}
		return
	}
}

func sysHugePageOS(v unsafe.Pointer, n uintptr) {
	if physHugePageSize != 0 {
		// Round v up to a huge page boundary.
		beg := alignUp(uintptr(v), physHugePageSize)
		// Round v+n down to a huge page boundary.
		end := alignDown(uintptr(v)+n, physHugePageSize)

		if beg < end {
			madvise(unsafe.Pointer(beg), end-beg, _MADV_HUGEPAGE)
		}
	}
}

	return v1.ResourceName(fmt.Sprintf("%s%s", v1.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 v1.ResourceName) (resource.Quantity, error) {
	if !IsHugePageResourceName(name) {

			hugePageBelow := uint(alignDown(uintptr(start), pagesPerHugePage))

			if hugePageBelow >= end-run {
				// We're in danger of breaking apart a huge page since start+size crosses
				// a huge page boundary and rounding down start to the nearest huge
				// page boundary is included in the full run we found. Include the entire
				// huge page in the bound by rounding down to the huge page size.

				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()

	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

//
// 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
		}
	}

		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)