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use std:: namespace for most cmath functions: 

http://en.cppreference.com/w/cpp/header/cmath
pull/394/head
abma 2014-09-23 00:42:32 +02:00
parent b359deb7fd
commit 775b26e614
33 changed files with 156 additions and 161 deletions
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4
code/BlenderTessellator.cpp
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@ -324,7 +324,7 @@ void BlenderTessellatorP2T::Copy3DVertices( const MLoop* polyLoop, int vertexCou
aiMatrix4x4 BlenderTessellatorP2T::GeneratePointTransformMatrix( const Blender::PlaneP2T& plane ) const
{
aiVector3D sideA( 1.0f, 0.0f, 0.0f );
if ( fabs( plane.normal * sideA ) > 0.999f )
if ( std::fabs( plane.normal * sideA ) > 0.999f )
{
sideA = aiVector3D( 0.0f, 1.0f, 0.0f );
}
@ -420,7 +420,7 @@ float BlenderTessellatorP2T::FindLargestMatrixElem( const aiMatrix3x3& mtx ) con
{
for ( int y = 0; y < 3; ++y )
{
result = p2tMax( fabs( mtx[ x ][ y ] ), result );
result = p2tMax( std::fabs( mtx[ x ][ y ] ), result );
}
}

2
code/ColladaLoader.cpp
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@ -337,7 +337,7 @@ void ColladaLoader::BuildLightsForNode( const ColladaParser& pParser, const Coll
{
// Need to rely on falloff_exponent. I don't know how to interpret it, so I need to guess ....
// epsilon chosen to be 0.1
out->mAngleOuterCone = AI_DEG_TO_RAD (acos(pow(0.1f,1.f/srcLight->mFalloffExponent))+
out->mAngleOuterCone = AI_DEG_TO_RAD (std::acos(std::pow(0.1f,1.f/srcLight->mFalloffExponent))+
srcLight->mFalloffAngle);
}
else {

6
code/ComputeUVMappingProcess.cpp
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@ -207,7 +207,7 @@ void ComputeUVMappingProcess::ComputeSphereMapping(aiMesh* mesh,const aiVector3D
for (unsigned int pnt = 0; pnt < mesh->mNumVertices;++pnt) {
const aiVector3D diff = (mesh->mVertices[pnt]-center).Normalize();
out[pnt] = aiVector3D((atan2 (diff.z, diff.y) + AI_MATH_PI_F ) / AI_MATH_TWO_PI_F,
(asin (diff.x) + AI_MATH_HALF_PI_F) / AI_MATH_PI_F, 0.f);
(std::asin (diff.x) + AI_MATH_HALF_PI_F) / AI_MATH_PI_F, 0.f);
}
}
else if (axis * base_axis_y >= angle_epsilon) {
@ -215,7 +215,7 @@ void ComputeUVMappingProcess::ComputeSphereMapping(aiMesh* mesh,const aiVector3D
for (unsigned int pnt = 0; pnt < mesh->mNumVertices;++pnt) {
const aiVector3D diff = (mesh->mVertices[pnt]-center).Normalize();
out[pnt] = aiVector3D((atan2 (diff.x, diff.z) + AI_MATH_PI_F ) / AI_MATH_TWO_PI_F,
(asin (diff.y) + AI_MATH_HALF_PI_F) / AI_MATH_PI_F, 0.f);
(std::asin (diff.y) + AI_MATH_HALF_PI_F) / AI_MATH_PI_F, 0.f);
}
}
else if (axis * base_axis_z >= angle_epsilon) {
@ -223,7 +223,7 @@ void ComputeUVMappingProcess::ComputeSphereMapping(aiMesh* mesh,const aiVector3D
for (unsigned int pnt = 0; pnt < mesh->mNumVertices;++pnt) {
const aiVector3D diff = (mesh->mVertices[pnt]-center).Normalize();
out[pnt] = aiVector3D((atan2 (diff.y, diff.x) + AI_MATH_PI_F ) / AI_MATH_TWO_PI_F,
(asin (diff.z) + AI_MATH_HALF_PI_F) / AI_MATH_PI_F, 0.f);
(std::asin (diff.z) + AI_MATH_HALF_PI_F) / AI_MATH_PI_F, 0.f);
}
}
// slower code path in case the mapping axis is not one of the coordinate system axes

10
code/FBXConverter.cpp
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@ -497,15 +497,15 @@ private:
bool is_id[3] = { true, true, true };
aiMatrix4x4 temp[3];
if(fabs(rotation.z) > angle_epsilon) {
if(std::fabs(rotation.z) > angle_epsilon) {
aiMatrix4x4::RotationZ(AI_DEG_TO_RAD(rotation.z),temp[2]);
is_id[2] = false;
}
if(fabs(rotation.y) > angle_epsilon) {
if(std::fabs(rotation.y) > angle_epsilon) {
aiMatrix4x4::RotationY(AI_DEG_TO_RAD(rotation.y),temp[1]);
is_id[1] = false;
}
if(fabs(rotation.x) > angle_epsilon) {
if(std::fabs(rotation.x) > angle_epsilon) {
aiMatrix4x4::RotationX(AI_DEG_TO_RAD(rotation.x),temp[0]);
is_id[0] = false;
}
@ -674,7 +674,7 @@ private:
}
const aiVector3D& Scaling = PropertyGet<aiVector3D>(props,"Lcl Scaling",ok);
if(ok && fabs(Scaling.SquareLength()-1.0f) > zero_epsilon) {
if(ok && std::fabs(Scaling.SquareLength()-1.0f) > zero_epsilon) {
aiMatrix4x4::Scaling(Scaling,chain[TransformationComp_Scaling]);
}
@ -684,7 +684,7 @@ private:
}
const aiVector3D& GeometricScaling = PropertyGet<aiVector3D>(props, "GeometricScaling", ok);
if (ok && fabs(GeometricScaling.SquareLength() - 1.0f) > zero_epsilon) {
if (ok && std::fabs(GeometricScaling.SquareLength() - 1.0f) > zero_epsilon) {
aiMatrix4x4::Scaling(GeometricScaling, chain[TransformationComp_GeometricScaling]);
}

2
code/FindInvalidDataProcess.cpp
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@ -221,7 +221,7 @@ AI_FORCE_INLINE bool EpsilonCompare(const T& n, const T& s, float epsilon);
// ------------------------------------------------------------------------------------------------
AI_FORCE_INLINE bool EpsilonCompare(float n, float s, float epsilon) {
return fabs(n-s)>epsilon;
return std::fabs(n-s)>epsilon;
}
// ------------------------------------------------------------------------------------------------

4
code/FixNormalsStep.cpp
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@ -149,8 +149,8 @@ bool FixInfacingNormalsProcess::ProcessMesh( aiMesh* pcMesh, unsigned int index)
if (fDelta1_z < 0.05f * sqrtf( fDelta1_y * fDelta1_x ))return false;
// now compare the volumes of the bounding boxes
if (::fabsf(fDelta0_x * fDelta1_yz) <
::fabsf(fDelta1_x * fDelta1_y * fDelta1_z))
if (std::fabs(fDelta0_x * fDelta1_yz) <
std::fabs(fDelta1_x * fDelta1_y * fDelta1_z))
{
if (!DefaultLogger::isNullLogger())
{

