#endif
}
-void PM_air(entity this, float buttons_prev, float maxspd_mod)
-{
- makevectors(this.v_angle.y * '0 1 0');
- vector wishvel = v_forward * this.movement.x
- + v_right * this.movement.y;
- // acceleration
- vector wishdir = normalize(wishvel);
- float wishspeed = vlen(wishvel);
-
-#ifdef SVQC
- if(time >= PHYS_TELEPORT_TIME(this))
-#elif defined(CSQC)
- if(PHYS_WATERJUMP_TIME(this) <= 0)
-#endif
- {
- float maxairspd = PHYS_MAXAIRSPEED(this) * min(maxspd_mod, 1);
-
- // apply air speed limit
- float airaccelqw = PHYS_AIRACCEL_QW(this);
- float wishspeed0 = wishspeed;
- wishspeed = min(wishspeed, maxairspd);
- if (IS_DUCKED(this))
- wishspeed *= 0.5;
- float airaccel = PHYS_AIRACCELERATE(this) * min(maxspd_mod, 1);
-
- float accelerating = (this.velocity * wishdir > 0);
- float wishspeed2 = wishspeed;
-
- // CPM: air control
- if (PHYS_AIRSTOPACCELERATE(this))
- {
- vector curdir = normalize(vec2(this.velocity));
- airaccel += (PHYS_AIRSTOPACCELERATE(this)*maxspd_mod - airaccel) * max(0, -(curdir * wishdir));
- }
- // note that for straight forward jumping:
- // step = accel * PHYS_INPUT_TIMELENGTH * wishspeed0;
- // accel = bound(0, wishspeed - vel_xy_current, step) * accelqw + step * (1 - accelqw);
- // -->
- // dv/dt = accel * maxspeed (when slow)
- // dv/dt = accel * maxspeed * (1 - accelqw) (when fast)
- // log dv/dt = logaccel + logmaxspeed (when slow)
- // log dv/dt = logaccel + logmaxspeed + log(1 - accelqw) (when fast)
- float strafity = IsMoveInDirection(this.movement, -90) + IsMoveInDirection(this.movement, +90); // if one is nonzero, other is always zero
- if (PHYS_MAXAIRSTRAFESPEED(this))
- wishspeed = min(wishspeed, GeomLerp(PHYS_MAXAIRSPEED(this)*maxspd_mod, strafity, PHYS_MAXAIRSTRAFESPEED(this)*maxspd_mod));
- if (PHYS_AIRSTRAFEACCELERATE(this))
- airaccel = GeomLerp(airaccel, strafity, PHYS_AIRSTRAFEACCELERATE(this)*maxspd_mod);
- if (PHYS_AIRSTRAFEACCEL_QW(this))
- airaccelqw =
- (((strafity > 0.5 ? PHYS_AIRSTRAFEACCEL_QW(this) : PHYS_AIRACCEL_QW(this)) >= 0) ? +1 : -1)
- *
- (1 - GeomLerp(1 - fabs(PHYS_AIRACCEL_QW(this)), strafity, 1 - fabs(PHYS_AIRSTRAFEACCEL_QW(this))));
- // !CPM
-
- if (PHYS_WARSOWBUNNY_TURNACCEL(this) && accelerating && this.movement.y == 0 && this.movement.x != 0)
- PM_AirAccelerate(this, wishdir, wishspeed2);
- else {
- float sidefric = maxairspd ? (PHYS_AIRACCEL_SIDEWAYS_FRICTION(this) / maxairspd) : 0;
- PM_Accelerate(this, wishdir, wishspeed, wishspeed0, airaccel, airaccelqw, PHYS_AIRACCEL_QW_STRETCHFACTOR(this), sidefric, PHYS_AIRSPEEDLIMIT_NONQW(this));
- }
-
- if (PHYS_AIRCONTROL(this))
- CPM_PM_Aircontrol(this, wishdir, wishspeed2);
- }
-#ifdef CSQC
- float g = PHYS_GRAVITY(this) * PHYS_ENTGRAVITY(this) * PHYS_INPUT_TIMELENGTH;
- if(autocvar_cl_movement == 3)
- if (GAMEPLAYFIX_GRAVITYUNAFFECTEDBYTICRATE)
- this.velocity_z -= g * 0.5;
- else
- this.velocity_z -= g;
-#endif
- PM_ClientMovement_Move(this);
-#ifdef CSQC
- if(autocvar_cl_movement == 3)
- if (!IS_ONGROUND(this) || !(GAMEPLAYFIX_NOGRAVITYONGROUND))
- if (GAMEPLAYFIX_GRAVITYUNAFFECTEDBYTICRATE)
- this.velocity_z -= g * 0.5;
