodes[mod->head_node];
r_stain_t stain = *s;
Matrix4x4_Transform(&ent->inverse_matrix, s->origin, stain.origin);
R_StainNode(&stain, node);
}
}
g_hash_table_foreach(r_surfs_stained, R_AddStains_UploadSurfaces, NULL);
g_hash_table_remove_all(r_surfs_stained);
}
/**
* Transforms a point by the inverse of the world-model matrix for the
* specified entity.
*/
void R_TransformForEntity (const entity_t* e, const vec3_t in, vec3_t out)
{
matrix4x4_t tmp, mat;
Matrix4x4_CreateFromQuakeEntity(&tmp, e->origin[0], e->origin[1], e->origin[2], e->angles[0], e->angles[1],
e->angles[2], e->getScaleX());
Matrix4x4_Invert_Simple(&mat, &tmp);
Matrix4x4_Transform(&mat, in, out);
}
/**
* @brief Applies any configuration and tag alignment, populating the model-view
* matrix for the entity in the process.
*/
void R_SetMatrixForEntity(r_entity_t *e) {
if (e->parent) {
vec3_t forward;
if (!IS_MESH_MODEL(e->model)) {
Com_Warn("Invalid model for linked entity\n");
return;
}
const r_entity_t *p = e->parent;
while (p->parent) {
p = p->parent;
}
AngleVectors(p->angles, forward, NULL, NULL);
VectorClear(e->origin);
VectorClear(e->angles);
Matrix4x4_CreateFromEntity(&e->matrix, e->origin, e->angles, e->scale);
R_ApplyMeshModelTag(e);
R_ApplyMeshModelConfig(e);
Matrix4x4_Invert_Simple(&e->inverse_matrix, &e->matrix);
Matrix4x4_Transform(&e->matrix, vec3_origin, e->origin);
Matrix4x4_Transform(&e->matrix, vec3_forward, forward);
VectorAngles(forward, e->angles);
return;
}
Matrix4x4_CreateFromEntity(&e->matrix, e->origin, e->angles, e->scale);
if (IS_MESH_MODEL(e->model)) {
R_ApplyMeshModelConfig(e);
}
Matrix4x4_Invert_Simple(&e->inverse_matrix, &e->matrix);
}
/**
* @brief
*/
void R_UseLight_default(const uint16_t light_index, const r_light_t *light) {
r_default_program_t *p = &r_default_program;
if (light && light->radius) {
vec3_t origin;
const matrix4x4_t *modelview = R_GetMatrixPtr(R_MATRIX_MODELVIEW);
Matrix4x4_Transform(modelview, light->origin, origin);
R_ProgramParameter3fv(&p->lights[light_index].origin, origin);
R_ProgramParameter3fv(&p->lights[light_index].color, light->color);
R_ProgramParameter1f(&p->lights[light_index].radius, light->radius);
} else {
R_ProgramParameter1f(&p->lights[light_index].radius, 0.0);
}
}
qboolean R_Shader_StartLightPass( unsigned int lightIndex ) {
GLint valid;
R_ShaderLight *light = GetLightFromIndex( lightIndex );
matrix4x4_t *worldToViewMatrix = &r_refdef.lightShader.worldToViewMatrix;
vec3_t lightPosition, newcolor;
float f;
assert( light->active == true );
// setup cubemap texture generation
if( gl_support_cubemaps ) {
matrix4x4_t worldToLightMatrix;
matrix4x4_t viewToWorldMatrix;
matrix4x4_t viewToLightMatrix;
// setup the cubemap
qglSelectTextureARB( GL_TEXTURE1_ARB );
glEnable( GL_TEXTURE_CUBE_MAP_ARB );
