// ToIntegral returns the value of a rounded to an integral value.
//
// The representation of a number is:
//
// (-1)^sign coefficient * 10^exponent
// where coefficient is an integer storing 34 digits.
//
// - If exponent < 0, the least significant digits are discarded, so that new exponent becomes 0.
// Internally, it calls Quantize(a, 1E0) with specified rounding.
// - If exponent >= 0, the number remains unchanged.
//
// E.g. 12.345678e2 is 12345678E-4 --> 1235E0
// 123e5 is 123E5 remains 123E5
//
// See also Round, RoundMode and Truncate methods, which are easier to use.
//
func (context *Context) ToIntegral(a Quad, rounding RoundingMode) (r Quad) {
var result C.Ret_decQuad_t
assert_sane(context)
result = C.mdq_to_integral(a.val, context.set, C.int(rounding))
context.set = result.set
return Quad{val: result.val}
}
// ToIntegral returns the value of a rounded to an integral value.
//
// The representation of a number is:
//
// (-1)^sign coefficient * 10^exponent
// where coefficient is an integer storing 34 digits.
//
// - If exponent < 0, the least significant digits are discarded, so that new exponent becomes 0.
// Internally, it calls Quantize(a, 1E0) with specified rounding.
// - If exponent >= 0, the number remains unchanged.
//
// E.g. 12.345678e2 is 12345678E-4 --> 1235E0
// 123e5 is 123E5 remains 123E5
//
// See also Round, RoundMode and Truncate methods, which are more convenient to use.
//
func (a Quad) ToIntegral(rounding RoundingMode) Quad {
return Quad(C.mdq_to_integral(C.struct_Quad(a), C.int(rounding)))
}