type.isUShort -> KaConstantValue.KaUnsignedShortConstantValue((value as Number).toShort().toUShort(), expression)
            type.isInt -> KaConstantValue.KaIntConstantValue((value as Number).toInt(), expression)
            type.isUInt -> KaConstantValue.KaUnsignedIntConstantValue((value as Number).toInt().toUInt(), expression)

    } else if (value.IsString()) {
      mlir_vector.push_back(
          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()) {

                type.classId
            )
            // expanded to `actual` `typealias`
            val expandedType = type.fullyExpandedType
            Assertions.assertTrue(expandedType.isInt)
        }

        // Test stdlib-common: @JvmInline in the common module
        val actualClass = ktFile.findDescendantOfType<KtClassOrObject>()!!

            'some.new.thing',
            'my.package',
            '2rt9.thing',
            'a.class.of.mine',
            'if.twice.then.double',
            'custom.for.stuff',
            'th-is.isnt.legal',
            'nor.is.-.this',
            'nor.is._.this',
        ]
    }

    def "should allow unusual but valid package name: #validPackageName"() {
        given:

func (x *Float) Signbit() bool {
	return x.neg
}

// IsInf reports whether x is +Inf or -Inf.
func (x *Float) IsInf() bool {
	return x.form == inf
}

// IsInt reports whether x is an integer.
// ±Inf values are not integers.
func (x *Float) IsInt() bool {
	if debugFloat {
		x.validate()
	}
	// special cases
	if x.form != finite {
		return x.form == zero
	}
	// x.form == finite
	if x.exp <= 0 {

	case constant.IsFloat &&
		!isHexInt(constant.Text) && !isRuneInt(constant.Text) &&
		strings.ContainsAny(constant.Text, ".eEpP"):
		return reflect.ValueOf(constant.Float64)

	case constant.IsInt:
		n := int(constant.Int64)
		if int64(n) != constant.Int64 {
			s.errorf("%s overflows int", constant.Text)
		}
		return reflect.ValueOf(n)

	case constant.IsUint:

		"0.000000001e+9 int",
		"1.2345e200 int",
		"Inf",
		"+Inf",
		"-Inf",
	} {
		s := strings.TrimSuffix(test, " int")
		want := s != test
		if got := makeFloat(s).IsInt(); got != want {
			t.Errorf("%s.IsInt() == %t", s, got)
		}
	}
}

func fromBinary(s string) int64 {
	x, err := strconv.ParseInt(s, 2, 64)
	if err != nil {
		panic(err)
	}
	return x
}

		n.X = o.expr(n.X, nil)

		orderBody := true
		xt := typecheck.RangeExprType(n.X.Type())
		switch k := xt.Kind(); {
		default:
			base.Fatalf("order.stmt range %v", n.Type())

		case types.IsInt[k]:
			// Used only once, no need to copy.

		case k == types.TARRAY, k == types.TSLICE:
			if n.Value == nil || ir.IsBlank(n.Value) {
				// for i := range x will only use x once, to compute len(x).

		t.SetHasShape(true)
	}
	for _, f := range fields {
		if f.Type.NotInHeap() {
			t.SetNotInHeap(true)
			break
		}
	}

	return t
}

var (
	IsInt     [NTYPE]bool
	IsFloat   [NTYPE]bool
	IsComplex [NTYPE]bool
	IsSimple  [NTYPE]bool
)

var IsOrdered [NTYPE]bool

// IsReflexive reports whether t has a reflexive equality operator.

		{"(*Float).GobDecode", Method, 7},
		{"(*Float).GobEncode", Method, 7},
		{"(*Float).Int", Method, 5},
		{"(*Float).Int64", Method, 5},
		{"(*Float).IsInf", Method, 5},
		{"(*Float).IsInt", Method, 5},
		{"(*Float).MantExp", Method, 5},
		{"(*Float).MarshalText", Method, 6},
		{"(*Float).MinPrec", Method, 5},
		{"(*Float).Mode", Method, 5},
		{"(*Float).Mul", Method, 5},