//-----------------------------------------------------------------------------
// Computes the surrounding collision bounds from the current sequence box
//-----------------------------------------------------------------------------
void CCollisionProperty::ComputeRotationExpandedSequenceBounds( Vector *pVecWorldMins, Vector *pVecWorldMaxs )
{
CBaseAnimating *pAnim = GetOuter()->GetBaseAnimating();
if ( !pAnim )
{
ComputeOBBBounds( pVecWorldMins, pVecWorldMaxs );
return;
}
Vector mins, maxs;
pAnim->ExtractBbox( pAnim->GetSequence(), mins, maxs );
float flRadius = MAX( MAX( FloatMakePositive( mins.x ), FloatMakePositive( maxs.x ) ),
MAX( FloatMakePositive( mins.y ), FloatMakePositive( maxs.y ) ) );
mins.x = mins.y = -flRadius;
maxs.x = maxs.y = flRadius;
// Add bloat to account for gesture sequences
Vector vecBloat( 6, 6, 0 );
mins -= vecBloat;
maxs += vecBloat;
// NOTE: This is necessary because the server doesn't know how to blend
// animations together. Therefore, we have to just pick a box that can
// surround all of our potential sequences. This should be something we
// should be able to compute @ tool time instead, however.
VectorMin( mins, m_vecSurroundingMins, mins );
VectorMax( maxs, m_vecSurroundingMaxs, maxs );
VectorAdd( mins, GetCollisionOrigin(), *pVecWorldMins );
VectorAdd( maxs, GetCollisionOrigin(), *pVecWorldMaxs );
}
//-----------------------------------------------------------------------------
// Builds a rotation matrix that rotates one direction vector into another
//-----------------------------------------------------------------------------
void MatrixBuildRotation( VMatrix &dst, const Vector& initialDirection, const Vector& finalDirection )
{
float angle = DotProduct( initialDirection, finalDirection );
assert( IsFinite(angle) );
Vector axis;
// No rotation required
if (angle - 1.0 > -1e-3)
{
// parallel case
MatrixSetIdentity(dst);
return;
}
else if (angle + 1.0 < 1e-3)
{
// antiparallel case, pick any axis in the plane
// perpendicular to the final direction. Choose the direction (x,y,z)
// which has the minimum component of the final direction, use that
// as an initial guess, then subtract out the component which is
// parallel to the final direction
int idx = 0;
if (FloatMakePositive(finalDirection[1]) < FloatMakePositive(finalDirection[idx]))
idx = 1;
if (FloatMakePositive(finalDirection[2]) < FloatMakePositive(finalDirection[idx]))
idx = 2;
axis.Init( 0, 0, 0 );
axis[idx] = 1.0f;
VectorMA( axis, -DotProduct( axis, finalDirection ), finalDirection, axis );
VectorNormalize(axis);
angle = 180.0f;
}
else
{
CrossProduct( initialDirection, finalDirection, axis );
VectorNormalize( axis );
angle = acos(angle) * 180 / M_PI;
}
MatrixBuildRotationAboutAxis( dst, axis, angle );
#ifdef _DEBUG
Vector test;
Vector3DMultiply( dst, initialDirection, test );
test -= finalDirection;
assert( test.LengthSqr() < 1e-3 );
#endif
}
bool VMatrix::IsRotationMatrix() const
{
Vector &v1 = (Vector&)m[0][0];
Vector &v2 = (Vector&)m[1][0];
Vector &v3 = (Vector&)m[2][0];
return
FloatMakePositive( 1 - v1.Length() ) < 0.01f &&
FloatMakePositive( 1 - v2.Length() ) < 0.01f &&
FloatMakePositive( 1 - v3.Length() ) < 0.01f &&
FloatMakePositive( v1.Dot(v2) ) < 0.01f &&
FloatMakePositive( v1.Dot(v3) ) < 0.01f &&
FloatMakePositive( v2.Dot(v3) ) < 0.01f;
}
//-----------------------------------------------------------------------------
// Purpose: Find the minor projection axes based on the given normal.