2
code/GenVertexNormalsProcess.cpp
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@ -204,7 +204,7 @@ bool GenVertexNormalsProcess::GenMeshVertexNormals (aiMesh* pMesh, unsigned int
// Slower code path if a smooth angle is set. There are many ways to achieve
// the effect, this one is the most straightforward one.
else {
const float fLimit = ::cos(configMaxAngle);
const float fLimit = std::cos(configMaxAngle);
for (unsigned int i = 0; i < pMesh->mNumVertices;++i) {
// Get all vertices that share this one ...
vertexFinder->FindPositions( pMesh->mVertices[i] , posEpsilon, verticesFound);

10
code/IFCBoolean.cpp
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@ -69,8 +69,8 @@ Intersect IntersectSegmentPlane(const IfcVector3& p,const IfcVector3& n, const I
const IfcVector3 pdelta = e0 - p, seg = e1-e0;
const IfcFloat dotOne = n*seg, dotTwo = -(n*pdelta);
if (fabs(dotOne) < 1e-6) {
return fabs(dotTwo) < 1e-6f ? Intersect_LiesOnPlane : Intersect_No;
if (std::fabs(dotOne) < 1e-6) {
return std::fabs(dotTwo) < 1e-6f ? Intersect_LiesOnPlane : Intersect_No;
}
const IfcFloat t = dotTwo/dotOne;
@ -210,7 +210,7 @@ bool IntersectsBoundaryProfile( const IfcVector3& e0, const IfcVector3& e1, cons
// segment-segment intersection
// solve b0 + b*s = e0 + e*t for (s,t)
const IfcFloat det = (-b.x * e.y + e.x * b.y);
if(fabs(det) < 1e-6) {
if(std::fabs(det) < 1e-6) {
// no solutions (parallel lines)
continue;
}
@ -234,7 +234,7 @@ bool IntersectsBoundaryProfile( const IfcVector3& e0, const IfcVector3& e1, cons
if (t >= -epsilon && (t <= 1.0+epsilon || half_open) && s >= -epsilon && s <= 1.0) {
if (e0_hits_border && !*e0_hits_border) {
*e0_hits_border = fabs(t) < 1e-5f;
*e0_hits_border = std::fabs(t) < 1e-5f;
}
const IfcVector3& p = e0 + e*t;
@ -419,7 +419,7 @@ void ProcessPolygonalBoundedBooleanHalfSpaceDifference(const IfcPolygonalBounded
#ifdef ASSIMP_BUILD_DEBUG
if (isect == Intersect_Yes) {
const IfcFloat f = fabs((isectpos - p)*n);
const IfcFloat f = std::fabs((isectpos - p)*n);
ai_assert(f < 1e-5);
}
#endif

24
code/IFCCurve.cpp
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@ -88,10 +88,10 @@ public:
a *= conv.angle_scale;
b *= conv.angle_scale;
a = fmod(a,static_cast<IfcFloat>( AI_MATH_TWO_PI ));
b = fmod(b,static_cast<IfcFloat>( AI_MATH_TWO_PI ));
a = std::fmod(a,static_cast<IfcFloat>( AI_MATH_TWO_PI ));
b = std::fmod(b,static_cast<IfcFloat>( AI_MATH_TWO_PI ));
const IfcFloat setting = static_cast<IfcFloat>( AI_MATH_PI * conv.settings.conicSamplingAngle / 180.0 );
return static_cast<size_t>( ceil(abs( b-a)) / setting);
return static_cast<size_t>( std::ceil(abs( b-a)) / setting);
}
// --------------------------------------------------
@ -124,8 +124,8 @@ public:
// --------------------------------------------------
IfcVector3 Eval(IfcFloat u) const {
u = -conv.angle_scale * u;
return location + static_cast<IfcFloat>(entity.Radius)*(static_cast<IfcFloat>(::cos(u))*p[0] +
static_cast<IfcFloat>(::sin(u))*p[1]);
return location + static_cast<IfcFloat>(entity.Radius)*(static_cast<IfcFloat>(std::cos(u))*p[0] +
static_cast<IfcFloat>(std::sin(u))*p[1]);
}
private:
@ -153,8 +153,8 @@ public:
// --------------------------------------------------
IfcVector3 Eval(IfcFloat u) const {
u = -conv.angle_scale * u;
return location + static_cast<IfcFloat>(entity.SemiAxis1)*static_cast<IfcFloat>(::cos(u))*p[0] +
static_cast<IfcFloat>(entity.SemiAxis2)*static_cast<IfcFloat>(::sin(u))*p[1];
return location + static_cast<IfcFloat>(entity.SemiAxis1)*static_cast<IfcFloat>(std::cos(u))*p[0] +
static_cast<IfcFloat>(entity.SemiAxis2)*static_cast<IfcFloat>(std::sin(u))*p[1];
}
private:
@ -486,7 +486,7 @@ public:
IfcVector3 Eval(IfcFloat p) const {
ai_assert(InRange(p));
const size_t b = static_cast<size_t>(floor(p));
const size_t b = static_cast<size_t>(std::floor(p));
if (b == points.size()-1) {
return points.back();
}
@ -498,7 +498,7 @@ public:
// --------------------------------------------------
size_t EstimateSampleCount(IfcFloat a, IfcFloat b) const {
ai_assert(InRange(a) && InRange(b));
return static_cast<size_t>( ceil(b) - floor(a) );
return static_cast<size_t>( std::ceil(b) - std::floor(a) );
}
// --------------------------------------------------
@ -558,7 +558,7 @@ bool Curve :: InRange(IfcFloat u) const
if (IsClosed()) {
return true;
//ai_assert(range.first != std::numeric_limits<IfcFloat>::infinity() && range.second != std::numeric_limits<IfcFloat>::infinity());
//u = range.first + fmod(u-range.first,range.second-range.first);
//u = range.first + std::fmod(u-range.first,range.second-range.first);
}
const IfcFloat epsilon = 1e-5;
return u - range.first > -epsilon && range.second - u > -epsilon;
@ -606,12 +606,12 @@ IfcFloat RecursiveSearch(const Curve* cv, const IfcVector3& val, IfcFloat a, Ifc
}
ai_assert(min_diff[0] != inf && min_diff[1] != inf);
if ( fabs(a-min_point[0]) < threshold || recurse >= max_recurse) {
if ( std::fabs(a-min_point[0]) < threshold || recurse >= max_recurse) {
return min_point[0];
}
// fix for closed curves to take their wrap-over into account
if (cv->IsClosed() && fabs(min_point[0]-min_point[1]) > cv->GetParametricRangeDelta()*0.5 ) {
if (cv->IsClosed() && std::fabs(min_point[0]-min_point[1]) > cv->GetParametricRangeDelta()*0.5 ) {
const Curve::ParamRange& range = cv->GetParametricRange();
const IfcFloat wrapdiff = (cv->Eval(range.first)-val).SquareLength();