glBindTexture( GL_TEXTURE_CUBE_MAP_ARB, GL_LoadCubeTexImage( light->cubemapname, false, true ) );
qglSelectTextureARB( GL_TEXTURE0_ARB );
// invert worldToViewMatrix
worldToLightMatrix = GetWorldToLightMatrix( light );
Matrix4x4_Invert_Simple( &viewToWorldMatrix, worldToViewMatrix );
Matrix4x4_Concat( &viewToLightMatrix, &worldToLightMatrix, &viewToWorldMatrix );
qglUniformMatrix4fvARB( r_refdef.lightShader.viewToLightMatrix, 1, true, (float *)&viewToLightMatrix.m );
}
Matrix4x4_Transform( worldToViewMatrix, light->origin, lightPosition );
//Con_Printf( "Light distance to origin: %f (vs %f)\n", VectorDistance( light->origin, r_refdef.vieworg ), VectorLength( lightPosition ) );
qglUniform3fvARB( r_refdef.lightShader.lightPosition, 1, lightPosition );
f = (light->style >= 0 ? d_lightstylevalue[light->style] : 128) * (1.0f / 256.0f) * r_shadow_lightintensityscale.value;
VectorScale(light->color, f, newcolor);
qglUniform3fvARB( r_refdef.lightShader.lightColor, 1, newcolor );
qglUniform1fARB( r_refdef.lightShader.lightMaxDistance, light->maxDistance );
qglValidateProgramARB( r_refdef.lightShader.programObject );
qglGetObjectParameterivARB( r_refdef.lightShader.programObject, GL_OBJECT_VALIDATE_STATUS_ARB, &valid );
return valid == true;
}
float CL_SelectTraceLine(const vec3_t start, const vec3_t end, vec3_t impact, vec3_t normal, int *hitent, entity_render_t *ignoreent)
#endif
{
float maxfrac, maxrealfrac;
int n;
entity_render_t *ent;
float tracemins[3], tracemaxs[3];
trace_t trace;
float tempnormal[3], starttransformed[3], endtransformed[3];
#ifdef COLLISION_STUPID_TRACE_ENDPOS_IN_SOLID_WORKAROUND
vec3_t end;
vec_t len = 0;
if(!VectorCompare(start, pEnd) && collision_endposnudge.value > 0)
{
// TRICK: make the trace 1 qu longer!
VectorSubtract(pEnd, start, end);
len = VectorNormalizeLength(end);
VectorMA(pEnd, collision_endposnudge.value, end, end);
}
else
VectorCopy(pEnd, end);
#endif
memset (&trace, 0 , sizeof(trace_t));
trace.fraction = 1;
trace.realfraction = 1;
VectorCopy (end, trace.endpos);
if (hitent)
*hitent = 0;
if (cl.worldmodel && cl.worldmodel->TraceLine)
cl.worldmodel->TraceLine(cl.worldmodel, NULL, NULL, &trace, start, end, SUPERCONTENTS_SOLID);
if (normal)
VectorCopy(trace.plane.normal, normal);
maxfrac = trace.fraction;
maxrealfrac = trace.realfraction;
tracemins[0] = min(start[0], end[0]);
tracemaxs[0] = max(start[0], end[0]);
tracemins[1] = min(start[1], end[1]);
tracemaxs[1] = max(start[1], end[1]);
tracemins[2] = min(start[2], end[2]);
tracemaxs[2] = max(start[2], end[2]);
// look for embedded bmodels
for (n = 0;n < cl.num_entities;n++)
{
if (!cl.entities_active[n])
continue;
ent = &cl.entities[n].render;
if (!BoxesOverlap(ent->mins, ent->maxs, tracemins, tracemaxs))
continue;
if (!ent->model || !ent->model->TraceLine)
continue;