//-----------------------------------------------------------------------------
void CVRADDispColl::GetMinorAxes( Vector const &vecNormal, int &nAxis0, int &nAxis1 )
{
nAxis0 = 0;
nAxis1 = 1;
if( FloatMakePositive( vecNormal.x ) > FloatMakePositive( vecNormal.y ) )
{
if( FloatMakePositive( vecNormal.x ) > FloatMakePositive( vecNormal.z ) )
{
nAxis0 = 1;
nAxis1 = 2;
}
}
else
{
if( FloatMakePositive( vecNormal.y ) > FloatMakePositive( vecNormal.z ) )
{
nAxis0 = 0;
nAxis1 = 2;
}
}
}
//-----------------------------------------------------------------------------
// Computes the surrounding collision bounds from the the OBB (not vphysics)
//-----------------------------------------------------------------------------
void CCollisionProperty::ComputeRotationExpandedBounds( Vector *pVecWorldMins, Vector *pVecWorldMaxs )
{
if ( !IsBoundsDefinedInEntitySpace() )
{
*pVecWorldMins = m_vecMins;
*pVecWorldMaxs = m_vecMaxs;
}
else
{
float flMaxVal;
flMaxVal = max( FloatMakePositive(m_vecMins.Get().x), FloatMakePositive(m_vecMaxs.Get().x) );
pVecWorldMins->x = -flMaxVal;
pVecWorldMaxs->x = flMaxVal;
flMaxVal = max( FloatMakePositive(m_vecMins.Get().y), FloatMakePositive(m_vecMaxs.Get().y) );
pVecWorldMins->y = -flMaxVal;
pVecWorldMaxs->y = flMaxVal;
flMaxVal = max( FloatMakePositive(m_vecMins.Get().z), FloatMakePositive(m_vecMaxs.Get().z) );
pVecWorldMins->z = -flMaxVal;
pVecWorldMaxs->z = flMaxVal;
}
}
bool MatrixInverseGeneral(const VMatrix& src, VMatrix& dst)
{
int iRow, i, j, iTemp, iTest;
vec_t mul, fTest, fLargest;
vec_t mat[4][8];
int rowMap[4], iLargest;
vec_t *pOut, *pRow, *pScaleRow;
// How it's done.
// AX = I
// A = this
// X = the matrix we're looking for
// I = identity
// Setup AI
for(i=0; i < 4; i++)
{
const vec_t *pIn = src[i];
pOut = mat[i];
for(j=0; j < 4; j++)
{
pOut[j] = pIn[j];
}
pOut[4] = 0.0f;
pOut[5] = 0.0f;
pOut[6] = 0.0f;
pOut[7] = 0.0f;
pOut[i+4] = 1.0f;
rowMap[i] = i;
}
// Use row operations to get to reduced row-echelon form using these rules:
// 1. Multiply or divide a row by a nonzero number.
// 2. Add a multiple of one row to another.
// 3. Interchange two rows.
for(iRow=0; iRow < 4; iRow++)
{
// Find the row with the largest element in this column.
fLargest = 0.001f;
iLargest = -1;
for(iTest=iRow; iTest < 4; iTest++)
{
fTest = (vec_t)FloatMakePositive(mat[rowMap[iTest]][iRow]);
if(fTest > fLargest)
{
iLargest = iTest;
fLargest = fTest;
}
}
// They're all too small.. sorry.
if(iLargest == -1)
{
return false;
}
// Swap the rows.
iTemp = rowMap[iLargest];
rowMap[iLargest] = rowMap[iRow];
rowMap[iRow] = iTemp;
pRow = mat[rowMap[iRow]];
// Divide this row by the element.
mul = 1.0f / pRow[iRow];
for(j=0; j < 8; j++)
pRow[j] *= mul;
pRow[iRow] = 1.0f; // Preserve accuracy...
// Eliminate this element from the other rows using operation 2.
for(i=0; i < 4; i++)
{
if(i == iRow)
continue;
pScaleRow = mat[rowMap[i]];
// Multiply this row by -(iRow*the element).
mul = -pScaleRow[iRow];
for(j=0; j < 8; j++)
{
pScaleRow[j] += pRow[j] * mul;
}
pScaleRow[iRow] = 0.0f; // Preserve accuracy...
