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// =====[ PUBLIC ]=====
void MeasureGetPos(int client, int arg)
{
float origin[3];
float angles[3];
GetClientEyePosition(client, origin);
GetClientEyeAngles(client, angles);
MeasureGetPosEx(client, arg, origin, angles);
}
void MeasureResetPos(int client)
{
delete gH_P2PRed[client];
delete gH_P2PGreen[client];
gB_MeasurePosSet[client][0] = false;
gB_MeasurePosSet[client][1] = false;
gF_MeasurePos[client][0][0] = 0.0; // This is stupid.
gF_MeasurePos[client][0][1] = 0.0;
gF_MeasurePos[client][0][2] = 0.0;
gF_MeasurePos[client][1][0] = 0.0;
gF_MeasurePos[client][1][1] = 0.0;
gF_MeasurePos[client][1][2] = 0.0;
}
bool MeasureBlock(int client)
{
float angles[3];
MeasureGetPos(client, 0);
GetVectorAngles(gF_MeasureNormal[client][0], angles);
MeasureGetPosEx(client, 1, gF_MeasurePos[client][0], angles);
AddVectors(gF_MeasureNormal[client][0], gF_MeasureNormal[client][1], angles);
if (GetVectorLength(angles, true) > EPSILON ||
FloatAbs(gF_MeasureNormal[client][0][2]) > EPSILON ||
FloatAbs(gF_MeasureNormal[client][1][2]) > EPSILON)
{
GOKZ_PrintToChat(client, true, "%t", "Measure Failure (Blocks not aligned)");
GOKZ_PlayErrorSound(client);
return false;
}
GOKZ_PrintToChat(client, true, "%t", "Block Measure Result", RoundFloat(GetVectorHorizontalDistance(gF_MeasurePos[client][0], gF_MeasurePos[client][1])));
MeasureBeam(client, gF_MeasurePos[client][0], gF_MeasurePos[client][1], 5.0, 0.2, 200, 200, 200);
return true;
}
bool MeasureDistance(int client, float minDistToMeasureBlock = -1.0)
{
// Find Distance
if (gB_MeasurePosSet[client][0] && gB_MeasurePosSet[client][1])
{
float horizontalDist = GetVectorHorizontalDistance(gF_MeasurePos[client][0], gF_MeasurePos[client][1]);
float effectiveDist = CalcEffectiveDistance(gF_MeasurePos[client][0], gF_MeasurePos[client][1]);
float verticalDist = gF_MeasurePos[client][1][2] - gF_MeasurePos[client][0][2];
if (minDistToMeasureBlock >= 0.0 && (horizontalDist <= minDistToMeasureBlock && verticalDist <= minDistToMeasureBlock))
{
return MeasureBlock(client);
}
else
{
GOKZ_PrintToChat(client, true, "%t", "Measure Result", horizontalDist, effectiveDist, verticalDist);
MeasureBeam(client, gF_MeasurePos[client][0], gF_MeasurePos[client][1], 5.0, 0.2, 200, 200, 200);
}
return true;
}
else
{
GOKZ_PrintToChat(client, true, "%t", "Measure Failure (Points Not Set)");
GOKZ_PlayErrorSound(client);
return false;
}
}
// =====[ TIMERS ]=====
public Action Timer_P2PRed(Handle timer, int userid)
{
int client = GetClientOfUserId(userid);
if (IsValidClient(client))
{
P2PXBeam(client, 0);
}
return Plugin_Continue;
}
public Action Timer_P2PGreen(Handle timer, int userid)
{
int client = GetClientOfUserId(userid);
if (IsValidClient(client))
{
P2PXBeam(client, 1);
}
return Plugin_Continue;
}
public Action Timer_DeletePoints(Handle timer, int userid)
{
int client = GetClientOfUserId(userid);
if (!gB_Measuring[client])
{
MeasureResetPos(client);
}
return Plugin_Continue;
}
// =====[ PRIVATES ]=====
static void P2PXBeam(int client, int arg)
{
float Origin0[3];
float Origin1[3];
float Origin2[3];
float Origin3[3];
Origin0[0] = (gF_MeasurePos[client][arg][0] + 8.0);
Origin0[1] = (gF_MeasurePos[client][arg][1] + 8.0);
Origin0[2] = gF_MeasurePos[client][arg][2];
Origin1[0] = (gF_MeasurePos[client][arg][0] - 8.0);
Origin1[1] = (gF_MeasurePos[client][arg][1] - 8.0);
Origin1[2] = gF_MeasurePos[client][arg][2];
Origin2[0] = (gF_MeasurePos[client][arg][0] + 8.0);
Origin2[1] = (gF_MeasurePos[client][arg][1] - 8.0);
Origin2[2] = gF_MeasurePos[client][arg][2];
Origin3[0] = (gF_MeasurePos[client][arg][0] - 8.0);
Origin3[1] = (gF_MeasurePos[client][arg][1] + 8.0);
Origin3[2] = gF_MeasurePos[client][arg][2];
if (arg == 0)
{
MeasureBeam(client, Origin0, Origin1, 0.97, 0.2, 0, 255, 0);
MeasureBeam(client, Origin2, Origin3, 0.97, 0.2, 0, 255, 0);
}
else
{
MeasureBeam(client, Origin0, Origin1, 0.97, 0.2, 255, 0, 0);
MeasureBeam(client, Origin2, Origin3, 0.97, 0.2, 255, 0, 0);
}
}
static void MeasureGetPosEx(int client, int arg, float origin[3], float angles[3])
{
Handle trace = TR_TraceRayFilterEx(origin, angles, MASK_PLAYERSOLID, RayType_Infinite, TraceEntityFilterPlayers, client);
if (!TR_DidHit(trace))
{
delete trace;
GOKZ_PrintToChat(client, true, "%t", "Measure Failure (Not Aiming at Solid)");
GOKZ_PlayErrorSound(client);
return;
}
TR_GetEndPosition(gF_MeasurePos[client][arg], trace);
TR_GetPlaneNormal(trace, gF_MeasureNormal[client][arg]);
delete trace;
if (arg == 0)
{
delete gH_P2PRed[client];
gB_MeasurePosSet[client][0] = true;
gH_P2PRed[client] = CreateTimer(1.0, Timer_P2PRed, GetClientUserId(client), TIMER_REPEAT);
P2PXBeam(client, 0);
}
else
{
delete gH_P2PGreen[client];
gH_P2PGreen[client] = null;
gB_MeasurePosSet[client][1] = true;
P2PXBeam(client, 1);
gH_P2PGreen[client] = CreateTimer(1.0, Timer_P2PGreen, GetClientUserId(client), TIMER_REPEAT);
}
}
static void MeasureBeam(int client, float vecStart[3], float vecEnd[3], float life, float width, int r, int g, int b)
{
TE_Start("BeamPoints");
TE_WriteNum("m_nModelIndex", gI_BeamModel);
TE_WriteNum("m_nHaloIndex", 0);
TE_WriteNum("m_nStartFrame", 0);
TE_WriteNum("m_nFrameRate", 0);
TE_WriteFloat("m_fLife", life);
TE_WriteFloat("m_fWidth", width);
TE_WriteFloat("m_fEndWidth", width);
TE_WriteNum("m_nFadeLength", 0);
TE_WriteFloat("m_fAmplitude", 0.0);
TE_WriteNum("m_nSpeed", 0);
TE_WriteNum("r", r);
TE_WriteNum("g", g);
TE_WriteNum("b", b);
TE_WriteNum("a", 255);
TE_WriteNum("m_nFlags", 0);
TE_WriteVector("m_vecStartPoint", vecStart);
TE_WriteVector("m_vecEndPoint", vecEnd);
TE_SendToClient(client);
}
// Calculates the minimum equivalent jumpstat distance to go between the two points
static float CalcEffectiveDistance(const float pointA[3], const float pointB[3])
{
float Ax = FloatMin(pointA[0], pointB[0]);
float Bx = FloatMax(pointA[0], pointB[0]);
float Ay = FloatMin(pointA[1], pointB[1]);
float By = FloatMax(pointA[1], pointB[1]);
if (Bx - Ax < 32.0)
{
Ax = Bx;
}
else
{
Ax = Ax + 16.0;
Bx = Bx - 16.0;
}
if (By - Ay < 32.0)
{
Ay = By;
}
else
{
Ay = Ay + 16.0;
By = By - 16.0;
}
return SquareRoot(Pow(Ax - Bx, 2.0) + Pow(Ay - By, 2.0)) + 32.0;
}
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