min:  1,
				max:  1, // Even one page would break a huge page in this case.
				want: BitRange{0, PallocChunkPages},
			}
		} else {
			// The huge page size is greater than pallocChunkPages, so it should
			// be effectively disabled. There's no way we can possible scavenge
			// a huge page out of this bitmap chunk.
			tests["PreserveHugePageNone"] = test{
				min:  1,
				max:  1,

            warmUpCount WARMUPS
            invocationCount INVOCATIONS
            displayName(WITHOUT_PLUGIN_LABEL)
            invocation {
                // Increase client VM heap memory because of a huge amount of output events
                clientJvmArgs("-Xmx256m", "-Xms256m")
                args(*jobArgs)
                tasksToRun(*tasks)
                if (withFailure) {
                    expectFailure()

	_ = *bigarrayp  // ERROR "nil check"
	_ = *bigstructp // ERROR "nil check"
	_ = *empty1p    // ERROR "nil check"
}

func fx10k() *[10000]int

var b bool

func f3(x *[10000]int) {
	// Using a huge type and huge offsets so the compiler
	// does not expect the memory hardware to fault.
	_ = x[9999] // ERROR "nil check"

	for {
		if x[9999] != 0 { // ERROR "nil check"
			break
		}
	}

	x = fx10k()

	return core.ResourceName(fmt.Sprintf("%s%s", core.ResourceHugePagesPrefix, pageSize.String()))
}

// HugePageSizeFromResourceName returns the page size for the specified huge page
// resource name.  If the specified input is not a valid huge page resource name
// an error is returned.
func HugePageSizeFromResourceName(name core.ResourceName) (resource.Quantity, error) {
	if !IsHugePageResourceName(name) {

    private final List<File> compilerPluginsClasspath;
    // We use a static cache here because we want to reuse classloaders in compiler workers as
    // it has a huge impact on performance. Previously there was a single, JdkTools.current()
    // instance, but we can have different "compiler plugins" classpath. For this reason we use

container based compute environment. A cloud-native application is portable and resilient by design, and can scale horizontally by simply replicating. Modern orchestration platforms like Kubernetes, DC/OS make replicating and managing containers in huge clusters easier than ever.

While containers provide isolated application execution environment, orchestration platforms allow seamless scaling by helping replicate and manage containers. MinIO extends this by adding isolated storage environment...

//
// This test has to be in internal_test.go since it fiddles with
// unexported data structures.
func CheckRuntimeTimerPeriodOverflow() {
	// We manually create a runtimeTimer with huge period, but that expires
	// immediately. The public Timer interface would require waiting for
	// the entire period before the first update.
	t := newTimer(runtimeNano(), 1<<63-1, empty, nil, nil)
	defer t.Stop()

	_ = *bigstructp // ERROR "generated nil check"
	_ = *empty1p    // ERROR "generated nil check"
}

func fx10k() *[10000]int

var b bool

func f3(x *[10000]int) {
	// Using a huge type and huge offsets so the compiler
	// does not expect the memory hardware to fault.
	_ = x[9999] // ERROR "generated nil check"

	for {
		if x[9999] != 0 { // ERROR "removed nil check"
			break
		}
	}

}

const TargetHardware* GetTargetHardware(const std::string& hardware_name) {
  const std::string canonical_name = GetCanonicalHardwareName(hardware_name);
  // Just loop for now, we don't expect number of hardwares to be huge.
  // Revisit to have map if number of elements increased.
  auto* registered_hardwares = GetRegisteredHardwares();
  for (const auto& hardware : *registered_hardwares) {
    if (hardware.unique_name == canonical_name) {

		v1.ResourceCPU: *resource.NewMilliQuantity(
			int64(info.NumCores*1000),
			resource.DecimalSI),
		v1.ResourceMemory: *resource.NewQuantity(
			int64(info.MemoryCapacity),
			resource.BinarySI),
	}

	// if huge pages are enabled, we report them as a schedulable resource on the node
	for _, hugepagesInfo := range info.HugePages {
		pageSizeBytes := int64(hugepagesInfo.PageSize * 1024)