import org.gradle.api.tasks.compile.JavaCompile;
import org.gradle.internal.component.external.model.ImmutableCapabilities;

import javax.annotation.Nullable;

/**
 * A Jvm Feature wraps a source set to encapsulate the logic and domain objects required to
 * implement a feature of a JVM component. Features are used to model constructs like
 * production libraries, test suites, test fixtures, applications, etc. While features are not

                // Write the license and the source code to the file
                file.text = licenseText + '\n' + content
            }
        }
    }
}
----
=====

The `LicenseTask` class encapsulates the task action logic and declares any inputs and outputs the task expects.

The task action is annotated with `@TaskAction`.
Inside, the logic first finds a file called "license.txt".

// Copyright 2015 The Go Authors. All rights reserved.
// Use of this source code is governed by a BSD-style
// license that can be found in the LICENSE file.

// This file encapsulates some of the odd characteristics of the ARM
// instruction set, to minimize its interaction with the core of the
// assembler.

package arch

import (
	"strings"

	"cmd/internal/obj"
	"cmd/internal/obj/arm"
)

var armLS = map[string]uint8{

// license that can be found in the LICENSE file.

package pods

import (
	"cmp"
	"fmt"
	"internal/coverage"
	"os"
	"path/filepath"
	"regexp"
	"slices"
	"strconv"
	"strings"
)

// Pod encapsulates a set of files emitted during the executions of a
// coverage-instrumented binary. Each pod contains a single meta-data
// file, and then 0 or more counter data files that refer to that

	- server.Shutdown is called, the HTTP Server stops listening immediately
    - the HTTP Server waits gracefully for existing requests to complete
      up to '2s' (it's hard coded right now)
*/

// lifecycleSignal encapsulates a named apiserver event
type lifecycleSignal interface {
	// Signal signals the event, indicating that the event has occurred.
	// Signal is idempotent, once signaled the event stays signaled and

    fun systemPropertiesCleared() = mode.toTrackingMode().systemPropertiesCleared()

    private
    inner class ModeHolder {
        // ModeHolder encapsulates concurrent mode updates.
        private
        var mode: TrackerMode = Initial()

        private
        inline fun <T : TrackerMode> setMode(transition: (TrackerMode) -> T): T {
            synchronized(this) {

// prefer a struct as input.
func NewController(cl kube.Client) *Controller {
	c := &Controller{events: atomic.NewInt32(0)}
	// For each thing we watch, build a typed `client`. This encapsulates a variety of complex logic
	// that would otherwise need to be dealt with manually with Informers and Listers.
	// In general, you should *not* ever do a direct List or Get call to the api-server.

type localLockInstance struct {
	ns     *nsLockMap
	volume string
	paths  []string
	opsID  string
}

// NewNSLock - returns a lock instance for a given volume and
// path. The returned lockInstance object encapsulates the nsLockMap,
// volume, path and operation ID.
func (n *nsLockMap) NewNSLock(lockers func() ([]dsync.NetLocker, string), volume string, paths ...string) RWLocker {
	opsID := mustGetUUID()
	if n.isDistErasure {

package script

import (
	"bytes"
	"context"
	"fmt"
	"internal/txtar"
	"io"
	"io/fs"
	"os"
	"os/exec"
	"path/filepath"
	"regexp"
	"strings"
)

// A State encapsulates the current state of a running script engine,
// including the script environment and any running background commands.
type State struct {
	engine *Engine // the engine currently executing the script, if any

	// maps function to index in slice above (index acts as function ID)
	funcTable map[fnfile]uint32

	// A table storing coverage counts for each coverable unit.
	unitTable map[extcu]uint32
}

// extcu encapsulates a coverable unit within some function.
type extcu struct {
	fnfid uint32 // index into p.funcs slice
	coverage.CoverableUnit
}

// fnfile is a function-name/file-name tuple.
type fnfile struct {
	file  string