8
code/IFCGeometry.cpp
View File

@ -250,17 +250,17 @@ void ProcessRevolvedAreaSolid(const IfcRevolvedAreaSolid& solid, TempMesh& resul
bool has_area = solid.SweptArea->ProfileType == "AREA" && size>2;
const IfcFloat max_angle = solid.Angle*conv.angle_scale;
if(fabs(max_angle) < 1e-3) {
if(std::fabs(max_angle) < 1e-3) {
if(has_area) {
result = meshout;
}
return;
}
const unsigned int cnt_segments = std::max(2u,static_cast<unsigned int>(16 * fabs(max_angle)/AI_MATH_HALF_PI_F));
const unsigned int cnt_segments = std::max(2u,static_cast<unsigned int>(16 * std::fabs(max_angle)/AI_MATH_HALF_PI_F));
const IfcFloat delta = max_angle/cnt_segments;
has_area = has_area && fabs(max_angle) < AI_MATH_TWO_PI_F*0.99;
has_area = has_area && std::fabs(max_angle) < AI_MATH_TWO_PI_F*0.99;
result.verts.reserve(size*((cnt_segments+1)*4+(has_area?2:0)));
result.vertcnt.reserve(size*cnt_segments+2);
@ -480,7 +480,7 @@ IfcMatrix3 DerivePlaneCoordinateSpace(const TempMesh& curmesh, bool& ok, IfcVect
for (i = 0; !done && i < s-2; done || ++i) {
for (j = i+1; j < s-1; ++j) {
nor = -((out[i]-any_point)^(out[j]-any_point));
if(fabs(nor.Length()) > 1e-8f) {
if(std::fabs(nor.Length()) > 1e-8f) {
done = true;
break;
}

