dcomplex pl_base1_triT<tiny_cpx<T> >::atan(value_type x)
{
#if _MSC_VER>1600
return std::atan(k(x));
#else
dcomplex _tmp =pl_log::g(dcomplex(1.0+x.imag(),-x.real()))-pl_log::g(dcomplex(1.0-x.imag(),x.real()));
return dcomplex(-0.5*_tmp.imag(),0.5*_tmp.real());
#endif
}
dcomplex pl_base1_triT<tiny_cpx<T> >::asin(value_type x)
{
#if _MSC_VER>1600
return std::asin(k(x));
#else
dcomplex _tmp=pl_log::g(dcomplex(-x.imag(),x.real())+pl_sqrt::g(-pl_pow::g(x,2)+1.0));
return dcomplex(_tmp.imag(),-_tmp.real());
#endif
}
void generate(state &, ostream & stream)
{
// FIXME:
// Generate complex literals?
stream << complex_type_name<T>();
stream << '(';
print_literal(stream, value.real());
stream << ',';
print_literal(stream, value.imag());
stream << ')';
}
static void put(ptr_type ptr, index_type i, value_type v)
{
switch (ptr.format())
{
case array:
*ptr.template as<array>() = v;
break;
case interleaved_complex:
*reinterpret_cast<value_type*>(ptr.template as<interleaved_complex>()) = v;
break;
case split_complex:
{
std::pair<T const*,T const*> p = ptr.template as<split_complex>();
p.first = v.real();
p.second = v.imag();
break;
}
default: assert(0);
}
}
static void put(ptr_type ptr, index_type i, value_type v)
{ ptr.first[i] = v.real(), ptr.second[i] = v.imag();}
static void put(ptr_type ptr, index_type i, value_type v)
{ ptr[2*i] = v.real(), ptr[2*i+1] = v.imag();}
value_type imag(const value_type &a){ return a.imag(); }
