#include "lightningarc.qh" REGISTER_NET_TEMP(TE_CSQC_ARC) #if defined(SVQC) void te_csqc_lightningarc(vector from, vector to) { WriteHeader(MSG_BROADCAST, TE_CSQC_ARC); WriteVector(MSG_BROADCAST, from); WriteVector(MSG_BROADCAST, to); } #elif defined(CSQC) /* .vector fx_start; .vector fx_end; .float fx_with; .string fx_texture; .float fx_lifetime; void b_draw() { //Draw_CylindricLine(this.fx_start, this.fx_end, this.fx_with, this.fx_texture, 0, time * 3, '1 1 1', 0.7, DRAWFLAG_ADDITIVE, view_origin); Draw_CylindricLine(this.fx_start, this.fx_end, this.fx_with, this.fx_texture, (this.fx_with/256), 0, '1 1 1', 1, DRAWFLAG_ADDITIVE, view_origin); } void b_make(vector s,vector e, string t,float l,float z) { entity b; b = spawn(); b.fx_texture = t; b.fx_start = s; b.fx_end = e; b.fx_with = z; b.think = SUB_Remove; b.nextthink = time + l; b.draw = b_draw; //b.dphitcontentsmask = DPCONTENTS_SOLID | DPCONTENTS_BODY | DPCONTENTS_PLAYERCLIP; } */ void cl_effects_lightningarc(vector from, vector to, float seglength, float drifts, float drifte, float branchfactor, float branchfactor_add) { float length = vlen(from - to); if (length < 1) return; // Use at most 16 te_lightning1 segments, as these eat up beam list segments. // TODO: Change this to R_BeginPolygon code, then we no longer have this limit. int steps = min(16, floor(length / seglength)); if (steps < 1) { te_lightning1(NULL, from, to); return; } float steplength = length / steps; vector direction = normalize(to - from); vector pos_l = from; if (length > seglength) { for (int i = 1; i < steps; i += 1) { float drift = drifts * (1 - (i / steps)) + drifte * (i / steps); vector dirnew = normalize(direction * (1 - drift) + randomvec() * drift); vector pos = pos_l + dirnew * steplength; te_lightning1(NULL, pos_l, pos); // WTF endless recursion if branchfactor is 1.0 (possibly due to adding branchfactor_add). FIXME // if(random() < branchfactor) // cl_effects_lightningarc(pos, pos + (dirnew * length * 0.25),seglength,drifts,drifte,min(branchfactor + branchfactor_add,1),branchfactor_add); pos_l = pos; } te_lightning1(NULL, pos_l, to); } else { te_lightning1(NULL, from, to); } } NET_HANDLE(TE_CSQC_ARC, bool isNew) { vector from = ReadVector(); vector to = ReadVector(); return = true; if (autocvar_cl_effects_lightningarc_simple) { te_lightning1(NULL, from, to); } else { float seglength = autocvar_cl_effects_lightningarc_segmentlength; float drifts = autocvar_cl_effects_lightningarc_drift_start; float drifte = autocvar_cl_effects_lightningarc_drift_end; float branchfactor = autocvar_cl_effects_lightningarc_branchfactor_start; float branchfactor_add = autocvar_cl_effects_lightningarc_branchfactor_add; cl_effects_lightningarc(from, to, seglength, drifts, drifte, branchfactor, branchfactor_add); } } #endif