// note that the world to light matrices are inversely scaled (divided) by lightradius
// core properties
+ // matrix for transforming light filter coordinates to world coordinates
+ matrix4x4_t matrix_lighttoworld;
// matrix for transforming world coordinates to light filter coordinates
matrix4x4_t matrix_worldtolight;
// typically 1 1 1, can be lower (dim) or higher (overbright)
// surfaces seen by light
int static_numsurfaces;
int *static_surfacelist;
+ // flag bits indicating which triangles of the world model should cast
+ // shadows, and which ones should be lit
+ //
+ // this avoids redundantly scanning the triangles in each surface twice
+ // for whether they should cast shadows, once in culling and once in the
+ // actual shadowmarklist production.
+ int static_numshadowtrispvsbytes;
+ unsigned char *static_shadowtrispvs;
+ // this allows the lighting batch code to skip backfaces andother culled
+ // triangles not relevant for lighting
+ // (important on big surfaces such as terrain)
+ int static_numlighttrispvsbytes;
+ unsigned char *static_lighttrispvs;
}
rtlight_t;
// NULL = no model
model_t *model;
- // current uninterpolated animation frame (for things which do not use interpolation)
- int frame;
+ // number of the entity represents, or 0 for non-network entities
+ int entitynumber;
// entity shirt and pants colors (-1 if not colormapped)
int colormap;
// literal colors for renderer
vec3_t colormap_shirtcolor;
// light, particles, etc
int effects;
+ // qw CTF flags and other internal-use-only effect bits
+ int internaleffects;
// for Alias models
int skinnum;
// render flags
// particle trail
float trail_time;
+ qboolean trail_allowed; // set to false by teleports, true by update code, prevents bad lerps
// muzzleflash fading
float muzzleflash;
int impulse;
int sequence;
qboolean applied; // if false we're still accumulating a move
+ qboolean predicted; // if true the sequence should be sent as 0
} usercmd_t;
typedef struct lightstyle_s
double starttime;
double framerate;
// for AVI saving some values have to be written after capture ends
+ fs_offset_t videofile_firstchunkframes_offset;
fs_offset_t videofile_totalframes_offset1;
fs_offset_t videofile_totalframes_offset2;
fs_offset_t videofile_totalsampleframes_offset;
int soundrate;
int frame;
int soundsampleframe; // for AVI saving
- unsigned char *buffer;
+ unsigned char *screenbuffer;
+ unsigned char *outbuffer;
sizebuf_t riffbuffer;
unsigned char riffbufferdata[128];
// note: riffindex buffer has an allocated ->data member, not static like most!
short rgbtoyuvscaletable[3][3][256];
unsigned char yuvnormalizetable[3][256];
char basename[64];
+ int width, height;
}
capturevideostate_t;
float move[3];
qboolean jump;
qboolean crouch;
+ qboolean canjump;
}
client_movementqueue_t;
model_t *ownermodel; // model the decal is stuck to (used to make sure the entity is still alive)
vec3_t relativeorigin; // decal at this location in entity's coordinate space
vec3_t relativedirection; // decal oriented this way relative to entity's coordinate space
+ float delayedcollisions; // time that p->bounce becomes active
+ float delayedspawn; // time that particle appears and begins moving
+ float die; // time when this particle should be removed, regardless of alpha
}
particle_t;
}
cl_parsingtextmode_t;
+typedef struct cl_locnode_s
+{
+ struct cl_locnode_s *next;
+ char *name;
+ vec3_t mins, maxs;
+}
+cl_locnode_t;
+
//
// the client_state_t structure is wiped completely at every
// server signon
// information for local display
// health, etc
int stats[MAX_CL_STATS];
+ float *statsf; // points to stats[] array
// last known inventory bit flags, for blinking
int olditems;
// cl.time of acquiring item, for blinking
// these fields are only updated by CL_ClientMovement (called by CL_SendMove after parsing each network packet)
// set by CL_ClientMovement_Replay functions
qboolean movement_predicted;
+ // if true the CL_ClientMovement_Replay function will update origin, etc
+ qboolean movement_replay;
// this is set true by svc_time parsing and causes a new movement to be
// queued for prediction purposes
qboolean movement_needupdate;
int viewentity;
// the real player entity (normally same as viewentity,
// different than viewentity if mod uses chasecam or other tricks)
+ int realplayerentity;
+ // this is updated to match cl.viewentity whenever it is in the clients
+ // range, basically this is used in preference to cl.realplayerentity for
+ // most purposes because when spectating another player it should show
+ // their information rather than yours
int playerentity;
// max players that can be in this game
int maxclients;
sfx_t *sfx_ric2;
sfx_t *sfx_ric3;
sfx_t *sfx_r_exp3;
+ // indicates that the file "sound/misc/talk2.wav" was found (for use by team chat messages)
+ qboolean foundtalk2wav;
// refresh related state
int downloadsound_current;
int loadsound_total;
qboolean downloadcsqc;
+ qboolean loadcsqc;
qboolean loadbegun;
qboolean loadfinished;
int qw_teamplay;
// unused: indicates whether the player is spectating
- // use cl.scores[cl.playerentity].qw_spectator instead