}
}
// The inverse is on the right side of AX now (the identity is on the left).
for(i=0; i < 4; i++)
{
const vec_t *pIn = mat[rowMap[i]] + 4;
pOut = dst.m[i];
for(j=0; j < 4; j++)
{
pOut[j] = pIn[j];
}
}
return true;
}
char *V_pretifymem( float value, int digitsafterdecimal /*= 2*/, bool usebinaryonek /*= false*/ )
{
static char output[ NUM_PRETIFYMEM_BUFFERS ][ 32 ];
static int current;
float onekb = usebinaryonek ? 1024.0f : 1000.0f;
float onemb = onekb * onekb;
char *out = output[ current ];
current = ( current + 1 ) & ( NUM_PRETIFYMEM_BUFFERS -1 );
char suffix[ 8 ];
// First figure out which bin to use
if ( value > onemb )
{
value /= onemb;
V_snprintf( suffix, sizeof( suffix ), " MB" );
}
else if ( value > onekb )
{
value /= onekb;
V_snprintf( suffix, sizeof( suffix ), " KB" );
}
else
{
V_snprintf( suffix, sizeof( suffix ), " bytes" );
}
char val[ 32 ];
// Clamp to >= 0
digitsafterdecimal = max( digitsafterdecimal, 0 );
// If it's basically integral, don't do any decimals
if ( FloatMakePositive( value - (int)value ) < 0.00001 )
{
V_snprintf( val, sizeof( val ), "%i%s", (int)value, suffix );
}
else
{
char fmt[ 32 ];
// Otherwise, create a format string for the decimals
V_snprintf( fmt, sizeof( fmt ), "%%.%if%s", digitsafterdecimal, suffix );
V_snprintf( val, sizeof( val ), fmt, value );
}
// Copy from in to out
char *i = val;
char *o = out;
// Search for decimal or if it was integral, find the space after the raw number
char *dot = strstr( i, "." );
if ( !dot )
{
dot = strstr( i, " " );
}
// Compute position of dot
int pos = dot - i;
// Don't put a comma if it's <= 3 long
pos -= 3;
while ( *i )
{
// If pos is still valid then insert a comma every third digit, except if we would be
// putting one in the first spot
if ( pos >= 0 && !( pos % 3 ) )
{
// Never in first spot
if ( o != out )
{
*o++ = ',';
}
}
// Count down comma position
pos--;
// Copy rest of data as normal
*o++ = *i++;
}
// Terminate
*o = 0;
return out;
}
//-----------------------------------------------------------------------------
// Purpose: Apply joystick to CUserCmd creation
// Input : frametime -
// *cmd -
//-----------------------------------------------------------------------------
void CInput::JoyStickMove( float frametime, CUserCmd *cmd )
{
// complete initialization if first time in ( needed as cvars are not available at initialization time )
if ( !m_fJoystickAdvancedInit )
{
Joystick_Advanced();
m_fJoystickAdvancedInit = true;
}
// verify joystick is available and that the user wants to use it
if ( !in_joystick.GetInt() || 0 == inputsystem->GetJoystickCount() )
return;
// Skip out if vgui is active
if ( vgui::surface()->IsCursorVisible() )
return;
if ( m_flRemainingJoystickSampleTime <= 0 )
return;
frametime = MIN(m_flRemainingJoystickSampleTime, frametime);
m_flRemainingJoystickSampleTime -= frametime;
QAngle viewangles;
// Get starting angles
engine->GetViewAngles( viewangles );
struct axis_t
{
float value;
int controlType;
};
axis_t gameAxes[ MAX_GAME_AXES ];
memset( &gameAxes, 0, sizeof(gameAxes) );
// Get each joystick axis value, and normalize the range
for ( int i = 0; i < MAX_JOYSTICK_AXES; ++i )
{
if ( GAME_AXIS_NONE == m_rgAxes[i].AxisMap )
continue;
float fAxisValue = inputsystem->GetAnalogValue( (AnalogCode_t)JOYSTICK_AXIS( 0, i ) );
if (joy_wwhack2.GetInt() != 0 )
{
// this is a special formula for the Logitech WingMan Warrior
// y=ax^b; where a = 300 and b = 1.3
// also x values are in increments of 800 (so this is factored out)
