Function test_dc_Amplitude_encoding

test/QAlg/Encode.test.cpp:220–244

	return true;
}
static bool test_dc_Amplitude_encoding()
{
	auto qvm = new CPUQVM();
	qvm->init();
	//std::vector<double>data{ -0.33164128327780906,-0.23433373435840027,-0.00022877626650846954,0.3466895582845477,0.36968371696590785,-0.21966111818142703,-0.28122454968118343,0.2954805505078439,0.2060812114310625,0.28816304973225565,0.13470785340813266,0.06207383012753573,-0.14157790059772607,0.15044744783305566,-0.28050173370498876,-0.3077795693383025 };
	std::vector<double>data{ 0.15311858100051695,-0.0961350374871273,0.3859320687001368,-0.5634457467385428,0.1474901012487757,-0.45185782723129864,0.32284355187278985,-0.4132085412578166 };
	QProg prog;
	auto q = qvm->qAllocMany(15);
	Encode encode_b;
	encode_b.dc_amplitude_encode(q, data);
	prog << encode_b.get_circuit() << BARRIER(q);
	QVec out_qubits = encode_b.get_out_qubits();
	auto result = qvm->probRunDict(prog, out_qubits, -1);
	int k = 0;
	//auto normalization_constant = encode_b.get_normalization_constant();
	for (auto &val : result)
	{
		double temp = k >= (int)data.size() ? 0 : data[k];
		std::cout << val.second << endl;
		std::cout << val.first << ":" << val.second << std::endl;
		++k;
	}
	destroyQuantumMachine(qvm);
	return true;
}
static bool test_schmidt_encoding()
{
	auto qvm = new CPUQVM();