}

    private JavaForkOptions javaForkOptions(String minHeap, String maxHeap, List<String> jvmArgs) {
        def options = TestFiles.execFactory().newJavaForkOptions()
        options.workingDir = systemSpecificAbsolutePath("foo")
        options.minHeapSize = minHeap
        options.maxHeapSize = maxHeap
        options.jvmArgs = jvmArgs
        return options
    }

                ? "The daemon will restart for the next build, which may increase subsequent build times"
                : "The memory settings for this project must be adjusted to avoid this failure";

            String maxHeap = heapStats.isValid() ? NumberUtil.formatBytes(heapStats.getMaxSizeInBytes()) : "unknown";
            String maxMetaspace = nonHeapStats.isValid() ? NumberUtil.formatBytes(nonHeapStats.getMaxSizeInBytes()) : "unknown";

		b.WriteString(`\x{`)
		b.WriteString(strconv.FormatInt(int64(r), 16))
		b.WriteString(`}`)
	}
}

// MaxCap walks the regexp to find the maximum capture index.
func (re *Regexp) MaxCap() int {
	m := 0
	if re.Op == OpCapture {
		m = re.Cap
	}
	for _, sub := range re.Sub {
		if n := sub.MaxCap(); m < n {
			m = n
		}
	}
	return m
}

 * declared in the POM.
 *
 */
public class ProjectModelResolver implements ModelResolver {

    private static final int MAX_CAP = 0x7fff;

    private final RepositorySystemSession session;

    private final RequestTrace trace;

    private final String context = "project";

    private List<RemoteRepository> repositories;

    new File(projectDirectory, "gradle.properties") << "\norg.gradle.workers.max=${maxWorkers}\n"

}

private void setMaxHeap(File projectDirectory, String maxHeap) {
    new File(projectDirectory, "gradle.properties") << "\norg.gradle.jvmargs=-Xmx${maxHeap}\n"

}

private void setParallel(File projectDirectory, boolean parallel) {
    new File(projectDirectory, "gradle.properties") << "\norg.gradle.parallel=${parallel}\n"

			}
		})
	}

}

func TestInsertGrowthRate(t *testing.T) {
	b := make([]byte, 1)
	maxCap := cap(b)
	nGrow := 0
	const N = 1e6
	for i := 0; i < N; i++ {
		b = Insert(b, len(b)-1, 0)
		if cap(b) > maxCap {
			maxCap = cap(b)
			nGrow++
		}
	}
	want := int(math.Log(N) / math.Log(1.25)) // 1.25 == growth rate for large slices
	if nGrow > want {

      - stringXbytes
      - switchTrue
      - typeAssertChain
      - typeSwitchVar
      - typeUnparen
      - underef
      - unlambda
      - unnecessaryBlock
      - unslice
      - valSwap
      - weakCond
  depguard:
    rules:
      DenyGogoProtobuf:
        files:
          - $all
        deny:
          - pkg: github.com/gogo/protobuf

const (
	// profile types
	memProfile bucketType = 1 + iota
	blockProfile
	mutexProfile

	// size of bucket hash table
	buckHashSize = 179999

	// maxSkip is to account for deferred inline expansion
	// when using frame pointer unwinding. We record the stack
	// with "physical" frame pointers but handle skipping "logical"
	// frames at some point after collecting the stack. So

	{obj.AXXX, C_NONE, C_NONE, C_NONE, C_NONE, C_NONE, 0, 4, 0, 0},
}

var atomicInst = map[obj.As]uint32{
	AAMSWAPB:   0x070B8 << 15, // amswap.b
	AAMSWAPH:   0x070B9 << 15, // amswap.h
	AAMSWAPW:   0x070C0 << 15, // amswap.w
	AAMSWAPV:   0x070C1 << 15, // amswap.d
	AAMCASB:    0x070B0 << 15, // amcas.b
	AAMCASH:    0x070B1 << 15, // amcas.h
	AAMCASW:    0x070B2 << 15, // amcas.w
	AAMCASV:    0x070B3 << 15, // amcas.d

	// defer inline frame expansion until the profile is reported.
	// The "maxSkip" term is for frame pointer unwinding, where we
	// want to end up with debug.profstackdebth frames but will discard
	// some "physical" frames to account for skipping.
	return make([]uintptr, 1+maxSkip+debug.profstackdepth)
}

// makeProfStack returns a buffer large enough to hold a maximum-sized stack
// trace.