int main() { int a1[] = {0, 1, 2, 3, 4, 5, 6, 7, 8, 9, 10, 11, 12, 13, 14, 15}; const std::size_t N1 = sizeof(a1)/sizeof(a1[0]); bool b1[N1] = {true, false, false, true, true, false, false, true, false, false, false, true}; int a2[] = {-1, -2, -3, -4, -5, -6, -7, -8}; const std::size_t N2 = sizeof(a2)/sizeof(a2[0]); bool b2[N2] = {true, false, true, true, false, false, true, true}; std::valarray<int> v1(a1, N1); const std::valarray<int> v2(a2, N2); std::valarray<bool> vb1(b1, N1); std::valarray<bool> vb2(b2, N2); v1[vb1] = v2[vb2]; assert(v1.size() == 16); assert(v1[ 0] == -1); assert(v1[ 1] == 1); assert(v1[ 2] == 2); assert(v1[ 3] == -3); assert(v1[ 4] == -4); assert(v1[ 5] == 5); assert(v1[ 6] == 6); assert(v1[ 7] == -7); assert(v1[ 8] == 8); assert(v1[ 9] == 9); assert(v1[10] == 10); assert(v1[11] == -8); assert(v1[12] == 12); assert(v1[13] == 13); assert(v1[14] == 14); assert(v1[15] == 15); }
void CRectangle::getchargeL() { ptbegin.clear(); ptend.clear(); CVector v1=ptsEnd; CVector vrx;vrx.getcoorx(); CVector vry;vry.getcoory(); CVector vrz;vrz.getcoorz(); CVector vro;vro.getcooro(); CVector v2=ptbvir.back(); CVector v3=v1-v2; vrx=vrx*(v3.dot(vrx)); vry=vry*(v3.dot(vry)); CVector v3x=v2+vrx; CVector v3y=v2+vry;//(v3.dot(vry)); CVector e=v3x+vry;//(v3.dot(vry)); CVector ve1(v1.x,v2.y); CVector vb1(v2.x,v1.y); CPoint p11(ptsEnd); CPoint p22(ptsBegin); CVector vp11(p11.x,p11.y); ptbegin.push_back(v2); ptbegin.push_back(v3x);//p1); ptbegin.push_back(e);//ptevir.back()); ptbegin.push_back(v3y);//p3); ptend.push_back(v3x);//p1); ptend.push_back(e);//ptevir.back()); ptend.push_back(v3y);//p3); ptend.push_back(v2); // bez=new CBezier(this); updatecore(); }
bool CRectangle::getCharge() { if (cancharge) { ptbegin.clear(); ptend.clear(); CVector v1=ptevir.back(); CVector vrx;vrx.getcoorx(); CVector vry;vry.getcoory(); CVector vrz;vrz.getcoorz(); CVector vro;vro.getcooro(); CVector v2=ptbvir.back(); CVector v3=v1-v2; vrx=vrx*(v3.dot(vrx)); vry=vry*(v3.dot(vry)); CVector v3x=v2+vrx; CVector v3y=v2+vry;//(v3.dot(vry)); CVector e=v3x+vry;//(v3.dot(vry)); CVector ve1(v1.x,v2.y); CVector vb1(v2.x,v1.y); CPoint p11(ptevir.back()); CPoint p22(ptbvir.back()); CVector vp11(p11.x,p11.y); ptbegin.push_back(v2); ptbegin.push_back(v3x);//p1); ptbegin.push_back(e);//ptevir.back()); ptbegin.push_back(v3y);//p3); ptend.push_back(v3x);//p1); ptend.push_back(e);//ptevir.back()); ptend.push_back(v3y);//p3); ptend.push_back(v2); // updatecore(); box.empty(); box.add(v2); box.add(v3x); box.add(e); box.add(v3y); mesh.empty(); CVector uv=box.getParam(ptbegin[0]); mesh.addVertex(new CVertex(ptbegin[0],uv.x,uv.y)); uv=box.getParam(ptbegin[1]); mesh.addVertex(new