return k.setStringValue(name, SZ, value)
}

// SetExpandStringValue sets the data and type of a name value
// under key k to value and EXPAND_SZ. The value must not contain a zero byte.
func (k Key) SetExpandStringValue(name, value string) error {
	return k.setStringValue(name, EXPAND_SZ, value)
}

// SetStringsValue sets the data and type of a name value

package trace

import "fmt"

// Value is a dynamically-typed value obtained from a trace.
type Value struct {
	kind   ValueKind
	scalar uint64
}

// ValueKind is the type of a dynamically-typed value from a trace.
type ValueKind uint8

const (
	ValueBad ValueKind = iota
	ValueUint64
)

// Kind returns the ValueKind of the value.
//
// It represents the underlying structure of the value.

func (v Value) CanAddr() bool {
	return v.flag&flagAddr != 0
}

// CanSet reports whether the value of v can be changed.
// A [Value] can be changed only if it is addressable and was not
// obtained by the use of unexported struct fields.
// If CanSet returns false, calling [Value.Set] or any type-specific
// setter (e.g., [Value.SetBool], [Value.SetInt]) will panic.
func (v Value) CanSet() bool {

        Property<String> testProvider = new DefaultProperty<>(Mock(PropertyHost), String).convention("lazy value")
        container.attributeProvider(testAttr, testProvider)

        when: "adding a set value testAttr"
        container.attribute(testAttr, "set value")

        then: "the set value should be retrievable"
        "set value" == container.getAttribute(testAttr)
    }

  using const_iterator = TU::const_iterator;
  TU values_;

 public:
  TU::iterator begin() { return values_.begin(); }
  TU::iterator end() { return values_.end(); }
  TU::const_iterator begin() const { return values_.begin(); }
  TU::const_iterator end() const { return values_.end(); }
  const TU::value_type& operator[](size_t i) const { return values_[i]; }
  TU::value_type& operator[](size_t i) { return values_[i]; }

// Using == on two Values does not compare the underlying values
// they represent.
type Value struct {
	// typ_ holds the type of the value represented by a Value.
	// Access using the typ method to avoid escape of v.
	typ_ *abi.Type

	// Pointer-valued data or, if flagIndir is set, pointer to data.
	// Valid when either flagIndir is set or typ.pointers() is true.
	ptr unsafe.Pointer

	// flag holds metadata about the value.

// StringValue returns a new [Value] for a string.
func StringValue(value string) Value {
	return Value{num: uint64(len(value)), any: stringptr(unsafe.StringData(value))}
}

// IntValue returns a [Value] for an int.
func IntValue(v int) Value {
	return Int64Value(int64(v))
}

// Int64Value returns a [Value] for an int64.
func Int64Value(v int64) Value {
	return Value{num: uint64(v), any: KindInt64}
}

	components := make([]int, len(bytes)+1)

	// The first varint is 40*value1 + value2:
	// According to this packing, value1 can take the values 0, 1 and 2 only.
	// When value1 = 0 or value1 = 1, then value2 is <= 39. When value1 = 2,
	// then there are no restrictions on value2.
	var v int
	if !bytes.readBase128Int(&v) {
		return false
	}
	if v < 80 {
		components[0] = v / 40

		return p
	}
	return ""
}

// Tags - a rule can either have tag under <filter></filter> or under
// <filter><and></and></filter>. This method returns all the tags from the
// rule in the format tag1=value1&tag2=value2
func (r Rule) Tags() string {
	if !r.Filter.Tag.IsEmpty() {
		return r.Filter.Tag.String()
	}
	if len(r.Filter.And.Tags) != 0 {
		var buf bytes.Buffer
		for _, t := range r.Filter.And.Tags {

                + "<property combine.id='TOOVERWRITE'><name>TOOVERWRITE</name><value>LHS</value></property>"
                + "</props>";

        String rhs = "<props>" + "<property combine.id='RHS-ONLY'><name>RHS-ONLY</name><value>RHS</value></property>"
                + "<property combine.id='TOOVERWRITE'><name>TOOVERWRITE</name><value>RHS</value></property>"