if ((ent->flags & RENDER_EXTERIORMODEL) && !chase_active.integer)
continue;
// if transparent and not selectable, skip entity
if (!(cl.entities[n].state_current.effects & EF_SELECTABLE) && (ent->alpha < 1 || (ent->effects & (EF_ADDITIVE | EF_NODEPTHTEST))))
continue;
if (ent == ignoreent)
continue;
Matrix4x4_Transform(&ent->inversematrix, start, starttransformed);
Matrix4x4_Transform(&ent->inversematrix, end, endtransformed);
Collision_ClipTrace_Box(&trace, ent->model->normalmins, ent->model->normalmaxs, starttransformed, vec3_origin, vec3_origin, endtransformed, SUPERCONTENTS_SOLID, SUPERCONTENTS_SOLID, 0, NULL);
#ifdef COLLISION_STUPID_TRACE_ENDPOS_IN_SOLID_WORKAROUND
if(!VectorCompare(start, pEnd) && collision_endposnudge.value > 0)
Collision_ShortenTrace(&trace, len / (len + collision_endposnudge.value), pEnd);
#endif
if (maxrealfrac < trace.realfraction)
continue;
ent->model->TraceLine(ent->model, ent->frameblend, ent->skeleton, &trace, starttransformed, endtransformed, SUPERCONTENTS_SOLID);
if (maxrealfrac > trace.realfraction)
{
if (hitent)
*hitent = n;
maxfrac = trace.fraction;
maxrealfrac = trace.realfraction;
if (normal)
{
VectorCopy(trace.plane.normal, tempnormal);
Matrix4x4_Transform3x3(&ent->matrix, tempnormal, normal);
}
}
}
maxfrac = bound(0, maxfrac, 1);
maxrealfrac = bound(0, maxrealfrac, 1);
//if (maxfrac < 0 || maxfrac > 1) Con_Printf("fraction out of bounds %f %s:%d\n", maxfrac, __FILE__, __LINE__);
if (impact)
VectorLerp(start, maxfrac, end, impact);
return maxfrac;
}
static void R_TrackSprite(const entity_render_t *ent, vec3_t origin, vec3_t left, vec3_t up, int *edge, float *dir_angle)
{
float distance;
vec3_t bCoord; // body coordinates of object
unsigned int i;
// temporarily abuse bCoord as the vector player->sprite-origin
VectorSubtract(origin, r_refdef.view.origin, bCoord);
distance = VectorLength(bCoord);
// Now get the bCoords :)
Matrix4x4_Transform(&r_refdef.view.inverse_matrix, origin, bCoord);
*edge = 0; // FIXME::should assume edge == 0, which is correct currently
for(i = 0; i < 4; ++i)
{
if(PlaneDiff(origin, &r_refdef.view.frustum[i]) < -EPSILON)
break;
}
// If it wasn't outside a plane, no tracking needed
if(i < 4)
{
float x, y; // screen X and Y coordinates
float ax, ay; // absolute coords, used for division
// I divide x and y by the greater absolute value to get ranges -1.0 to +1.0
bCoord[2] *= r_refdef.view.frustum_x;
bCoord[1] *= r_refdef.view.frustum_y;
//Con_Printf("%f %f %f\n", bCoord[0], bCoord[1], bCoord[2]);
ax = fabs(bCoord[1]);
ay = fabs(bCoord[2]);
// get the greater value and determine the screen edge it's on
if(ax < ay)
{
ax = ay;
// 180 or 0 degrees
if(bCoord[2] < 0.0f)
*edge = SIDE_BOTTOM;
else
*edge = SIDE_TOP;
} else {
if(bCoord[1] < 0.0f)
*edge = SIDE_RIGHT;
else
*edge = SIDE_LEFT;
}
// umm...