-#endif
-}
-
// used for calculating airshots
bool IsFlying(entity this)
{
sys_phys_fix(this, dt);
if (sys_phys_override(this)) { return; } sys_phys_monitor(this);
- int buttons_prev = this.buttons_old;
this.buttons_old = PHYS_INPUT_BUTTON_MASK(this);
this.movement_old = this.movement;
this.v_angle_old = this.v_angle;
this.com_phys_ground = false;
this.com_phys_gravity = '0 0 0';
} else {
- PM_air(this, buttons_prev, maxspeed_mod);
+ this.com_phys_acc_rate_air = PHYS_AIRACCELERATE(this) * min(maxspeed_mod, 1);
+ this.com_phys_acc_rate_air_stop = PHYS_AIRSTOPACCELERATE(this) * maxspeed_mod;
+ this.com_phys_acc_rate_air_strafe = PHYS_AIRSTRAFEACCELERATE(this) * maxspeed_mod;
+ this.com_phys_vel_max_air_strafe = PHYS_MAXAIRSTRAFESPEED(this) * maxspeed_mod;
+ this.com_phys_vel_max_air = PHYS_MAXAIRSPEED(this) * maxspeed_mod;
+ this.com_phys_vel_max = PHYS_MAXAIRSPEED(this) * min(maxspeed_mod, 1);
+ this.com_phys_air = true;
+ this.com_phys_vel_2d = true;
+ sys_phys_simulate(this, dt);
+ this.com_phys_vel_2d = false;
+ this.com_phys_air = false;
}
LABEL(end)
const vector g = -this.com_phys_gravity;
const bool jump = this.com_in_jump;
- if (!this.com_phys_ground) {
+ if (!this.com_phys_ground && !this.com_phys_air) {
// noclipping
// flying
// on a spawnfunc_func_ladder
// acceleration
const vector wishdir = normalize(wishvel);
float wishspeed = min(vlen(wishvel), this.com_phys_vel_max);
- if (this.com_phys_ground || this.com_phys_water) {
- if (IS_DUCKED(this)) { wishspeed *= 0.5; }
- }
- if (this.com_phys_water) {
- wishspeed *= 0.7;
-
- // if (PHYS_WATERJUMP_TIME(this) <= 0) // TODO: use
- {
- // water friction
- float f = 1 - dt * PHYS_FRICTION(this);
- f = min(max(0, f), 1);
- this.velocity *= f;
-
- f = wishspeed - this.velocity * wishdir;
- if (f > 0) {
- float accelspeed = min(PHYS_ACCELERATE(this) * dt * wishspeed, f);
- this.velocity += accelspeed * wishdir;
+
+ if (this.com_phys_air) {
+ if ((IS_SVQC && time >= PHYS_TELEPORT_TIME(this))
+ || (IS_CSQC && PHYS_WATERJUMP_TIME(this) <= 0)) {
+ // apply air speed limit
+ float airaccelqw = PHYS_AIRACCEL_QW(this);
+ float wishspeed0 = wishspeed;
+ const float maxairspd = this.com_phys_vel_max;
+ wishspeed = min(wishspeed, maxairspd);
+ if (IS_DUCKED(this)) {
+ wishspeed *= 0.5;
}
+ float airaccel = this.com_phys_acc_rate_air;
+
+ float accelerating = (this.velocity * wishdir > 0);
+ float wishspeed2 = wishspeed;
- // holding jump button swims upward slowly
- if (jump && !this.viewloc) {
- // was:
- // lava: 50
- // slime: 80
- // water: 100
- // idea: double those
- this.velocity_z = 200;
+ // CPM: air control
+ if (PHYS_AIRSTOPACCELERATE(this)) {
+ vector curdir = normalize(vec2(this.velocity));
+ airaccel += (this.com_phys_acc_rate_air_stop - airaccel) * max(0, -(curdir * wishdir));
+ }
+ // note that for straight forward jumping:
+ // step = accel * PHYS_INPUT_TIMELENGTH * wishspeed0;
+ // accel = bound(0, wishspeed - vel_xy_current, step) * accelqw + step * (1 - accelqw);
+ // -->
+ // dv/dt = accel * maxspeed (when slow)
+ // dv/dt = accel * maxspeed * (1 - accelqw) (when fast)