74
code/IFCOpenings.cpp
View File

@ -303,20 +303,20 @@ void InsertWindowContours(const ContourVector& contours,
const IfcVector2& v = contour[n];
bool hit = false;
if (fabs(v.x-bb.first.x)<epsilon) {
if (std::fabs(v.x-bb.first.x)<epsilon) {
edge.x = bb.first.x;
hit = true;
}
else if (fabs(v.x-bb.second.x)<epsilon) {
else if (std::fabs(v.x-bb.second.x)<epsilon) {
edge.x = bb.second.x;
hit = true;
}
if (fabs(v.y-bb.first.y)<epsilon) {
if (std::fabs(v.y-bb.first.y)<epsilon) {
edge.y = bb.first.y;
hit = true;
}
else if (fabs(v.y-bb.second.y)<epsilon) {
else if (std::fabs(v.y-bb.second.y)<epsilon) {
edge.y = bb.second.y;
hit = true;
}
@ -343,17 +343,17 @@ void InsertWindowContours(const ContourVector& contours,
IfcVector2 corner = edge;
if (fabs(contour[last_hit].x-bb.first.x)<epsilon) {
if (std::fabs(contour[last_hit].x-bb.first.x)<epsilon) {
corner.x = bb.first.x;
}
else if (fabs(contour[last_hit].x-bb.second.x)<epsilon) {
else if (std::fabs(contour[last_hit].x-bb.second.x)<epsilon) {
corner.x = bb.second.x;
}
if (fabs(contour[last_hit].y-bb.first.y)<epsilon) {
if (std::fabs(contour[last_hit].y-bb.first.y)<epsilon) {
corner.y = bb.first.y;
}
else if (fabs(contour[last_hit].y-bb.second.y)<epsilon) {
else if (std::fabs(contour[last_hit].y-bb.second.y)<epsilon) {
corner.y = bb.second.y;
}
@ -590,10 +590,10 @@ bool BoundingBoxesAdjacent(const BoundingBox& bb, const BoundingBox& ibb)
{
// TODO: I'm pretty sure there is a much more compact way to check this
const IfcFloat epsilon = 1e-5f;
return (fabs(bb.second.x - ibb.first.x) < epsilon && bb.first.y <= ibb.second.y && bb.second.y >= ibb.first.y) ||
(fabs(bb.first.x - ibb.second.x) < epsilon && ibb.first.y <= bb.second.y && ibb.second.y >= bb.first.y) ||
(fabs(bb.second.y - ibb.first.y) < epsilon && bb.first.x <= ibb.second.x && bb.second.x >= ibb.first.x) ||
(fabs(bb.first.y - ibb.second.y) < epsilon && ibb.first.x <= bb.second.x && ibb.second.x >= bb.first.x);
return (std::fabs(bb.second.x - ibb.first.x) < epsilon && bb.first.y <= ibb.second.y && bb.second.y >= ibb.first.y) ||
(std::fabs(bb.first.x - ibb.second.x) < epsilon && ibb.first.y <= bb.second.y && ibb.second.y >= bb.first.y) ||
(std::fabs(bb.second.y - ibb.first.y) < epsilon && bb.first.x <= ibb.second.x && bb.second.x >= ibb.first.x) ||
(std::fabs(bb.first.y - ibb.second.y) < epsilon && ibb.first.x <= bb.second.x && ibb.second.x >= bb.first.x);
}
// ------------------------------------------------------------------------------------------------
@ -615,11 +615,11 @@ bool IntersectingLineSegments(const IfcVector2& n0, const IfcVector2& n1,
static const IfcFloat inf = std::numeric_limits<IfcFloat>::infinity();
if (!(n0_to_m0.SquareLength() < e*e || fabs(n0_to_m0 * n0_to_n1) / (n0_to_m0.Length() * n0_to_n1.Length()) > 1-1e-5 )) {
if (!(n0_to_m0.SquareLength() < e*e || std::fabs(n0_to_m0 * n0_to_n1) / (n0_to_m0.Length() * n0_to_n1.Length()) > 1-1e-5 )) {
return false;
}
if (!(n1_to_m1.SquareLength() < e*e || fabs(n1_to_m1 * n0_to_n1) / (n1_to_m1.Length() * n0_to_n1.Length()) > 1-1e-5 )) {
if (!(n1_to_m1.SquareLength() < e*e || std::fabs(n1_to_m1 * n0_to_n1) / (n1_to_m1.Length() * n0_to_n1.Length()) > 1-1e-5 )) {
return false;
}
@ -631,14 +631,14 @@ bool IntersectingLineSegments(const IfcVector2& n0, const IfcVector2& n1,
// the higher absolute difference is big enough as to avoid
// divisions by zero, the case 0/0 ~ infinity is detected and
// handled separately.
if(fabs(n0_to_n1.x) > fabs(n0_to_n1.y)) {
if(std::fabs(n0_to_n1.x) > std::fabs(n0_to_n1.y)) {
s0 = n0_to_m0.x / n0_to_n1.x;
s1 = n0_to_m1.x / n0_to_n1.x;
if (fabs(s0) == inf && fabs(n0_to_m0.x) < smalle) {
if (std::fabs(s0) == inf && std::fabs(n0_to_m0.x) < smalle) {
s0 = 0.;
}
if (fabs(s1) == inf && fabs(n0_to_m1.x) < smalle) {
if (std::fabs(s1) == inf && std::fabs(n0_to_m1.x) < smalle) {
s1 = 0.;
}
}
@ -646,10 +646,10 @@ bool IntersectingLineSegments(const IfcVector2& n0, const IfcVector2& n1,
s0 = n0_to_m0.y / n0_to_n1.y;
s1 = n0_to_m1.y / n0_to_n1.y;
if (fabs(s0) == inf && fabs(n0_to_m0.y) < smalle) {
if (std::fabs(s0) == inf && std::fabs(n0_to_m0.y) < smalle) {
s0 = 0.;
}
if (fabs(s1) == inf && fabs(n0_to_m1.y) < smalle) {
if (std::fabs(s1) == inf && std::fabs(n0_to_m1.y) < smalle) {
s1 = 0.;
}
}
@ -664,7 +664,7 @@ bool IntersectingLineSegments(const IfcVector2& n0, const IfcVector2& n1,
s0 = std::min(1.0,s0);
s1 = std::min(1.0,s1);
if (fabs(s1-s0) < e) {
if (std::fabs(s1-s0) < e) {
return false;
}
@ -755,7 +755,7 @@ void FindAdjacentContours(ContourVector::iterator current, const ContourVector&
AI_FORCE_INLINE bool LikelyBorder(const IfcVector2& vdelta)
{
const IfcFloat dot_point_epsilon = static_cast<IfcFloat>(1e-5);
return fabs(vdelta.x * vdelta.y) < dot_point_epsilon;
return std::fabs(vdelta.x * vdelta.y) < dot_point_epsilon;
}
// ------------------------------------------------------------------------------------------------
@ -812,9 +812,9 @@ void FindBorderContours(ContourVector::iterator current)
// ------------------------------------------------------------------------------------------------
AI_FORCE_INLINE bool LikelyDiagonal(IfcVector2 vdelta)
{
vdelta.x = fabs(vdelta.x);
vdelta.y = fabs(vdelta.y);
return (fabs(vdelta.x-vdelta.y) < 0.8 * std::max(vdelta.x, vdelta.y));
vdelta.x = std::fabs(vdelta.x);
vdelta.y = std::fabs(vdelta.y);
return (std::fabs(vdelta.x-vdelta.y) < 0.8 * std::max(vdelta.x, vdelta.y));
}
// ------------------------------------------------------------------------------------------------
@ -926,7 +926,7 @@ size_t CloseWindows(ContourVector& contours,
/* debug code to check for unwanted diagonal lines in window contours
if (cit != cbegin) {
const IfcVector2& vdelta = proj_point - last_proj;
if (fabs(vdelta.x-vdelta.y) < 0.5 * std::max(vdelta.x, vdelta.y)) {
if (std::fabs(vdelta.x-vdelta.y) < 0.5 * std::max(vdelta.x, vdelta.y)) {
//continue;
}
} */
@ -1065,7 +1065,7 @@ IfcMatrix4 ProjectOntoPlane(std::vector<IfcVector2>& out_contour, const TempMesh
}
#ifdef ASSIMP_BUILD_DEBUG
const IfcFloat det = m.Determinant();
ai_assert(fabs(det-1) < 1e-5);
ai_assert(std::fabs(det-1) < 1e-5);
#endif
IfcFloat zcoord = 0;
@ -1085,7 +1085,7 @@ IfcMatrix4 ProjectOntoPlane(std::vector<IfcVector2>& out_contour, const TempMesh
// XXX this should be guarded, but we somehow need to pick a suitable
// epsilon
// if(coord != -1.0f) {
// assert(fabs(coord - vv.z) < 1e-3f);
// assert(std::fabs(coord - vv.z) < 1e-3f);
// }
zcoord += vv.z;
vmin = std::min(vv, vmin);
@ -1125,7 +1125,7 @@ IfcMatrix4 ProjectOntoPlane(std::vector<IfcVector2>& out_contour, const TempMesh
const IfcVector3& vv = m * x;
out_contour2.push_back(IfcVector2(vv.x,vv.y));
ai_assert(fabs(vv.z) < vmax.z + 1e-8);
ai_assert(std::fabs(vv.z) < vmax.z + 1e-8);
}
for(size_t i = 0; i < out_contour.size(); ++i) {
@ -1188,9 +1188,9 @@ bool GenerateOpenings(std::vector<TempOpening>& openings,
bool is_2d_source = false;
if (opening.profileMesh2D && norm_extrusion_dir.SquareLength() > 0) {
if(fabs(norm_extrusion_dir * wall_extrusion_axis_norm) < 0.1) {
if(std::fabs(norm_extrusion_dir * wall_extrusion_axis_norm) < 0.1) {
// horizontal extrusion
if (fabs(norm_extrusion_dir * nor) > 0.9) {
if (std::fabs(norm_extrusion_dir * nor) > 0.9) {
profile_data = opening.profileMesh2D.get();
is_2d_source = true;
}
@ -1200,7 +1200,7 @@ bool GenerateOpenings(std::vector<TempOpening>& openings,
}
else {
// vertical extrusion
if (fabs(norm_extrusion_dir * nor) > 0.9) {
if (std::fabs(norm_extrusion_dir * nor) > 0.9) {
continue;
}
continue;
@ -1289,7 +1289,7 @@ bool GenerateOpenings(std::vector<TempOpening>& openings,
ai_assert(!is_2d_source);
const IfcVector2 area = vpmax-vpmin;
const IfcVector2 area2 = vpmax2-vpmin2;
if (temp_contour.size() <= 2 || fabs(area2.x * area2.y) > fabs(area.x * area.y)) {
if (temp_contour.size() <= 2 || std::fabs(area2.x * area2.y) > std::fabs(area.x * area.y)) {
temp_contour.swap(temp_contour2);
vpmax = vpmax2;
@ -1301,7 +1301,7 @@ bool GenerateOpenings(std::vector<TempOpening>& openings,
}
// TODO: This epsilon may be too large
const IfcFloat epsilon = fabs(dmax-dmin) * 0.0001;
const IfcFloat epsilon = std::fabs(dmax-dmin) * 0.0001;
if (!is_2d_source && check_intersection && (0 < dmin-epsilon || 0 > dmax+epsilon)) {
continue;
}
@ -1310,7 +1310,7 @@ bool GenerateOpenings(std::vector<TempOpening>& openings,
// Skip over very small openings - these are likely projection errors
// (i.e. they don't belong to this side of the wall)
if(fabs(vpmax.x - vpmin.x) * fabs(vpmax.y - vpmin.y) < static_cast<IfcFloat>(1e-10)) {
if(std::fabs(vpmax.x - vpmin.x) * std::fabs(vpmax.y - vpmin.y) < static_cast<IfcFloat>(1e-10)) {
continue;
}
std::vector<TempOpening*> joined_openings(1, &opening);
@ -1480,7 +1480,7 @@ bool TryAddOpenings_Poly2Tri(const std::vector<TempOpening>& openings,const std:
// XXX this should be guarded, but we somehow need to pick a suitable
// epsilon
// if(coord != -1.0f) {
// assert(fabs(coord - vv.z) < 1e-3f);
// assert(std::fabs(coord - vv.z) < 1e-3f);
// }
coord = vv.z;
@ -1515,7 +1515,7 @@ bool TryAddOpenings_Poly2Tri(const std::vector<TempOpening>& openings,const std:
BOOST_FOREACH(const TempOpening& t,openings) {
const IfcVector3& outernor = nors[c++];
const IfcFloat dot = nor * outernor;
if (fabs(dot)<1.f-1e-6f) {
if (std::fabs(dot)<1.f-1e-6f) {
continue;
}
@ -1529,7 +1529,7 @@ bool TryAddOpenings_Poly2Tri(const std::vector<TempOpening>& openings,const std:
BOOST_FOREACH(const IfcVector3& xx, t.profileMesh->verts) {
IfcVector3 vv = m * xx, vv_extr = m * (xx + t.extrusionDir);
const bool is_extruded_side = fabs(vv.z - coord) > fabs(vv_extr.z - coord);
const bool is_extruded_side = std::fabs(vv.z - coord) > std::fabs(vv_extr.z - coord);
if (first) {
first = false;
if (dot > 0.f) {