+ // use cl.scores[cl.playerentity-1].qw_spectator instead
//qboolean qw_spectator;
// movement parameters for client prediction
- float qw_movevars_gravity;
- float qw_movevars_stopspeed;
- float qw_movevars_maxspeed; // can change during play
- float qw_movevars_spectatormaxspeed;
- float qw_movevars_accelerate;
- float qw_movevars_airaccelerate;
- float qw_movevars_wateraccelerate;
- float qw_movevars_friction;
- float qw_movevars_waterfriction;
- float qw_movevars_entgravity; // can change during play
+ float movevars_wallfriction;
+ float movevars_waterfriction;
+ float movevars_friction;
+ float movevars_ticrate;
+ float movevars_timescale;
+ float movevars_gravity;
+ float movevars_stopspeed;
+ float movevars_maxspeed;
+ float movevars_spectatormaxspeed;
+ float movevars_accelerate;
+ float movevars_airaccelerate;
+ float movevars_wateraccelerate;
+ float movevars_entgravity;
+ float movevars_jumpvelocity;
+ float movevars_edgefriction;
+ float movevars_maxairspeed;
+ float movevars_stepheight;
+ float movevars_airaccel_qw;
+ float movevars_airaccel_sideways_friction;
// models used by qw protocol
int qw_modelindex_spike;
int qw_deltasequence[QW_UPDATE_BACKUP];
// csqc stuff:
+ // server entity number corresponding to a clientside entity
+ unsigned short csqc_server2csqcentitynumber[MAX_EDICTS];
+ qboolean csqc_loaded;
+ vec3_t csqc_origin;
+ vec3_t csqc_angles;
+ qboolean csqc_usecsqclistener;
+ matrix4x4_t csqc_listenermatrix;
+ char csqc_printtextbuf[MAX_INPUTLINE];
// collision culling data
world_t world;
+
+ // loc file stuff (points and boxes describing locations in the level)
+ cl_locnode_t *locnodes;
+ // this is updated to cl.movement_origin whenever health is < 1
+ // used by %d print in say/say_team messages if cl_locs_enable is on
+ vec3_t lastdeathorigin;
+
+ // processing buffer used by R_BuildLightMap, reallocated as needed,
+ // freed on each level change
+ size_t buildlightmapmemorysize;
+ unsigned char *buildlightmapmemory;
}
client_state_t;
extern cvar_t cl_shownet;
extern cvar_t cl_nolerp;
-extern cvar_t cl_nettimesyncmode;
+extern cvar_t cl_nettimesyncfactor;
+extern cvar_t cl_nettimesyncboundmode;
+extern cvar_t cl_nettimesyncboundtolerance;
extern cvar_t cl_pitchdriftspeed;
extern cvar_t lookspring;
extern cvar_t cl_prydoncursor;
+extern cvar_t cl_locs_enable;
+
extern client_state_t cl;
extern void CL_AllocLightFlash (entity_render_t *ent, matrix4x4_t *matrix, float radius, float red, float green, float blue, float decay, float lifetime, int cubemapnum, int style, int shadowenable, vec_t corona, vec_t coronasizescale, vec_t ambientscale, vec_t diffusescale, vec_t specularscale, int flags);
+cl_locnode_t *CL_Locs_FindNearest(const vec3_t point);
+void CL_Locs_FindLocationName(char *buffer, size_t buffersize, vec3_t point);
+
//=============================================================================
//
void CL_Disconnect_f (void);
void CL_UpdateRenderEntity(entity_render_t *ent);
-void CL_UpdateEntities(void);
+void CL_UpdateViewEntities(void);
//
// cl_input
void CL_NewBeam (int ent, vec3_t start, vec3_t end, model_t *m, int lightning);
void CL_RelinkBeams (void);
void CL_Beam_CalculatePositions (const beam_t *b, vec3_t start, vec3_t end);
+void CL_ClientMovement_Replay(void);
void CL_ClearTempEntities (void);
entity_t *CL_NewTempEntity (void);
void CL_SetInfo(const char *key, const char *value, qboolean send, qboolean allowstarkey, qboolean allowmodel, qboolean quiet);
-int CL_ReadFromServer (void);
+void CL_UpdateWorld (void);
void CL_WriteToServer (void);
void CL_Input (void);
extern qboolean cl_ignoremousemove;
//
void CL_StopPlayback(void);
void CL_ReadDemoMessage(void);
-void CL_WriteDemoMessage(void);
+void CL_WriteDemoMessage(sizebuf_t *mesage);
void CL_NextDemo(void);
void CL_Stop_f(void);
extern cvar_t cl_particles_explosions_smoke;
extern cvar_t cl_particles_explosions_sparks;
extern cvar_t cl_particles_explosions_shell;
+extern cvar_t cl_particles_rain;
+extern cvar_t cl_particles_snow;
extern cvar_t cl_particles_smoke;
extern cvar_t cl_particles_smoke_alpha;
extern cvar_t cl_particles_smoke_alphafade;
#define NUMCROSSHAIRS 32
extern cachepic_t *r_crosshairs[NUMCROSSHAIRS+1];
-#define FOGTABLEWIDTH 1024
-extern int fogtableindex;
-#define VERTEXFOGTABLE(dist) (fogtableindex = (int)((dist) * r_refdef.fogtabledistmultiplier), r_refdef.fogtable[bound(0, fogtableindex, FOGTABLEWIDTH - 1)])
+float FogPoint_World(const vec3_t p);
+float FogPoint_Model(const vec3_t p);
typedef struct r_refdef_stats_s
{
vec3_t fogcolor;
vec_t fogrange;
vec_t fograngerecip;
- vec_t fogtabledistmultiplier;
- float fogtable[FOGTABLEWIDTH];
+ vec_t fogmasktabledistmultiplier;
+#define FOGMASKTABLEWIDTH 1024
+ float fogmasktable[FOGMASKTABLEWIDTH];
float fog_density;
float fog_red;
float fog_green;
vec3_t up;
mplane_t frustum[5];
float frustum_x, frustum_y;
+ vec3_t frustumcorner[4];
+ // if turned off it renders an ortho view
+ int useperspective;
+ float ortho_x, ortho_y;
// screen area to render in
int x;
projects / xonotic / darkplaces.git / blobdiff