- multiplier = max(WEP_CVAR(shockwave, blast_jump_multiplier_min), ((multiplier_from_accuracy * WEP_CVAR(shockwave, blast_jump_multiplier_accuracy)) + (multiplier_from_distance * WEP_CVAR(shockwave, blast_jump_multiplier_distance))));
-
- final_force = ((normalize(center - attack_hitpos) * WEP_CVAR(shockwave, blast_jump_force)) * multiplier);
- vel = head.velocity; vel_z = 0;
- vel = normalize(vel) * bound(0, vlen(vel) / autocvar_sv_maxspeed, 1) * WEP_CVAR(shockwave, blast_jump_force_velocitybias);
- final_force = (vlen(final_force) * normalize(normalize(final_force) + vel));
+ multiplier =
+ max(
+ WEP_CVAR(shockwave, blast_jump_multiplier_min),
+ (
+ (multiplier_from_accuracy * WEP_CVAR(shockwave, blast_jump_multiplier_accuracy))
+ +
+ (multiplier_from_distance * WEP_CVAR(shockwave, blast_jump_multiplier_distance))
+ )
+ );
+
+ // calculate damage from multiplier
+ // 1 = "highest" damage, 0 = "lowest" edgedamage
+ final_damage =
+ (
+ (WEP_CVAR(shockwave, blast_jump_damage) * multiplier)
+ +
+ (WEP_CVAR(shockwave, blast_jump_edgedamage) * (1 - multiplier))
+ );
+
+ // figure out the direction of force
+ vel = normalize(combine_to_vector(head.velocity_x, head.velocity_y, 0));
+ vel *=
+ (
+ bound(0, (vlen(vel) / autocvar_sv_maxspeed), 1)
+ *
+ WEP_CVAR(shockwave, blast_jump_force_velocitybias)
+ );
+
+ center = CENTER_OR_VIEWOFS(head);
+ final_force = normalize((center - attack_hitpos) + vel);
+
+ // now multiply the direction by force units
+ final_force *= (WEP_CVAR(shockwave, blast_jump_force) * multiplier);