2
code/IFCProfile.cpp
View File

@ -124,7 +124,7 @@ void ProcessParametrizedProfile(const IfcParameterizedProfileDef& def, TempMesh&
IfcFloat angle = 0.f;
for(size_t i = 0; i < segments; ++i, angle += delta) {
meshout.verts.push_back( IfcVector3( cos(angle)*radius, sin(angle)*radius, 0.f ));
meshout.verts.push_back( IfcVector3( std::cos(angle)*radius, std::sin(angle)*radius, 0.f ));
}
meshout.vertcnt.push_back(segments);

2
code/IFCUtil.cpp
View File

@ -278,7 +278,7 @@ void TempMesh::RemoveAdjacentDuplicates()
// continue;
// }
// const IfcFloat d = (d0/sqrt(l0))*(d1/sqrt(l1));
// const IfcFloat d = (d0/std::sqrt(l0))*(d1/std::sqrt(l1));
// if ( d >= 1.f-dotepsilon ) {
// v1 = v0;

2
code/IFCUtil.h
View File

@ -220,7 +220,7 @@ struct FuzzyVectorCompare {
FuzzyVectorCompare(IfcFloat epsilon) : epsilon(epsilon) {}
bool operator()(const IfcVector3& a, const IfcVector3& b) {
return fabs((a-b).SquareLength()) < epsilon;
return std::fabs((a-b).SquareLength()) < epsilon;
}
const IfcFloat epsilon;

6
code/IRRLoader.cpp
View File

@ -470,7 +470,7 @@ void IRRImporter::ComputeAnimations(Node* root, aiNode* real, std::vector<aiNode
key.mTime = i * tdelta;
const float t = (float) ( in.speed * key.mTime );
key.mValue = in.circleCenter + in.circleRadius * ((vecU*::cosf(t)) + (vecV*::sinf(t)));
key.mValue = in.circleCenter + in.circleRadius * ((vecU * std::cos(t)) + (vecV * std::sin(t)));
}
// This animation is repeated and repeated ...
@ -533,8 +533,8 @@ void IRRImporter::ComputeAnimations(Node* root, aiNode* real, std::vector<aiNode
aiVectorKey& key = anim->mPositionKeys[i];
const float dt = (i * in.speed * 0.001f );
const float u = dt - floor(dt);
const int idx = (int)floor(dt) % size;
const float u = dt - std::floor(dt);
const int idx = (int)std::floor(dt) % size;
// get the 4 current points to evaluate the spline
const aiVector3D& p0 = in.splineKeys[ ClampSpline( idx - 1, size ) ].mValue;

2
code/LWOBLoader.cpp
View File

@ -321,7 +321,7 @@ void LWOImporter::LoadLWOBSurface(unsigned int size)
case AI_LWO_SMAN:
{
AI_LWO_VALIDATE_CHUNK_LENGTH(head.length,SMAN,4);
surf.mMaximumSmoothAngle = fabs( GetF4() );
surf.mMaximumSmoothAngle = std::fabs( GetF4() );
break;
}
// glossiness

2
code/LWOLoader.cpp
View File

@ -503,7 +503,7 @@ void LWOImporter::ComputeNormals(aiMesh* mesh, const std::vector<unsigned int>&
// Generate vertex normals. We have O(logn) for the binary lookup, which we need
// for n elements, thus the EXPECTED complexity is O(nlogn)
if (surface.mMaximumSmoothAngle < 3.f && !configSpeedFlag) {
const float fLimit = cos(surface.mMaximumSmoothAngle);
const float fLimit = std::cos(surface.mMaximumSmoothAngle);
for( begin = mesh->mFaces, it = smoothingGroups.begin(); begin != end; ++begin, ++it) {
const aiFace& face = *begin;

2
code/LWOMaterial.cpp
View File

@ -285,7 +285,7 @@ void LWOImporter::ConvertMaterial(const LWO::Surface& surf,aiMaterial* pcMat)
{
float fGloss;
if (mIsLWO2) {
fGloss = pow( surf.mGlossiness*10.0f+2.0f, 2.0f);
fGloss = std::pow( surf.mGlossiness*10.0f+2.0f, 2.0f);
}
else
{

6
code/MD3FileData.h
View File

@ -263,9 +263,9 @@ inline void LatLngNormalToVec3(uint16_t p_iNormal, float* p_afOut)
lat *= 3.141926f/128.0f;
lng *= 3.141926f/128.0f;
p_afOut[0] = cosf(lat) * sinf(lng);
p_afOut[1] = sinf(lat) * sinf(lng);
p_afOut[2] = cosf(lng);
p_afOut[0] = std::cos(lat) * std::sin(lng);
p_afOut[1] = std::sin(lat) * std::sin(lng);
p_afOut[2] = std::cos(lng);
return;
}

2
code/MD5Parser.h
View File

@ -259,7 +259,7 @@ inline void ConvertQuaternion (const aiVector3D& in, aiQuaternion& out) {
if (t < 0.0f)
out.w = 0.0f;
else out.w = sqrt (t);
else out.w = std::sqrt (t);
}
// ---------------------------------------------------------------------------

