powf -> Q_powf

codemp/RMG/RM_Terrain.cpp

@@ -345,7 +345,7 @@ void CRMLandScape::Sprinkle(CCMPatch *patch, CCGHeightDetails *hd, int level)
 	// Get a number -5.3f to 5.3f
 	density = (mDensityMap[px + (common->GetBlockWidth() * py)] - 128) / 24.0f;
 	// ..and multiply that into the count
-	count = Round(common->GetPatchScalarSize() * hd->GetAverageFrequency() * powf(2.0f, density) * 0.001);
+	count = Round(common->GetPatchScalarSize() * hd->GetAverageFrequency() * Q_powf(2.0f, density) * 0.001);
 
 	for(i = 0; i < count; i++)
 	{

codemp/cgame/cg_view.c

@@ -441,7 +441,7 @@ static void CG_UpdateThirdPersonTargetDamp(void)
 
 		// Note that since there are a finite number of "practical" delta millisecond values possible, 
 		// the ratio should be initialized into a chart ultimately.
-		ratio = powf(dampfactor, dtime);
+		ratio = Q_powf(dampfactor, dtime);
 		
 		// This value is how much distance is "left" from the ideal.
 		VectorMA(cameraIdealTarget, -ratio, targetdiff, cameraCurTarget);
@@ -528,7 +528,7 @@ static void CG_UpdateThirdPersonCameraDamp(void)
 
 		// Note that since there are a finite number of "practical" delta millisecond values possible, 
 		// the ratio should be initialized into a chart ultimately.
-		ratio = powf(dampfactor, dtime);
+		ratio = Q_powf(dampfactor, dtime);
 		
 		// This value is how much distance is "left" from the ideal.
 		VectorMA(cameraIdealLoc, -ratio, locdiff, cameraCurLoc);

codemp/game/q_math.c

@@ -1470,7 +1470,7 @@ int Q_irand(int value1, int value2)
 	return irand(value1, value2);
 }
 
-float powf ( float x, int y )
+float Q_powf ( float x, int y )
 {
 	float r = x;
 	for ( y--; y>0; y-- )

codemp/game/q_shared.h

@@ -1280,7 +1280,7 @@ float Q_rsqrt( float f );		// reciprocal square root
 signed char ClampChar( int i );
 signed short ClampShort( int i );
 
-float powf ( float x, int y );
+float Q_powf ( float x, int y );
 
 // this isn't a real cheap function to call!
 int DirToByte( vec3_t dir );

codemp/renderer/tr_terrain.cpp

@@ -445,7 +445,7 @@ void CTRLandScape::CalculateLighting(void)
 
 			// Both normalised, so -1.0 < dp < 1.0
 			dp = Com_Clampi(0.0f, 1.0f, DotProduct(direction, total));
-			dp = powf(dp, 3);
+			dp = Q_powf(dp, 3);
 			VectorScale(ambient, (1.0 - dp) * 0.5, ambient);
 			VectorMA(ambient, dp, directed, tint);