CVertex(ptbegin[1],uv.x,uv.y)); new CEdge(mesh.Vertex(mesh.Vcount()-2),mesh.Vertex(mesh.Vcount()-1),mesh.Ecount()); uv=box.getParam(ptbegin[2]); mesh.addVertex(new CVertex(ptbegin[2],uv.x,uv.y)); new CEdge(mesh.Vertex(mesh.Vcount()-2),mesh.Vertex(mesh.Vcount()-1),mesh.Ecount()); uv=box.getParam(ptbegin[3]); mesh.addVertex(new CVertex(ptbegin[3],uv.x,uv.y)); new CEdge(mesh.Vertex(mesh.Vcount()-2),mesh.Vertex(mesh.Vcount()-1),mesh.Ecount()); new CEdge(mesh.Vertex(mesh.Vcount()-1),mesh.Vertex(mesh.Vcount()-4),mesh.Ecount()); // bez=new CBezier(this); return cancharge; } else { return false; } }
TEST(SharedValueTest, value) { // bool Value vb = false; EXPECT_EQ(vb.as<bool>(), false); EXPECT_EQ(bool(vb), false); EXPECT_EQ(static_cast<bool>(vb), false); EXPECT_NO_THROW(bool b = vb); Value vb1(false); Value vb2(true); EXPECT_EQ(bool(vb1), false); EXPECT_EQ(bool(vb2), true); bool b = vb; EXPECT_EQ(b, false); EXPECT_NO_THROW(vb = true); EXPECT_EQ(vb.as<bool>(), true); EXPECT_EQ(bool(vb), true); EXPECT_EQ(static_cast<bool>(vb), true); b = vb; EXPECT_EQ(b, true); // float Value vf = 1 / 3.; EXPECT_EQ(vf.as<float>(), 1 / 3.f); EXPECT_EQ(float(vf), 1 / 3.f); EXPECT_EQ(static_cast<float>(vf), 1 / 3.f); EXPECT_EQ(vf.as<double>(), 1 / 3.f); EXPECT_EQ(double(vf), 1 / 3.f); EXPECT_EQ(static_cast<double>(vf), 1 / 3.f); Value vf2(1.0 / 7); Value vf3(1 / 8.f); Value vf4(vf3); EXPECT_EQ(float(vf2), 1.f / 7); EXPECT_EQ(float(vf3), 1.f / 8); EXPECT_EQ(float(vf4), 1.f / 8); EXPECT_NO_THROW(vf = 1 / 7.f); EXPECT_NO_THROW(float f = vf); EXPECT_NO_THROW(double d = vf); float f = vf; double d = vf; EXPECT_EQ(f, 1 / 7.f); EXPECT_EQ(d, 1 / 7.f); EXPECT_NO_THROW(vf = 14.245f); EXPECT_EQ(float(vf), 14.245f); EXPECT_EQ(double(vf), 14.245f); EXPECT_EQ(double(vf), double(14.245f)); EXPECT_NE(double(vf), double(14.245)); EXPECT_TRUE(float(vf) == float(14.245)); // int Value vi = -56; EXPECT_EQ(vi.as<int>(), -56); EXPECT_EQ(int(vi), -56); EXPECT_EQ(static_cast<int>(vi), -56); EXPECT_NO_THROW(int i = vi); Value vi2(32); Value vi3(3530454); Value vi4(0xFF1110u); EXPECT_EQ(int(vi2), 32); EXPECT_EQ(int(vi3), 3530454); EXPECT_EQ(unsigned(vi4), 0xFF1110u); int i = vi; EXPECT_EQ(i, -56); EXPECT_NO_THROW(vi = 17); EXPECT_EQ(int(vi), 17); EXPECT_EQ(char(vi), 17); EXPECT_EQ(short(vi), 17); EXPECT_EQ(unsigned(vi), 17u); // pointer int test = 1; int test2 = 2; EXPECT_NO_THROW(Value vp(&test)); Value vp(static_cast<void*>(&test)); EXPECT_NO_THROW(const void* p = vp); const void* p = vp; EXPECT_EQ(static_cast<const void*>(vp), &test); EXPECT_ANY_THROW(vp = &test2); EXPECT_NO_THROW(vp = static_cast<const void *>(&test2)); EXPECT_EQ(static_cast<const void*>(vp), &test2); }