+ // log dv/dt = logaccel + logmaxspeed (when slow)
+ // log dv/dt = logaccel + logmaxspeed + log(1 - accelqw) (when fast)
+ float strafity = IsMoveInDirection(this.movement, -90) + IsMoveInDirection(this.movement, +90); // if one is nonzero, other is always zero
+ if (PHYS_MAXAIRSTRAFESPEED(this)) {
+ wishspeed =
+ min(wishspeed,
+ GeomLerp(this.com_phys_vel_max_air, strafity, this.com_phys_vel_max_air_strafe));
+ }
+ if (PHYS_AIRSTRAFEACCELERATE(this)) {
+ airaccel = GeomLerp(airaccel, strafity, this.com_phys_acc_rate_air_strafe);
+ }
+ if (PHYS_AIRSTRAFEACCEL_QW(this)) {
+ airaccelqw =
+ (((strafity > 0.5 ? PHYS_AIRSTRAFEACCEL_QW(this) : PHYS_AIRACCEL_QW(this)) >= 0) ? +1 : -1)
+ *
+ (1 - GeomLerp(1 - fabs(PHYS_AIRACCEL_QW(this)), strafity, 1 - fabs(PHYS_AIRSTRAFEACCEL_QW(this))));
+ }
+ // !CPM
+
+ if (PHYS_WARSOWBUNNY_TURNACCEL(this) && accelerating && this.movement.y == 0 && this.movement.x != 0) {
+ PM_AirAccelerate(this, wishdir, wishspeed2);
+ } else {
+ float sidefric = maxairspd ? (PHYS_AIRACCEL_SIDEWAYS_FRICTION(this) / maxairspd) : 0;
+ PM_Accelerate(this, wishdir, wishspeed, wishspeed0, airaccel, airaccelqw,
+ PHYS_AIRACCEL_QW_STRETCHFACTOR(this), sidefric, PHYS_AIRSPEEDLIMIT_NONQW(this));
+ }
+
+ if (PHYS_AIRCONTROL(this)) {
+ CPM_PM_Aircontrol(this, wishdir, wishspeed2);
}
}
- if (this.viewloc) {
+ } else {
+ if (this.com_phys_ground || this.com_phys_water) {
+ if (IS_DUCKED(this)) { wishspeed *= 0.5; }
+ }
+ if (this.com_phys_water) {
+ wishspeed *= 0.7;
+
+ // if (PHYS_WATERJUMP_TIME(this) <= 0) // TODO: use
+ {
+ // water friction
+ float f = 1 - dt * PHYS_FRICTION(this);
+ f = min(max(0, f), 1);
+ this.velocity *= f;
+
+ f = wishspeed - this.velocity * wishdir;
+ if (f > 0) {
+ float accelspeed = min(PHYS_ACCELERATE(this) * dt * wishspeed, f);
+ this.velocity += accelspeed * wishdir;
+ }
+
+ // holding jump button swims upward slowly
+ if (jump && !this.viewloc) {
+ // was:
+ // lava: 50
+ // slime: 80
+ // water: 100
+ // idea: double those
+ this.velocity_z = 200;
+ }
+ }
+ if (this.viewloc) {
+ const float addspeed = wishspeed - this.velocity * wishdir;
+ if (addspeed > 0) {
+ const float accelspeed = min(PHYS_ACCELERATE(this) * dt * wishspeed, addspeed);
+ this.velocity += accelspeed * wishdir;
+ }
+ } else {
+ // water acceleration
+ PM_Accelerate(this, wishdir, wishspeed, wishspeed, this.com_phys_acc_rate, 1, 0, 0, 0);
+ PM_ClientMovement_Move(this);
+ }
+ return;
+ }
+ if (this.com_phys_ground) {
+ // apply edge friction
+ const float f2 = vlen2(vec2(this.velocity));
+ if (f2 > 0) {
+ trace_dphitq3surfaceflags = 0;
+ tracebox(this.origin, this.mins, this.maxs, this.origin - '0 0 1', MOVE_NOMONSTERS, this);
+ // TODO: apply edge friction
+ // apply ground friction
+ const int realfriction = (trace_dphitq3surfaceflags & Q3SURFACEFLAG_SLICK)
+ ? PHYS_FRICTION_SLICK(this)
+ : PHYS_FRICTION(this);
+
+ float f = sqrt(f2);
+ f = 1 - dt * realfriction
+ * ((f < PHYS_STOPSPEED(this)) ? (PHYS_STOPSPEED(this) / f) : 1);
+ f = max(0, f);
+ this.velocity *= f;
+ /*
+ Mathematical analysis time!
+
+ Our goal is to invert this mess.