// then bounds check result to level out excessively high spin rates
float fTemp = 300.0 * pow(abs(fAxisValue) / 800.0, 1.3);
if (fTemp > 14000.0)
fTemp = 14000.0;
// restore direction information
fAxisValue = (fAxisValue > 0.0) ? fTemp : -fTemp;
}
unsigned int idx = m_rgAxes[i].AxisMap;
gameAxes[idx].value = fAxisValue;
gameAxes[idx].controlType = m_rgAxes[i].ControlMap;
}
// Re-map the axis values if necessary, based on the joystick configuration
if ( (joy_advanced.GetInt() == 0) && (in_jlook.state & 1) )
{
// user wants forward control to become pitch control
gameAxes[GAME_AXIS_PITCH] = gameAxes[GAME_AXIS_FORWARD];
gameAxes[GAME_AXIS_FORWARD].value = 0;
// if mouse invert is on, invert the joystick pitch value
// Note: only absolute control support here - joy_advanced = 0
if ( m_pitch->GetFloat() < 0.0 )
{
gameAxes[GAME_AXIS_PITCH].value *= -1;
}
}
if ( (in_strafe.state & 1) || lookstrafe.GetFloat() && (in_jlook.state & 1) )
{
// user wants yaw control to become side control
gameAxes[GAME_AXIS_SIDE] = gameAxes[GAME_AXIS_YAW];
gameAxes[GAME_AXIS_YAW].value = 0;
}
float forward = ScaleAxisValue( gameAxes[GAME_AXIS_FORWARD].value, MAX_BUTTONSAMPLE * joy_forwardthreshold.GetFloat() );
float side = ScaleAxisValue( gameAxes[GAME_AXIS_SIDE].value, MAX_BUTTONSAMPLE * joy_sidethreshold.GetFloat() );
float pitch = ScaleAxisValue( gameAxes[GAME_AXIS_PITCH].value, MAX_BUTTONSAMPLE * joy_pitchthreshold.GetFloat() );
float yaw = ScaleAxisValue( gameAxes[GAME_AXIS_YAW].value, MAX_BUTTONSAMPLE * joy_yawthreshold.GetFloat() );
// If we're inverting our joystick, do so
if ( joy_inverty.GetBool() )
{
pitch *= -1.0f;
}
// drive yaw, pitch and move like a screen relative platformer game
if ( CAM_IsThirdPerson() && thirdperson_platformer.GetInt() )
{
if ( forward || side )
{
// apply turn control [ YAW ]
// factor in the camera offset, so that the move direction is relative to the thirdperson camera
viewangles[ YAW ] = RAD2DEG(atan2(-side, -forward)) + m_vecCameraOffset[ YAW ];
engine->SetViewAngles( viewangles );
// apply movement
Vector2D moveDir( forward, side );
cmd->forwardmove += moveDir.Length() * cl_forwardspeed.GetFloat();
}
if ( pitch || yaw )
{
// look around with the camera
m_vecCameraOffset[ PITCH ] += pitch * joy_pitchsensitivity.GetFloat();
m_vecCameraOffset[ YAW ] += yaw * joy_yawsensitivity.GetFloat();
}
if ( forward || side || pitch || yaw )
{
// update the ideal pitch and yaw
cam_idealpitch.SetValue( m_vecCameraOffset[ PITCH ] - viewangles[ PITCH ] );
cam_idealyaw.SetValue( m_vecCameraOffset[ YAW ] - viewangles[ YAW ] );
}
return;
}
float joySideMove = 0.f;
float joyForwardMove = 0.f;
float aspeed = frametime * gHUD.GetFOVSensitivityAdjust();
// apply forward and side control
C_BasePlayer *pLocalPlayer = C_BasePlayer::GetLocalPlayer();
int iResponseCurve = 0;
if ( pLocalPlayer && pLocalPlayer->IsInAVehicle() )
{
iResponseCurve = pLocalPlayer->GetVehicle() ? pLocalPlayer->GetVehicle()->GetJoystickResponseCurve() : joy_response_move_vehicle.GetInt();
}
else
{
iResponseCurve = joy_response_move.GetInt();
}
float val = ResponseCurve( iResponseCurve, forward, PITCH, joy_forwardsensitivity.GetFloat() );
joyForwardMove += val * cl_forwardspeed.GetFloat();
val = ResponseCurve( iResponseCurve, side, YAW, joy_sidesensitivity.GetFloat() );
joySideMove += val * cl_sidespeed.GetFloat();
Vector2D move( yaw, pitch );
float dist = move.Length();
// apply turn control
float angle = 0.f;