if(ax < MIN_EPSILON) // this was == 0.0f before --blub
ax = MIN_EPSILON;
// get the -1 to +1 range
x = bCoord[1] / ax;
y = bCoord[2] / ax;
ax = (1.0f / VectorLength(left));
ay = (1.0f / VectorLength(up));
// Using the placement below the distance of a sprite is
// real dist = sqrt(d*d + dfxa*dfxa + dgyb*dgyb)
// d is the distance we use
// f is frustum X
// x is x
// a is ax
// g is frustum Y
// y is y
// b is ay
// real dist (r) shall be d, so
// r*r = d*d + dfxa*dfxa + dgyb*dgyb
// r*r = d*d * (1 + fxa*fxa + gyb*gyb)
// d*d = r*r / (1 + fxa*fxa + gyb*gyb)
// d = sqrt(r*r / (1 + fxa*fxa + gyb*gyb))
// thus:
distance = sqrt((distance*distance) / (1.0 +
r_refdef.view.frustum_x*r_refdef.view.frustum_x * x*x * ax*ax +
r_refdef.view.frustum_y*r_refdef.view.frustum_y * y*y * ay*ay));
// ^ the one we want ^ the one we have ^ our factors
// Place the sprite a few units ahead of the player
VectorCopy(r_refdef.view.origin, origin);
VectorMA(origin, distance, r_refdef.view.forward, origin);
// Move the sprite left / up the screeen height
VectorMA(origin, distance * r_refdef.view.frustum_x * x * ax, left, origin);
VectorMA(origin, distance * r_refdef.view.frustum_y * y * ay, up, origin);
if(r_track_sprites_flags.integer & TSF_ROTATE_CONTINOUSLY)
{
// compute the rotation, negate y axis, we're pointing outwards
*dir_angle = atan(-y / x) * 180.0f/M_PI;
// we need the real, full angle
if(x < 0.0f)
*dir_angle += 180.0f;
}
left[0] *= r_track_sprites_scalew.value;
left[1] *= r_track_sprites_scalew.value;
left[2] *= r_track_sprites_scalew.value;
up[0] *= r_track_sprites_scaleh.value;
up[1] *= r_track_sprites_scaleh.value;
up[2] *= r_track_sprites_scaleh.value;
}
}
static void R_RotateSprite(const mspriteframe_t *frame, vec3_t origin, vec3_t left, vec3_t up, int edge, float dir_angle)
{
if(!(r_track_sprites_flags.integer & TSF_ROTATE))
{
// move down by its size if on top, otherwise it's invisible
if(edge == SIDE_TOP)
VectorMA(origin, -(fabs(frame->up)+fabs(frame->down)), up, origin);
} else {
static float rotation_angles[5] =
{
0, // no edge
-90.0f, //top
0.0f, // left
90.0f, // bottom
180.0f, // right
};
// rotate around the hotspot according to which edge it's on
// since the hotspot == the origin, only rotate the vectors
matrix4x4_t rotm;
vec3_t axis;
vec3_t temp;
vec2_t dir;
float angle;
if(edge < 1 || edge > 4)
return; // this usually means something went wrong somewhere, there's no way to get a wrong edge value currently
dir[0] = frame->right + frame->left;
dir[1] = frame->down + frame->up;
// only rotate when the hotspot isn't the center though.
if(dir[0] < MIN_EPSILON && dir[1] < MIN_EPSILON)
{
return;
}
// Now that we've kicked center-hotspotted sprites, rotate using the appropriate matrix :)
// determine the angle of a sprite, we could only do that once though and
// add a `qboolean initialized' to the mspriteframe_t struct... let's get the direction vector of it :)
angle = atan(dir[1] / dir[0]) * 180.0f/M_PI;
// we need the real, full angle
if(dir[0] < 0.0f)
angle += 180.0f;
// Rotate around rotation_angle - frame_angle
// The axis SHOULD equal r_refdef.view.forward, but let's generalize this:
CrossProduct(up, left, axis);
if(r_track_sprites_flags.integer & TSF_ROTATE_CONTINOUSLY)
Matrix4x4_CreateRotate(&rotm, dir_angle - angle, axis[0], axis[1], axis[2]);
else
Matrix4x4_CreateRotate(&rotm, rotation_angles[edge] - angle, axis[0], axis[1], axis[2]);
Matrix4x4_Transform(&rotm, up, temp);
VectorCopy(temp, up);
Matrix4x4_Transform(&rotm, left, temp);
VectorCopy(temp, left);
}
}