+
+ For the two cases we get:
+ v = v0 * (1 - dt * (PHYS_STOPSPEED(this) / v0) * PHYS_FRICTION(this))
+ = v0 - dt * PHYS_STOPSPEED(this) * PHYS_FRICTION(this)
+ v0 = v + dt * PHYS_STOPSPEED(this) * PHYS_FRICTION(this)
+ and
+ v = v0 * (1 - dt * PHYS_FRICTION(this))
+ v0 = v / (1 - dt * PHYS_FRICTION(this))
+
+ These cases would be chosen ONLY if:
+ v0 < PHYS_STOPSPEED(this)
+ v + dt * PHYS_STOPSPEED(this) * PHYS_FRICTION(this) < PHYS_STOPSPEED(this)
+ v < PHYS_STOPSPEED(this) * (1 - dt * PHYS_FRICTION(this))
+ and, respectively:
+ v0 >= PHYS_STOPSPEED(this)
+ v / (1 - dt * PHYS_FRICTION(this)) >= PHYS_STOPSPEED(this)
+ v >= PHYS_STOPSPEED(this) * (1 - dt * PHYS_FRICTION(this))
+ */
+ }
const float addspeed = wishspeed - this.velocity * wishdir;
if (addspeed > 0) {
const float accelspeed = min(PHYS_ACCELERATE(this) * dt * wishspeed, addspeed);
this.velocity += accelspeed * wishdir;
}
- } else {
- // water acceleration
- PM_Accelerate(this, wishdir, wishspeed, wishspeed, this.com_phys_acc_rate, 1, 0, 0, 0);
- PM_ClientMovement_Move(this);
- }
- return;
- }
- if (this.com_phys_ground) {
- // apply edge friction
- const float f2 = vlen2(vec2(this.velocity));
- if (f2 > 0) {
- trace_dphitq3surfaceflags = 0;
- tracebox(this.origin, this.mins, this.maxs, this.origin - '0 0 1', MOVE_NOMONSTERS, this);
- // TODO: apply edge friction
- // apply ground friction
- const int realfriction = (trace_dphitq3surfaceflags & Q3SURFACEFLAG_SLICK)
- ? PHYS_FRICTION_SLICK(this)
- : PHYS_FRICTION(this);
-
- float f = sqrt(f2);
- f = 1 - dt * realfriction
- * ((f < PHYS_STOPSPEED(this)) ? (PHYS_STOPSPEED(this) / f) : 1);
- f = max(0, f);
- this.velocity *= f;
- /*
- Mathematical analysis time!
-
- Our goal is to invert this mess.
-
- For the two cases we get:
- v = v0 * (1 - dt * (PHYS_STOPSPEED(this) / v0) * PHYS_FRICTION(this))
- = v0 - dt * PHYS_STOPSPEED(this) * PHYS_FRICTION(this)
- v0 = v + dt * PHYS_STOPSPEED(this) * PHYS_FRICTION(this)
- and
- v = v0 * (1 - dt * PHYS_FRICTION(this))
- v0 = v / (1 - dt * PHYS_FRICTION(this))
-
- These cases would be chosen ONLY if:
- v0 < PHYS_STOPSPEED(this)
- v + dt * PHYS_STOPSPEED(this) * PHYS_FRICTION(this) < PHYS_STOPSPEED(this)
- v < PHYS_STOPSPEED(this) * (1 - dt * PHYS_FRICTION(this))
- and, respectively:
- v0 >= PHYS_STOPSPEED(this)
- v / (1 - dt * PHYS_FRICTION(this)) >= PHYS_STOPSPEED(this)
- v >= PHYS_STOPSPEED(this) * (1 - dt * PHYS_FRICTION(this))
- */
- }
- const float addspeed = wishspeed - this.velocity * wishdir;
- if (addspeed > 0) {
- const float accelspeed = min(PHYS_ACCELERATE(this) * dt * wishspeed, addspeed);
- this.velocity += accelspeed * wishdir;
- }
- if (IS_CSQC && vdist(this.velocity, >, 0)) {
- PM_ClientMovement_Move(this);
+ if (IS_CSQC && vdist(this.velocity, >, 0)) {
+ PM_ClientMovement_Move(this);
+ }
+ return;
}
- return;
- }
- if (IS_CSQC || time >= PHYS_TELEPORT_TIME(this)) {
- PM_Accelerate(this, wishdir, wishspeed, wishspeed, this.com_phys_acc_rate, 1, 0, 0, 0);
+ if (IS_CSQC || time >= PHYS_TELEPORT_TIME(this)) {
+ PM_Accelerate(this, wishdir, wishspeed, wishspeed, this.com_phys_acc_rate, 1, 0, 0, 0);
+ }
}
PM_ClientMovement_Move(this);
}