2020-07-11 19:55:48 +02:00
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#include "test_header.h"
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namespace
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{
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class OpTest_Spin : public ::testing::Test
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{
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protected:
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typedef SpinRF SRF;
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typedef SpinRange SR;
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typedef MultiRangeFactory<SR,SR,SR,SR,SR,SR,SR,SR> SR8F;
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typedef SR8F::oType SR8;
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static const size_t s = 65536;
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OpTest_Spin()
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{
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data.resize(s);
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for(size_t i = 0; i != s; ++i){
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const double arg = static_cast<double>( s - i ) - 0.1;
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data[i] = sin(arg)*10;
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}
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SRF f;
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sr = std::dynamic_pointer_cast<SR>(f.create());
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}
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vector<double> data;
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std::shared_ptr<SR> sr;
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};
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TEST_F(OpTest_Spin, Contract)
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{
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MultiArray<double,SR,SR,SR,SR,SR,SR,SR,SR> ma(sr, sr, sr, sr, sr, sr, sr, sr, data);
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MultiArray<double,SR,SR> res1( sr, sr );
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MultiArray<double,SR,SR> res2( sr, sr );
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auto alpha = MAT::getIndex<SR>();
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auto beta = MAT::getIndex<SR>();
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auto gamma = MAT::getIndex<SR>();
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auto delta = MAT::getIndex<SR>();
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auto deltap = MAT::getIndex<SR>();
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auto mix = MAT::mkMIndex( alpha, beta, gamma );
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std::clock_t begin = std::clock();
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res1(delta, deltap) += ma(delta, alpha, alpha, beta, beta, gamma, gamma, deltap).c(mix);
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2021-01-24 00:10:14 +01:00
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//res1(delta, deltap) += ma(delta, alpha, alpha, beta, beta, gamma, gamma, deltap);
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2020-07-11 19:55:48 +02:00
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std::clock_t end = std::clock();
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std::cout << "MultiArray time: " << static_cast<double>( end - begin ) / CLOCKS_PER_SEC
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<< std::endl;
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res2(delta, deltap).par() += ma(delta, alpha, alpha, beta, beta, gamma, gamma, deltap).c(alpha).c(beta).c(gamma);
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vector<double> vres(4*4);
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std::clock_t begin2 = std::clock();
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for(size_t d = 0; d != 4; ++d){
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for(size_t p = 0; p != 4; ++p){
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const size_t tidx = d*4 + p;
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vres[tidx] = 0.;
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for(size_t a = 0; a != 4; ++a){
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for(size_t b = 0; b != 4; ++b){
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for(size_t c = 0; c != 4; ++c){
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const size_t sidx = d*4*4*4*4*4*4*4 + a*5*4*4*4*4*4 + b*5*4*4*4 + c*5*4 + p;
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vres[tidx] += data[sidx];
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}
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}
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}
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}
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}
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std::clock_t end2 = std::clock();
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EXPECT_EQ( xround(res1.at(mkts(0,0))), xround(vres[0]) );
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EXPECT_EQ( xround(res1.at(mkts(0,1))), xround(vres[1]) );
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EXPECT_EQ( xround(res1.at(mkts(0,2))), xround(vres[2]) );
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EXPECT_EQ( xround(res1.at(mkts(0,3))), xround(vres[3]) );
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EXPECT_EQ( xround(res1.at(mkts(1,0))), xround(vres[4]) );
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EXPECT_EQ( xround(res1.at(mkts(1,1))), xround(vres[5]) );
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EXPECT_EQ( xround(res1.at(mkts(1,2))), xround(vres[6]) );
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EXPECT_EQ( xround(res1.at(mkts(1,3))), xround(vres[7]) );
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EXPECT_EQ( xround(res1.at(mkts(2,0))), xround(vres[8]) );
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EXPECT_EQ( xround(res1.at(mkts(2,1))), xround(vres[9]) );
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EXPECT_EQ( xround(res1.at(mkts(2,2))), xround(vres[10]) );
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EXPECT_EQ( xround(res1.at(mkts(2,3))), xround(vres[11]) );
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EXPECT_EQ( xround(res1.at(mkts(3,0))), xround(vres[12]) );
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EXPECT_EQ( xround(res1.at(mkts(3,1))), xround(vres[13]) );
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EXPECT_EQ( xround(res1.at(mkts(3,2))), xround(vres[14]) );
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EXPECT_EQ( xround(res1.at(mkts(3,3))), xround(vres[15]) );
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EXPECT_EQ( xround(res2.at(mkts(0,0))), xround(vres[0]) );
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EXPECT_EQ( xround(res2.at(mkts(0,1))), xround(vres[1]) );
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EXPECT_EQ( xround(res2.at(mkts(0,2))), xround(vres[2]) );
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EXPECT_EQ( xround(res2.at(mkts(0,3))), xround(vres[3]) );
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EXPECT_EQ( xround(res2.at(mkts(1,0))), xround(vres[4]) );
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EXPECT_EQ( xround(res2.at(mkts(1,1))), xround(vres[5]) );
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EXPECT_EQ( xround(res2.at(mkts(1,2))), xround(vres[6]) );
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EXPECT_EQ( xround(res2.at(mkts(1,3))), xround(vres[7]) );
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EXPECT_EQ( xround(res2.at(mkts(2,0))), xround(vres[8]) );
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EXPECT_EQ( xround(res2.at(mkts(2,1))), xround(vres[9]) );
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EXPECT_EQ( xround(res2.at(mkts(2,2))), xround(vres[10]) );
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EXPECT_EQ( xround(res2.at(mkts(2,3))), xround(vres[11]) );
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EXPECT_EQ( xround(res2.at(mkts(3,0))), xround(vres[12]) );
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EXPECT_EQ( xround(res2.at(mkts(3,1))), xround(vres[13]) );
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EXPECT_EQ( xround(res2.at(mkts(3,2))), xround(vres[14]) );
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EXPECT_EQ( xround(res2.at(mkts(3,3))), xround(vres[15]) );
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std::cout << "vector - for loop time: " << static_cast<double>( end2 - begin2 ) / CLOCKS_PER_SEC
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<< std::endl;
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std::cout << "ratio: " << static_cast<double>( end - begin ) / static_cast<double>( end2 - begin2 ) << std::endl;
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}
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}
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