12
code/PolyTools.h
View File

@ -118,9 +118,9 @@ inline bool IsCCW(T* in, size_t npoints) {
((-in[i+2].y + in[i+1].y) *
(-in[i+2].y + in[i+1].y));
b = sqrt(bb);
c = sqrt(cc);
theta = acos((bb + cc - aa) / (2 * b * c));
b = std::sqrt(bb);
c = std::sqrt(cc);
theta = std::acos((bb + cc - aa) / (2 * b * c));
if (OnLeftSideOfLine2D(in[i],in[i+2],in[i+1])) {
// if (convex(in[i].x, in[i].y,
@ -146,9 +146,9 @@ inline bool IsCCW(T* in, size_t npoints) {
cc = ((in[1].x - in[0].x) * (in[1].x - in[0].x)) +
((-in[1].y + in[0].y) * (-in[1].y + in[0].y));
b = sqrt(bb);
c = sqrt(cc);
theta = acos((bb + cc - aa) / (2 * b * c));
b = std::sqrt(bb);
c = std::sqrt(cc);
theta = std::acos((bb + cc - aa) / (2 * b * c));
//if (convex(in[npoints-2].x, in[npoints-2].y,
// in[0].x, in[0].y,

2
code/SkeletonMeshBuilder.cpp
View File

@ -101,7 +101,7 @@ void SkeletonMeshBuilder::CreateGeometry( const aiNode* pNode)
aiVector3D up = aiVector3D( childpos).Normalize();
aiVector3D orth( 1.0f, 0.0f, 0.0f);
if( fabs( orth * up) > 0.99f)
if( std::fabs( orth * up) > 0.99f)
orth.Set( 0.0f, 1.0f, 0.0f);
aiVector3D front = (up ^ orth).Normalize();

28
code/StandardShapes.cpp
View File

@ -192,7 +192,7 @@ unsigned int StandardShapes::MakeIcosahedron(std::vector<aiVector3D>& positions)
positions.reserve(positions.size()+60);
const float t = (1.f + 2.236067977f)/2.f;
const float s = sqrt(1.f + t*t);
const float s = std::sqrt(1.f + t*t);
const aiVector3D v0 = aiVector3D(t,1.f, 0.f)/s;
const aiVector3D v1 = aiVector3D(-t,1.f, 0.f)/s;
@ -242,8 +242,8 @@ unsigned int StandardShapes::MakeDodecahedron(std::vector<aiVector3D>& positions
positions.reserve(positions.size()+108);
const float a = 1.f / 1.7320508f;
const float b = sqrt((3.f-2.23606797f)/6.f);
const float c = sqrt((3.f+2.23606797f)/6.f);
const float b = std::sqrt((3.f-2.23606797f)/6.f);
const float c = std::sqrt((3.f+2.23606797f)/6.f);
const aiVector3D v0 = aiVector3D(a,a,a);
const aiVector3D v1 = aiVector3D(a,a,-a);
@ -390,8 +390,8 @@ void StandardShapes::MakeCone(float height,float radius1,
size_t old = positions.size();
// No negative radii
radius1 = ::fabs(radius1);
radius2 = ::fabs(radius2);
radius1 = std::fabs(radius1);
radius2 = std::fabs(radius2);
float halfHeight = height / 2;
@ -415,8 +415,8 @@ void StandardShapes::MakeCone(float height,float radius1,
const float angle_delta = (float)AI_MATH_TWO_PI / tess;
const float angle_max = (float)AI_MATH_TWO_PI;
float s = 1.f; // cos(angle == 0);
float t = 0.f; // sin(angle == 0);
float s = 1.f; // std::cos(angle == 0);
float t = 0.f; // std::sin(angle == 0);
for (float angle = 0.f; angle < angle_max; )
{
@ -424,8 +424,8 @@ void StandardShapes::MakeCone(float height,float radius1,
const aiVector3D v2 = aiVector3D (s * radius2, halfHeight, t * radius2 );
const float next = angle + angle_delta;
float s2 = ::cos(next);
float t2 = ::sin(next);
float s2 = std::cos(next);
float t2 = std::sin(next);
const aiVector3D v3 = aiVector3D (s2 * radius2, halfHeight, t2 * radius2 );
const aiVector3D v4 = aiVector3D (s2 * radius1, -halfHeight, t2 * radius1 );
@ -476,7 +476,7 @@ void StandardShapes::MakeCircle(float radius, unsigned int tess,
if (tess < 3 || !radius)
return;
radius = ::fabs(radius);
radius = std::fabs(radius);
// We will need 3 vertices per segment
positions.reserve(positions.size()+tess*3);
@ -484,15 +484,15 @@ void StandardShapes::MakeCircle(float radius, unsigned int tess,
const float angle_delta = (float)AI_MATH_TWO_PI / tess;
const float angle_max = (float)AI_MATH_TWO_PI;
float s = 1.f; // cos(angle == 0);
float t = 0.f; // sin(angle == 0);
float s = 1.f; // std::cos(angle == 0);
float t = 0.f; // std::sin(angle == 0);
for (float angle = 0.f; angle < angle_max; )
{
positions.push_back(aiVector3D(s * radius,0.f,t * radius));
angle += angle_delta;
s = ::cos(angle);
t = ::sin(angle);
s = std::cos(angle);
t = std::sin(angle);
positions.push_back(aiVector3D(s * radius,0.f,t * radius));
positions.push_back(aiVector3D(0.f,0.f,0.f));

14
code/TextureTransform.h
View File

@ -116,19 +116,19 @@ struct STransformVecInfo : public aiUVTransform
// We use a small epsilon here
const static float epsilon = 0.05f;
if (fabs( mTranslation.x - other.mTranslation.x ) > epsilon ||
fabs( mTranslation.y - other.mTranslation.y ) > epsilon)
if (std::fabs( mTranslation.x - other.mTranslation.x ) > epsilon ||
std::fabs( mTranslation.y - other.mTranslation.y ) > epsilon)
{
return false;
}
if (fabs( mScaling.x - other.mScaling.x ) > epsilon ||
fabs( mScaling.y - other.mScaling.y ) > epsilon)
if (std::fabs( mScaling.x - other.mScaling.x ) > epsilon ||
std::fabs( mScaling.y - other.mScaling.y ) > epsilon)
{
return false;
}
if (fabs( mRotation - other.mRotation) > epsilon)
if (std::fabs( mRotation - other.mRotation) > epsilon)
{
return false;
}
@ -168,8 +168,8 @@ struct STransformVecInfo : public aiUVTransform
if (mRotation)
{
aiMatrix3x3 mRot;
mRot.a1 = mRot.b2 = cos(mRotation);
mRot.a2 = mRot.b1 = sin(mRotation);
mRot.a1 = mRot.b2 = std::cos(mRotation);
mRot.a2 = mRot.b1 = std::sin(mRotation);
mRot.a2 = -mRot.a2;
mOut *= mRot;
}

