return tt, nil
					}
					// Even if we fail to find a unique Region, we might have
					// an unambiguous script.
					if goodScript {
						t.ScriptID = tt.ScriptID
					}
				}
			}
		}
	} else {
		// Search matches for und-script.
		if t.ScriptID != 0 {
			x := likelyScript[t.ScriptID]
			if x.region != 0 {
				t.setUndefinedRegion(Region(x.region))
				t.setUndefinedLang(Language(x.lang))

// GetCompactCore generates a uint32 value that is guaranteed to be unique for
// different language, region, and script values.
func GetCompactCore(t Tag) (cci CompactCoreInfo, ok bool) {
	if t.LangID > langNoIndexOffset {
		return 0, false
	}
	cci |= CompactCoreInfo(t.LangID) << (8 + 12)
	cci |= CompactCoreInfo(t.ScriptID) << 12
	cci |= CompactCoreInfo(t.RegionID)
	return cci, true
}

// Tag generates a tag from c.

	return t
}

// SetTag copies all the settings from a given Tag. Any previously set values
// are discarded.
func (b *Builder) SetTag(t Tag) {
	b.Tag.LangID = t.LangID
	b.Tag.RegionID = t.RegionID
	b.Tag.ScriptID = t.ScriptID
	// TODO: optimize
	b.variants = b.variants[:0]
	if variants := t.Variants(); variants != "" {
		for _, vr := range strings.Split(variants[1:], "-") {
			b.variants = append(b.variants, vr)
		}
	}

		// Deal with cases where an extra script is inserted for the region.
		t, _ := t.Maximize()
		if x, ok := getCoreIndex(t); ok {
			return x, exact
		}
	}
	for t = t.Parent(); t != root; t = t.Parent() {
		// No variants specified: just compare core components.
		// The key has the form lllssrrr, where l, s, and r are nibbles for
		// respectively the langID, scriptID, and regionID.
		if x, ok := getCoreIndex(t); ok {

	for _, x := range part {
		switch v := x.(type) {
		case Tag:
			b.SetTag(v.tag())
		case Base:
			b.Tag.LangID = v.langID
		case Script:
			b.Tag.ScriptID = v.scriptID
		case Region:
			b.Tag.RegionID = v.regionID
		case Variant:
			if v.variant == "" {
				err = errInvalidArgument
				break
			}
			b.AddVariant(v.variant)
		case Extension:

File: script.kts

    def "does nothing when there are no init scripts"() {
        given:
        startParameter.allInitScripts >> []

        when:
        handler.executeScripts(gradle)

        then:
        0 * executor._
        0 * processor._
    }

    def "finds and processes init scripts"() {
        File script1 = testDirectoryProvider.createFile("script1.gradle")
        File script2 = testDirectoryProvider.createFile("script2.gradle")

}

// scriptCC runs the C compiler along with platform specific options.
func scriptCC(cmdExec script.Cmd) script.Cmd {
	return script.Command(
		script.CmdUsage{
			Summary: "run the platform C compiler",
			Args:    "args...",
		},
		func(s *script.State, args ...string) (script.WaitFunc, error) {
			b := work.NewBuilder(s.Getwd())
			wait, err := cmdExec.Run(s, append(b.GccCmd(".", ""), args...)...)
			if err != nil {

 * If the compiled script is not found in this cache, it will try to find it in the global cache,
 * which will use the delegate script class compiler in case of a miss. The lookup in this cache is
 * more efficient than looking in the global cache, as we do not check the script's hash code here,
 * assuming that it did not change during the build.
 */

Each init script has a link:{groovyDslPath}/org.gradle.api.invocation.Gradle.html[Gradle] instance associated with it.
Any property reference and method call in the init script will be delegated to this `Gradle` instance.

Each init script implements the link:{groovyDslPath}/org.gradle.api.Script.html[Script] interface.

[NOTE]
====
When writing init scripts, pay attention to the scope of the reference you are trying to access.