}
		}
	}
	if !n.IsInt && !n.IsUint && !n.IsFloat {
		return nil, fmt.Errorf("illegal number syntax: %q", text)
	}
	return n, nil
}

// simplifyComplex pulls out any other types that are represented by the complex number.
// These all require that the imaginary part be zero.
func (n *NumberNode) simplifyComplex() {
	n.IsFloat = imag(n.Complex128) == 0
	if n.IsFloat {
		n.Float64 = real(n.Complex128)

    public val KaType.isByte: Boolean get() = withValidityAssertion { isClassTypeWithClassId(DefaultTypeClassIds.BYTE) }
    public val KaType.isFloat: Boolean get() = withValidityAssertion { isClassTypeWithClassId(DefaultTypeClassIds.FLOAT) }
    public val KaType.isDouble: Boolean get() = withValidityAssertion { isClassTypeWithClassId(DefaultTypeClassIds.DOUBLE) }

		} else if n.IsUint {
			t.Errorf("did not expect unsigned integer for %q", test.text)
		}
		if test.isFloat {
			if !n.IsFloat {
				t.Errorf("expected float for %q", test.text)
			}
			if n.Float64 != test.float64 {
				t.Errorf("float64 for %q should be %g Is %g", test.text, test.float64, n.Float64)
			}
		} else if n.IsFloat {
			t.Errorf("did not expect float for %q", test.text)
		}
		if test.isComplex {

func isUnsigned(t Type) bool       { return isBasic(t, IsUnsigned) }
func isFloat(t Type) bool          { return isBasic(t, IsFloat) }
func isComplex(t Type) bool        { return isBasic(t, IsComplex) }
func isNumeric(t Type) bool        { return isBasic(t, IsNumeric) }
func isString(t Type) bool         { return isBasic(t, IsString) }
func isIntegerOrFloat(t Type) bool { return isBasic(t, IsInteger|IsFloat) }

func isUnsigned(t Type) bool       { return isBasic(t, IsUnsigned) }
func isFloat(t Type) bool          { return isBasic(t, IsFloat) }
func isComplex(t Type) bool        { return isBasic(t, IsComplex) }
func isNumeric(t Type) bool        { return isBasic(t, IsNumeric) }
func isString(t Type) bool         { return isBasic(t, IsString) }
func isIntegerOrFloat(t Type) bool { return isBasic(t, IsInteger|IsFloat) }

func mayCall(n ir.Node) bool {
	// When instrumenting, any expression might require function calls.
	if base.Flag.Cfg.Instrumenting {
		return true
	}

	isSoftFloat := func(typ *types.Type) bool {
		return types.IsFloat[typ.Kind()] || types.IsComplex[typ.Kind()]
	}

	return ir.Any(n, func(n ir.Node) bool {
		// walk should have already moved any Init blocks off of
		// expressions.
		if len(n.Init()) != 0 {

            type.isULong -> KaConstantValue.KaUnsignedLongConstantValue((value as Number).toLong().toULong(), expression)
            type.isString -> KaConstantValue.KaStringConstantValue(value.toString(), expression)
            type.isFloat -> KaConstantValue.KaFloatConstantValue((value as Number).toFloat(), expression)
            type.isDouble -> KaConstantValue.KaDoubleConstantValue((value as Number).toDouble(), expression)
            else -> null
        }

(Store {t} ptr val mem) && t.Size() == 4 && !t.IsFloat() => (MOVWstore ptr val mem)
(Store {t} ptr val mem) && t.Size() == 8 && !t.IsFloat() => (MOVDstore ptr val mem)
(Store {t} ptr val mem) && t.Size() == 4 &&  t.IsFloat() => (FMOVWstore ptr val mem)
(Store {t} ptr val mem) && t.Size() == 8 &&  t.IsFloat() => (FMOVDstore ptr val mem)

          BuildVhloStringV1Attr(value.AsString().str(), builder));
    } else if (value.IsInt()) {
      mlir_vector.push_back(BuildVhloIntV1Attr(value.AsInt64(), builder));
    } else if (value.IsFloat()) {
      mlir_vector.push_back(BuildVhloFloatV1Attr(value.AsFloat(), builder));
    } else if (value.IsVector()) {
      std::vector<mlir::Attribute> nested_mlir_vector =
          BuildAttributeVectorFromFlatbuffer(value.AsVector(), builder);

					f.Fatalf("bad arg 0 to OpLocalAddr %v", v)
				}
				if !v.Args[1].Type.IsMemory() {
					f.Fatalf("bad arg 1 to OpLocalAddr %v", v)
				}
			}

			if f.RegAlloc != nil && f.Config.SoftFloat && v.Type.IsFloat() {
				f.Fatalf("unexpected floating-point type %v", v.LongString())
			}

			// Check types.
			// TODO: more type checks?
			switch c := f.Config; v.Op {
			case OpSP, OpSB: