//
// This file implements scavenging (the release of physical pages backing mapped
// memory) of free and unused pages in the heap as a way to deal with page-level
// fragmentation and reduce the RSS of Go applications.
//
// Scavenging in Go happens on two fronts: there's the background
// (asynchronous) scavenger and the allocation-time (synchronous) scavenger.
//
// The former happens on a goroutine much like the background sweeper which is

		//
		// Factor out common string and append factored expression to out.
		if i == start {
			// Nothing to do - run of length 0.
		} else if i == start+1 {
			// Just one: don't bother factoring.
			out = append(out, sub[start])
		} else {
			// Construct factored form: prefix(suffix1|suffix2|...)
			prefix := p.newRegexp(OpLiteral)
			prefix.Flags = strflags
			prefix.Rune = append(prefix.Rune[:0], str...)

	if tag != nil {
		for i := len(styp.FieldList) - len(styp.TagList); i > 0; i-- {
			styp.TagList = append(styp.TagList, nil)
		}
		styp.TagList = append(styp.TagList, tag)
	}

	f := new(Field)
	f.pos = pos
	f.Name = name
	f.Type = typ
	styp.FieldList = append(styp.FieldList, f)

	if debug && tag != nil && len(styp.FieldList) != len(styp.TagList) {

	for _, n := range []int64{0, 7, -7, 1 << 30, -1 << 30, 1 << 50, -1 << 50} {
		x := NewInt(3)
		got := testing.AllocsPerRun(100, func() {
			// NewInt should inline, and all its allocations
			// can happen on the stack. Passing the result of NewInt
			// to Add should not cause any of those allocations to escape.
			x.Add(x, NewInt(n))
		})
		if got != 0 {

// the index until the function returns ERROR_NO_MORE_ITEMS, or with
// the index of the last subkey (obtainable from RegQueryInfoKey),
// decrementing until index 0 is enumerated.
//
// Successive calls to this API must happen on the same OS thread,
// so call [runtime.LockOSThread] before calling this function.

	// Data blocks can vary per pool, but parity is same.
	for i, setDriveCount := range z.SetDriveCounts() {
		b.StandardSCData = append(b.StandardSCData, setDriveCount-scParity)
		b.RRSCData = append(b.RRSCData, setDriveCount-rrSCParity)
		b.DrivesPerSet = append(b.DrivesPerSet, setDriveCount)
		b.TotalSets = append(b.TotalSets, z.serverPools[i].setCount)
	}

	b.StandardSCParity = scParity
	b.RRSCParity = rrSCParity
	return
}

    @Override
    public SmbFileOutputStream openOutputStream ( boolean append ) throws SmbException {
        return openOutputStream(append, FILE_SHARE_READ);
    }


    @Override
    public SmbFileOutputStream openOutputStream ( boolean append, int sharing ) throws SmbException {
        return openOutputStream(append, append ? O_CREAT | O_WRONLY | O_APPEND : O_CREAT | O_WRONLY | O_TRUNC, 0, sharing);
    }

                        .execute()
                        .components
                        .each {
                            // trigger file access for verification to happen
                            it.getArtifacts(SourcesArtifact)*.file
                            it.getArtifacts(JavadocArtifact)*.file
                        }
                }
            }
        """

				x.mode = invalid
				return
			}
			// The lhs is representable as an integer but may not be an integer
			// (e.g., 2.0, an untyped float) - this can only happen for untyped
			// non-integer numeric constants. Correct the type so that the shift
			// result is of integer type.
			if !isInteger(x.typ) {
				x.typ = Typ[UntypedInt]
			}

Such a failure indicates that a **dependency may have been compromised**.
At this stage, you **must** perform manual verification and check what happens.
Several things can happen:

* a dependency was tampered in the local dependency cache of Gradle.
This is usually harmless: erase the file from the cache and Gradle would redownload the dependency.