GetPodByName(namespace, name string) (*v1.Pod, bool)
}

// CPUsProvider knows how to provide the cpus used by the given container
type CPUsProvider interface {
	// GetCPUs returns information about the cpus assigned to pods and containers
	GetCPUs(podUID, containerName string) []int64
	// GetAllocatableCPUs returns the allocatable (not allocated) CPUs
	GetAllocatableCPUs() []int64
}

type MemoryProvider interface {

	if !ok {
		return nil, fmt.Errorf("invalid output from '%s', '\\n' not found: %s", cmdline, output)
	}

	_, cpus, ok := bytes.Cut(output, []byte(":"))
	if !ok {
		return nil, fmt.Errorf("invalid output from '%s', ':' not found: %s", cmdline, output)
	}

	var list []string
	for _, val := range bytes.Split(cpus, []byte(",")) {
		index := string(bytes.TrimSpace(val))
		if len(index) == 0 {
			continue
		}

	n := int32(sysconf(__SC_NPROCESSORS_ONLN))
	if n < 1 {
		return 1
	}

	if cents := int32(getcpucap()); cents > 0 {
		// Convert from a percentage of CPUs to a number of CPUs,
		// rounding up to make use of a fractional CPU
		// e.g., 336% becomes 4 CPUs
		ncap := (cents + 99) / 100
		if ncap < n {
			return ncap
		}
	}

	return n
}

//go:nosplit

	return nil
}

// Assignable CPUs are the ones that can be exclusively allocated to pods that meet the exclusivity requirement
// (ie guaranteed QoS class and integral CPU request).
// Assignability of CPUs as a concept is only applicable in case of static policy i.e. scenarios where workloads
// CAN get exclusive access to core(s).
// Hence, we return empty set here: no cpus are assignable according to above definition with this policy.

	require.NoError(t, err)

	limit := int64(3000)
	expectedCpuMax := 10 * limit / int64(winstats.ProcessorCount())
	// Above, we're setting the limit to 3 CPUs. But we can't expect more than 100% of the CPUs
	// we have. (e.g.: if we only have 2 CPUs, we can't have 150% CPU max).
	if expectedCpuMax > 10000 {
		expectedCpuMax = 10000
	}
	expectedWindowsConfig := &runtimeapi.WindowsContainerConfig{

	// We picked "pcpu" because it the established docs hints at vCPU already.
	FullPhysicalCPUsOnly bool
	// Flag to evenly distribute CPUs across NUMA nodes in cases where more
	// than one NUMA node is required to satisfy the allocation.
	DistributeCPUsAcrossNUMA bool
	// Flag to ensure CPUs are considered aligned at socket boundary rather than
	// NUMA boundary
	AlignBySocket bool
}

	// newprocs will be processed by startTheWorld
	newprocs = int32(n)

	startTheWorldGC(stw)
	return ret
}

// NumCPU returns the number of logical CPUs usable by the current process.
//
// The set of available CPUs is checked by querying the operating system
// at process startup. Changes to operating system CPU allocation after
// process startup are not reflected.
func NumCPU() int {
	return int(ncpu)

// If pid is 0 the calling thread is used.
func SchedSetaffinity(pid int, set *CPUSet) error {
	return schedAffinity(SYS_SCHED_SETAFFINITY, pid, set)
}

// Zero clears the set s, so that it contains no CPUs.
func (s *CPUSet) Zero() {
	for i := range s {
		s[i] = 0
	}
}

func cpuBitsIndex(cpu int) int {
	return cpu / _NCPUBITS
}

func cpuBitsMask(cpu int) cpuMask {

		}
	}
	uaAppend("; ", "")

	if cpus, err := gopsutilcpu.Info(); err == nil && len(cpus) > 0 {
		cpuMap := make(map[string]struct{}, len(cpus))
		coreMap := make(map[string]struct{}, len(cpus))
		for i := range cpus {
			cpuMap[cpus[i].PhysicalID] = struct{}{}
			coreMap[cpus[i].CoreID] = struct{}{}
		}
		cpu := cpus[0]

//go:build !arm && !arm64 && !mips64 && !mips64le && !mips && !mipsle && !wasm

package runtime

// careful: cputicks is not guaranteed to be monotonic! In particular, we have
// noticed drift between cpus on certain os/arch combinations. See issue 8976.