if ( JOY_ABSOLUTE_AXIS == gameAxes[GAME_AXIS_YAW].controlType )
{
float fAxisValue = ResponseCurveLook( joy_response_look.GetInt(), yaw, YAW, pitch, dist, frametime );
angle = fAxisValue * joy_yawsensitivity.GetFloat() * aspeed * cl_yawspeed.GetFloat();
}
else
{
angle = yaw * joy_yawsensitivity.GetFloat() * aspeed * 180.0;
}
viewangles[YAW] += angle;
cmd->mousedx = angle;
// apply look control
if ( IsX360() || in_jlook.state & 1 )
{
float angle = 0;
if ( JOY_ABSOLUTE_AXIS == gameAxes[GAME_AXIS_PITCH].controlType )
{
float fAxisValue = ResponseCurveLook( joy_response_look.GetInt(), pitch, PITCH, yaw, dist, frametime );
angle = fAxisValue * joy_pitchsensitivity.GetFloat() * aspeed * cl_pitchspeed.GetFloat();
}
else
{
angle = pitch * joy_pitchsensitivity.GetFloat() * aspeed * 180.0;
}
viewangles[PITCH] += angle;
cmd->mousedy = angle;
view->StopPitchDrift();
if( pitch == 0.f && lookspring.GetFloat() == 0.f )
{
// no pitch movement
// disable pitch return-to-center unless requested by user
// *** this code can be removed when the lookspring bug is fixed
// *** the bug always has the lookspring feature on
view->StopPitchDrift();
}
}
// apply player motion relative to screen space
if ( CAM_IsThirdPerson() && thirdperson_screenspace.GetInt() )
{
float ideal_yaw = cam_idealyaw.GetFloat();
float ideal_sin = sin(DEG2RAD(ideal_yaw));
float ideal_cos = cos(DEG2RAD(ideal_yaw));
float side_movement = ideal_cos*joySideMove - ideal_sin*joyForwardMove;
float forward_movement = ideal_cos*joyForwardMove + ideal_sin*joySideMove;
cmd->forwardmove += forward_movement;
cmd->sidemove += side_movement;
}
else
{
cmd->forwardmove += joyForwardMove;
cmd->sidemove += joySideMove;
}
if ( IsPC() )
{
CCommand tmp;
if ( FloatMakePositive(joyForwardMove) >= joy_autosprint.GetFloat() || FloatMakePositive(joySideMove) >= joy_autosprint.GetFloat() )
{
KeyDown( &in_joyspeed, NULL );
}
else
{
KeyUp( &in_joyspeed, NULL );
}
}
// Bound pitch
viewangles[PITCH] = clamp( viewangles[ PITCH ], -cl_pitchup.GetFloat(), cl_pitchdown.GetFloat() );
engine->SetViewAngles( viewangles );
}
//-----------------------------------------------------------------------------
// Purpose: Apply joystick to CUserCmd creation
// Input : frametime -
// *cmd -
//-----------------------------------------------------------------------------
void CInput::JoyStickMove( float frametime, CUserCmd *cmd )
{
// complete initialization if first time in ( needed as cvars are not available at initialization time )
if ( !m_fJoystickAdvancedInit )
{
Joystick_Advanced();
m_fJoystickAdvancedInit = true;
}
// verify joystick is available and that the user wants to use it
if ( !in_joystick.GetInt() || 0 == inputsystem->GetJoystickCount() )
{
return;
}
QAngle viewangles;
// Get starting angles
engine->GetViewAngles( viewangles );
struct axis_t
{
float value;
int controlType;
};
axis_t gameAxes[ MAX_GAME_AXES ];
memset( &gameAxes, 0, sizeof(gameAxes) );
// Get each joystick axis value, and normalize the range
for ( int i = 0; i < MAX_JOYSTICK_AXES; ++i )
{
if ( GAME_AXIS_NONE == m_rgAxes[i].AxisMap )
continue;
float fAxisValue = inputsystem->GetAnalogValue( (AnalogCode_t)JOYSTICK_AXIS( 0, i ) );
if (joy_wwhack2.GetInt() != 0 )
{
// this is a special formula for the Logitech WingMan Warrior
// y=ax^b; where a = 300 and b = 1.3
// also x values are in increments of 800 (so this is factored out)
// then bounds check result to level out excessively high spin rates
float fTemp = 300.0 * pow(abs(fAxisValue) / 800.0, 1.3);
