_WAIT_TIMEOUT   = 0x00000102
		_WAIT_FAILED    = 0xFFFFFFFF
	)

	var result uintptr
	if ns < 0 {
		result = stdcall2(_WaitForSingleObject, getg().m.waitsema, uintptr(_INFINITE))
	} else {
		start := nanotime()
		elapsed := int64(0)
		for {
			ms := int64(timediv(ns-elapsed, 1000000, nil))
			if ms == 0 {
				ms = 1
			}
			result = stdcall4(_WaitForMultipleObjects, 2,

func (s *socketsFirst) sortAvailableNUMANodes() []int {
	var result []int
	for _, socket := range s.sortAvailableSockets() {
		numas := s.acc.details.NUMANodesInSockets(socket).UnsortedList()
		s.acc.sort(numas, s.acc.details.CPUsInNUMANodes)
		result = append(result, numas...)
	}
	return result
}

// If sockets are higher in the memory hierarchy than NUMA nodes, then just
// sort the sockets directly, and return them.

== Finding out more about your project

Gradle provides a report that you can run from the command-line that shows some details about the components and binaries that your project produces. To use this report, just run `gradle components`. Below is an example of running this report for one of the sample projects:

=== Example: The components report

.Output of **`gradle components`**
----
> gradle components

/**
 * A file based report to be created.
 * <p>
 * Tasks that produce reports expose instances of this type for configuration via the {@link Reporting} interface.
 */
public interface Report extends Configurable<Report> {

    Namer<Report> NAMER = new Namer<Report>() {
        @Override
        public String determineName(Report report) {
            return report.getName();
        }
    };

    /**

** It is preferable to use <<composite_builds.adoc#composite_builds, composite builds>> for this use case
** If for some reason neither composite builds nor full featured repository are possible, then `mavenLocal()` is a last resort option

After all these warnings, if you end up using `mavenLocal()`, consider combining it with <<#sec:repository-content-filtering,a repository filter>>.
This will make sure it only provides what is expected and nothing else.

You might also find that you can <<migmvn:unnecessary_plugins,replace a plugin with built-in Gradle functionality>>.
As a last resort, you may need to reimplement a Maven plugin <<migmvn:custom_plugins,via your own custom plugins and task types>>.
+
The rest of this chapter looks in more detail at specific aspects of migrating a build from Maven to Gradle.

[[migmvn:build_lifecycle]]
== Understanding the build lifecycle

	// ev.Args[2] earlier, because it would produce seemingly broken timestamps
	// (misplaced event). We also can't simply update the timestamp and resort
	// events, because if timestamps are broken we will misplace the event and
	// later report logically broken trace (instead of reporting broken
	// timestamps).
	lastSysBlock := make(map[uint64]Timestamp)
	for i := 0; i < events.Len(); i++ {
		ev := events.Ptr(i)

  // Returns a human-readable string representation of this report.
  std::string ToString() const;

  // Prints a human-readable report to stdout.
  void Print() const;

  // Saves the report to `file_path`. The textproto representation of
  // `QuantizationResults` will be written to the file. Returns non-ok status
  // when the file write fails.
  absl::Status Save(StringRef file_path) const;

 private:

		return total / div
	}
	return total
}

// Report contains the data and associated routines to extract a
// report from a profile.
type Report struct {
	prof        *profile.Profile
	total       int64
	options     *Options
	formatValue func(int64) string
}

// Total returns the total number of samples in a report.
func (rpt *Report) Total() int64 { return rpt.total }

package distribution

import (
	"gopkg.in/yaml.v2"
)

type Report struct {
	Reporter            string         `json:"reporter"`
	DataPlaneCount      int            `json:"dataPlaneCount"`
	InProgressResources map[string]int `json:"inProgressResources"`
}

func ReportFromYaml(content []byte) (Report, error) {
	out := Report{}
	err := yaml.Unmarshal(content, &out)
	return out, err