4
code/TriangulateProcess.cpp
View File

@ -241,7 +241,7 @@ bool TriangulateProcess::TriangulateMesh( aiMesh* pMesh)
diag.Normalize();
right.Normalize();
const float angle = acos(left*diag) + acos(right*diag);
const float angle = std::acos(left*diag) + std::acos(right*diag);
if (angle > AI_MATH_PI_F) {
// this is the concave point
start_vertex = i;
@ -486,7 +486,7 @@ bool TriangulateProcess::TriangulateMesh( aiMesh* pMesh)
unsigned int* i = f->mIndices;
// drop dumb 0-area triangles
if (fabs(GetArea2D(temp_verts[i[0]],temp_verts[i[1]],temp_verts[i[2]])) < 1e-5f) {
if (std::fabs(GetArea2D(temp_verts[i[0]],temp_verts[i[1]],temp_verts[i[2]])) < 1e-5f) {
DefaultLogger::get()->debug("Dropping triangle with area 0");
--curOut;

2
code/fast_atof.h
View File

@ -312,7 +312,7 @@ inline const char* fast_atoreal_move( const char* c, Real& out, bool check_comma
if (einv) {
exp = -exp;
}
f *= pow(static_cast<Real>(10.0), exp);
f *= std::pow(static_cast<Real>(10.0), exp);
}
if (inv) {

2
include/assimp/color4.inl
View File

@ -175,7 +175,7 @@ template <typename TReal>
inline bool aiColor4t<TReal> :: IsBlack() const {
// The alpha component doesn't care here. black is black.
static const TReal epsilon = 10e-3f;
return fabs( r ) < epsilon && fabs( g ) < epsilon && fabs( b ) < epsilon;
return std::fabs( r ) < epsilon && std::fabs( g ) < epsilon && std::fabs( b ) < epsilon;
}
#endif // __cplusplus

6
include/assimp/matrix3x3.inl
View File

@ -200,8 +200,8 @@ inline aiMatrix3x3t<TReal>& aiMatrix3x3t<TReal>::Inverse()
template <typename TReal>
inline aiMatrix3x3t<TReal>& aiMatrix3x3t<TReal>::RotationZ(TReal a, aiMatrix3x3t<TReal>& out)
{
out.a1 = out.b2 = ::cos(a);
out.b1 = ::sin(a);
out.a1 = out.b2 = std::cos(a);
out.b1 = std::sin(a);
out.a2 = - out.b1;
out.a3 = out.b3 = out.c1 = out.c2 = 0.f;
@ -215,7 +215,7 @@ inline aiMatrix3x3t<TReal>& aiMatrix3x3t<TReal>::RotationZ(TReal a, aiMatrix3x3t
template <typename TReal>
inline aiMatrix3x3t<TReal>& aiMatrix3x3t<TReal>::Rotation( TReal a, const aiVector3t<TReal>& axis, aiMatrix3x3t<TReal>& out)
{
TReal c = cos( a), s = sin( a), t = 1 - c;
TReal c = std::cos( a), s = std::sin( a), t = 1 - c;
TReal x = axis.x, y = axis.y, z = axis.z;
// Many thanks to MathWorld and Wikipedia

31
include/assimp/matrix4x4.inl
View File

@ -53,12 +53,7 @@ OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
#include <algorithm>
#include <limits>
#ifdef __cplusplus
#include <cmath>
#else
# include <math.h>
#endif
// ----------------------------------------------------------------------------------------
template <typename TReal>
@ -379,12 +374,12 @@ inline aiMatrix4x4t<TReal>& aiMatrix4x4t<TReal>::FromEulerAnglesXYZ(TReal x, TRe
{
aiMatrix4x4t<TReal>& _this = *this;
TReal cr = cos( x );
TReal sr = sin( x );
TReal cp = cos( y );
TReal sp = sin( y );
TReal cy = cos( z );
TReal sy = sin( z );
TReal cr = std::cos( x );
TReal sr = std::sin( x );
TReal cp = std::cos( y );
TReal sp = std::sin( y );
TReal cy = std::cos( z );
TReal sy = std::sin( z );
_this.a1 = cp*cy ;
_this.a2 = cp*sy;
@ -439,8 +434,8 @@ inline aiMatrix4x4t<TReal>& aiMatrix4x4t<TReal>::RotationX(TReal a, aiMatrix4x4t
| 0 sin(A) cos(A) 0 |
| 0 0 0 1 | */
out = aiMatrix4x4t<TReal>();
out.b2 = out.c3 = cos(a);
out.b3 = -(out.c2 = sin(a));
out.b2 = out.c3 = std::cos(a);
out.b3 = -(out.c2 = std::sin(a));
return out;
}
@ -455,8 +450,8 @@ inline aiMatrix4x4t<TReal>& aiMatrix4x4t<TReal>::RotationY(TReal a, aiMatrix4x4t
| 0 0 0 1 |
*/
out = aiMatrix4x4t<TReal>();
out.a1 = out.c3 = cos(a);
out.c1 = -(out.a3 = sin(a));
out.a1 = out.c3 = std::cos(a);
out.c1 = -(out.a3 = std::sin(a));
return out;
}
@ -470,8 +465,8 @@ inline aiMatrix4x4t<TReal>& aiMatrix4x4t<TReal>::RotationZ(TReal a, aiMatrix4x4t
| 0 0 1 0 |
| 0 0 0 1 | */
out = aiMatrix4x4t<TReal>();
out.a1 = out.b2 = cos(a);
out.a2 = -(out.b1 = sin(a));
out.a1 = out.b2 = std::cos(a);
out.a2 = -(out.b1 = std::sin(a));
return out;
}
@ -480,7 +475,7 @@ inline aiMatrix4x4t<TReal>& aiMatrix4x4t<TReal>::RotationZ(TReal a, aiMatrix4x4t
template <typename TReal>
inline aiMatrix4x4t<TReal>& aiMatrix4x4t<TReal>::Rotation( TReal a, const aiVector3t<TReal>& axis, aiMatrix4x4t<TReal>& out)
{
TReal c = cos( a), s = sin( a), t = 1 - c;
TReal c = std::cos( a), s = std::sin( a), t = 1 - c;
TReal x = axis.x, y = axis.y, z = axis.z;
// Many thanks to MathWorld and Wikipedia