if (fTemp > 14000.0)
fTemp = 14000.0;
// restore direction information
fAxisValue = (fAxisValue > 0.0) ? fTemp : -fTemp;
}
unsigned int idx = m_rgAxes[i].AxisMap;
gameAxes[idx].value = fAxisValue;
gameAxes[idx].controlType = m_rgAxes[i].ControlMap;
}
// Re-map the axis values if necessary, based on the joystick configuration
if ( (joy_advanced.GetInt() == 0) && (in_jlook.state & 1) )
{
// user wants forward control to become pitch control
gameAxes[GAME_AXIS_PITCH] = gameAxes[GAME_AXIS_FORWARD];
gameAxes[GAME_AXIS_FORWARD].value = 0;
// if mouse invert is on, invert the joystick pitch value
// Note: only absolute control support here - joy_advanced = 0
if ( m_pitch.GetFloat() < 0.0 )
{
gameAxes[GAME_AXIS_PITCH].value *= -1;
}
}
if ( (in_strafe.state & 1) || lookstrafe.GetFloat() && (in_jlook.state & 1) )
{
// user wants yaw control to become side control
gameAxes[GAME_AXIS_SIDE] = gameAxes[GAME_AXIS_YAW];
gameAxes[GAME_AXIS_YAW].value = 0;
}
float forward = ScaleAxisValue( gameAxes[GAME_AXIS_FORWARD].value, MAX_BUTTONSAMPLE * joy_forwardthreshold.GetFloat() );
float side = ScaleAxisValue( gameAxes[GAME_AXIS_SIDE].value, MAX_BUTTONSAMPLE * joy_sidethreshold.GetFloat() );
float pitch = ScaleAxisValue( gameAxes[GAME_AXIS_PITCH].value, MAX_BUTTONSAMPLE * joy_pitchthreshold.GetFloat() );
float yaw = ScaleAxisValue( gameAxes[GAME_AXIS_YAW].value, MAX_BUTTONSAMPLE * joy_yawthreshold.GetFloat() );
float joySideMove = 0.f;
float joyForwardMove = 0.f;
float aspeed = frametime * gHUD.GetFOVSensitivityAdjust();
// apply forward and side control
joyForwardMove += ResponseCurve( joy_response_move.GetInt(), forward ) * joy_forwardsensitivity.GetFloat() * cl_forwardspeed.GetFloat();
joySideMove += ResponseCurve( joy_response_move.GetInt(), side ) * joy_sidesensitivity.GetFloat() * cl_sidespeed.GetFloat();
Vector2D move( yaw, pitch );
float dist = move.Length();
// apply turn control
float angle = 0.f;
if ( JOY_ABSOLUTE_AXIS == gameAxes[GAME_AXIS_YAW].controlType )
{
float fAxisValue = ResponseCurveLook( joy_response_look.GetInt(), yaw, YAW, pitch, dist );
angle = fAxisValue * joy_yawsensitivity.GetFloat() * aspeed * cl_yawspeed.GetFloat();
}
else
{
angle = yaw * joy_yawsensitivity.GetFloat() * aspeed * 180.0;
}
viewangles[YAW] += angle;
cmd->mousedx = angle;
// apply look control
if ( IsXbox() || in_jlook.state & 1 )
{
float angle = 0;
if ( JOY_ABSOLUTE_AXIS == gameAxes[GAME_AXIS_PITCH].controlType )
{
float fAxisValue = ResponseCurveLook( joy_response_look.GetInt(), pitch, PITCH, yaw, dist );
angle = fAxisValue * joy_pitchsensitivity.GetFloat() * aspeed * cl_pitchspeed.GetFloat();
}
else
{
angle = pitch * joy_pitchsensitivity.GetFloat() * aspeed * 180.0;
}
viewangles[PITCH] += angle;
cmd->mousedy = angle;
view->StopPitchDrift();
if( pitch == 0.f && lookspring.GetFloat() == 0.f )
{
// no pitch movement
// disable pitch return-to-center unless requested by user
// *** this code can be removed when the lookspring bug is fixed
// *** the bug always has the lookspring feature on
view->StopPitchDrift();
}
}
cmd->forwardmove += joyForwardMove;
cmd->sidemove += joySideMove;
if ( IsPC() )
{
if ( FloatMakePositive(joyForwardMove) >= joy_autosprint.GetFloat() || FloatMakePositive(joySideMove) >= joy_autosprint.GetFloat() )
{
KeyDown( &in_joyspeed, true );
}
else
{
KeyUp( &in_joyspeed, true );
}
}
// Bound pitch
viewangles[PITCH] = clamp( viewangles[ PITCH ], -cl_pitchup.GetFloat(), cl_pitchdown.GetFloat() );
engine->SetViewAngles( viewangles );
}
