return
		}
		defer gz.Close()
		out = gz
	}
	nlq.Copy(out)
}

// nodeLogQuery encapsulates the log query request
type nodeLogQuery struct {
	// Services are the list of services to be queried
	Services []string
	// Files are the list of files
	Files []string
	options
}

// options encapsulates the query options for services
type options struct {

== Convention Plugins

Convention plugins are a way to encapsulate and reuse common build logic in Gradle.
They allow you to define a set of conventions for a project, and then apply those conventions to other projects or modules.

type Dir struct {
	dir, local, upload, debug, modefile string
}

// NewDir creates a new Dir encapsulating paths in the given dir.
//
// NewDir does not create any new directories or files--it merely encapsulates
// the telemetry directory layout.
func NewDir(dir string) Dir {
	return Dir{
		dir:      dir,
		local:    filepath.Join(dir, "local"),
		upload:   filepath.Join(dir, "upload"),

[[custom_plugins]]
= Understanding Plugins

Gradle comes with a set of powerful core systems such as dependency management, task execution, and project configuration.
But everything else it can do is supplied by plugins.

Plugins encapsulate logic for specific tasks or integrations, such as compiling code, running tests, or deploying artifacts.
By applying plugins, users can easily add new features to their build process without having to write complex code from scratch.

	Reset() error
	// Headers returns the headers used to create the stream.
	Headers() http.Header
	// Identifier returns the stream's ID.
	Identifier() uint32
}

// UpgradeFailureError encapsulates the cause for why the streaming
// upgrade request failed. Implements error interface.
type UpgradeFailureError struct {
	Cause error
}

func (u *UpgradeFailureError) Error() string {

    // <plugin/> block in a Maven POM. We have to do some wiggling to pull the sources of information
    // together and this really shows the problem of constructing a sensible default configuration but
    // it's all encapsulated here so it appears normalized to the POM builder.

    // We are going to take the project packaging and find all plugins in the default lifecycle and create

}

func encodeSize(b []byte, size uint32) int {
	if size > 127 {
		size |= 1 << 31
		binary.BigEndian.PutUint32(b, size)
		return 4
	}
	b[0] = byte(size)
	return 1
}

// bufWriter encapsulates bufio.Writer but also closes the underlying stream when
// Closed.
type bufWriter struct {
	closer io.Closer
	*bufio.Writer
}

func (w *bufWriter) Close() error {

// stored in node attribute `kXlaInferredShapesAttrName`.
//
// We have to perform shape inference before encapsulation because after
// encapsulation, some nodes will be encapsulated into function call, and shape
// inference does not handle function call at the moment.
Status PerformStaticShapeInferenceBeforeEncapsulation(Graph* g);

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

// 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