36
include/assimp/quaternion.inl
View File

@ -84,7 +84,7 @@ inline aiQuaterniont<TReal>::aiQuaterniont( const aiMatrix3x3t<TReal> &pRotMatri
// large enough
if( t > static_cast<TReal>(0))
{
TReal s = sqrt(1 + t) * static_cast<TReal>(2.0);
TReal s = std::sqrt(1 + t) * static_cast<TReal>(2.0);
x = (pRotMatrix.c2 - pRotMatrix.b3) / s;
y = (pRotMatrix.a3 - pRotMatrix.c1) / s;
z = (pRotMatrix.b1 - pRotMatrix.a2) / s;
@ -93,7 +93,7 @@ inline aiQuaterniont<TReal>::aiQuaterniont( const aiMatrix3x3t<TReal> &pRotMatri
else if( pRotMatrix.a1 > pRotMatrix.b2 && pRotMatrix.a1 > pRotMatrix.c3 )
{
// Column 0:
TReal s = sqrt( static_cast<TReal>(1.0) + pRotMatrix.a1 - pRotMatrix.b2 - pRotMatrix.c3) * static_cast<TReal>(2.0);
TReal s = std::sqrt( static_cast<TReal>(1.0) + pRotMatrix.a1 - pRotMatrix.b2 - pRotMatrix.c3) * static_cast<TReal>(2.0);
x = static_cast<TReal>(0.25) * s;
y = (pRotMatrix.b1 + pRotMatrix.a2) / s;
z = (pRotMatrix.a3 + pRotMatrix.c1) / s;
@ -102,7 +102,7 @@ inline aiQuaterniont<TReal>::aiQuaterniont( const aiMatrix3x3t<TReal> &pRotMatri
else if( pRotMatrix.b2 > pRotMatrix.c3)
{
// Column 1:
TReal s = sqrt( static_cast<TReal>(1.0) + pRotMatrix.b2 - pRotMatrix.a1 - pRotMatrix.c3) * static_cast<TReal>(2.0);
TReal s = std::sqrt( static_cast<TReal>(1.0) + pRotMatrix.b2 - pRotMatrix.a1 - pRotMatrix.c3) * static_cast<TReal>(2.0);
x = (pRotMatrix.b1 + pRotMatrix.a2) / s;
y = static_cast<TReal>(0.25) * s;
z = (pRotMatrix.c2 + pRotMatrix.b3) / s;
@ -110,7 +110,7 @@ inline aiQuaterniont<TReal>::aiQuaterniont( const aiMatrix3x3t<TReal> &pRotMatri
} else
{
// Column 2:
TReal s = sqrt( static_cast<TReal>(1.0) + pRotMatrix.c3 - pRotMatrix.a1 - pRotMatrix.b2) * static_cast<TReal>(2.0);
TReal s = std::sqrt( static_cast<TReal>(1.0) + pRotMatrix.c3 - pRotMatrix.a1 - pRotMatrix.b2) * static_cast<TReal>(2.0);
x = (pRotMatrix.a3 + pRotMatrix.c1) / s;
y = (pRotMatrix.c2 + pRotMatrix.b3) / s;
z = static_cast<TReal>(0.25) * s;
@ -123,12 +123,12 @@ inline aiQuaterniont<TReal>::aiQuaterniont( const aiMatrix3x3t<TReal> &pRotMatri
template<typename TReal>
inline aiQuaterniont<TReal>::aiQuaterniont( TReal fPitch, TReal fYaw, TReal fRoll )
{
const TReal fSinPitch(sin(fPitch*static_cast<TReal>(0.5)));
const TReal fCosPitch(cos(fPitch*static_cast<TReal>(0.5)));
const TReal fSinYaw(sin(fYaw*static_cast<TReal>(0.5)));
const TReal fCosYaw(cos(fYaw*static_cast<TReal>(0.5)));
const TReal fSinRoll(sin(fRoll*static_cast<TReal>(0.5)));
const TReal fCosRoll(cos(fRoll*static_cast<TReal>(0.5)));
const TReal fSinPitch(std::sin(fPitch*static_cast<TReal>(0.5)));
const TReal fCosPitch(std::cos(fPitch*static_cast<TReal>(0.5)));
const TReal fSinYaw(std::sin(fYaw*static_cast<TReal>(0.5)));
const TReal fCosYaw(std::cos(fYaw*static_cast<TReal>(0.5)));
const TReal fSinRoll(std::sin(fRoll*static_cast<TReal>(0.5)));
const TReal fCosRoll(std::cos(fRoll*static_cast<TReal>(0.5)));
const TReal fCosPitchCosYaw(fCosPitch*fCosYaw);
const TReal fSinPitchSinYaw(fSinPitch*fSinYaw);
x = fSinRoll * fCosPitchCosYaw - fCosRoll * fSinPitchSinYaw;
@ -163,8 +163,8 @@ inline aiQuaterniont<TReal>::aiQuaterniont( aiVector3t<TReal> axis, TReal angle)
{
axis.Normalize();
const TReal sin_a = sin( angle / 2 );
const TReal cos_a = cos( angle / 2 );
const TReal sin_a = std::sin( angle / 2 );
const TReal cos_a = std::cos( angle / 2 );
x = axis.x * sin_a;
y = axis.y * sin_a;
z = axis.z * sin_a;
@ -184,7 +184,7 @@ inline aiQuaterniont<TReal>::aiQuaterniont( aiVector3t<TReal> normalized)
if (t < static_cast<TReal>(0.0)) {
w = static_cast<TReal>(0.0);
}
else w = sqrt (t);
else w = std::sqrt (t);
}
// ---------------------------------------------------------------------------
@ -214,10 +214,10 @@ inline void aiQuaterniont<TReal>::Interpolate( aiQuaterniont& pOut, const aiQuat
{
// Standard case (slerp)
TReal omega, sinom;
omega = acos( cosom); // extract theta from dot product's cos theta
sinom = sin( omega);
sclp = sin( (static_cast<TReal>(1.0) - pFactor) * omega) / sinom;
sclq = sin( pFactor * omega) / sinom;
omega = std::acos( cosom); // extract theta from dot product's cos theta
sinom = std::sin( omega);
sclp = std::sin( (static_cast<TReal>(1.0) - pFactor) * omega) / sinom;
sclq = std::sin( pFactor * omega) / sinom;
} else
{
// Very close, do linear interp (because it's faster)
@ -236,7 +236,7 @@ template<typename TReal>
inline aiQuaterniont<TReal>& aiQuaterniont<TReal>::Normalize()
{
// compute the magnitude and divide through it
const TReal mag = sqrt(x*x + y*y + z*z + w*w);
const TReal mag = std::sqrt(x*x + y*y + z*z + w*w);
if (mag)
{
const TReal invMag = static_cast<TReal>(1.0)/mag;

2
include/assimp/types.h
View File

@ -217,7 +217,7 @@ struct aiColor3D
/** Check whether a color is black */
bool IsBlack() const {
static const float epsilon = 10e-3f;
return fabs( r ) < epsilon && fabs( g ) < epsilon && fabs( b ) < epsilon;
return std::fabs( r ) < epsilon && std::fabs( g ) < epsilon && std::fabs( b ) < epsilon;
}
#endif // !__cplusplus

2
include/assimp/vector2.inl
View File

@ -71,7 +71,7 @@ TReal aiVector2t<TReal>::SquareLength() const {
// ------------------------------------------------------------------------------------------------
template <typename TReal>
TReal aiVector2t<TReal>::Length() const {
return ::sqrt( SquareLength());
return std::sqrt( SquareLength());
}
// ------------------------------------------------------------------------------------------------

2
include/assimp/vector3.inl
View File

@ -92,7 +92,7 @@ AI_FORCE_INLINE TReal aiVector3t<TReal>::SquareLength() const {
// ------------------------------------------------------------------------------------------------
template <typename TReal>
AI_FORCE_INLINE TReal aiVector3t<TReal>::Length() const {
return ::sqrt( SquareLength());
return std::sqrt( SquareLength());
}
// ------------------------------------------------------------------------------------------------
template <typename TReal>