if needPhysPageAlign {
		// Overallocate by a physical page to allow for later alignment.
		extraPages := physPageSize / pageSize

		// Find a big enough region first, but then only allocate the
		// aligned portion. We can't just allocate and then free the
		// edges because we need to account for scavenged memory, and
		// that's difficult with alloc.
		//
		// Note that we skip updates to searchAddr here. It's OK if

	index := int(v/userNsLength) - m.off
	if index < 0 || index >= m.len {
		return true
	}
	return m.used.Has(index)
}

// allocateOne finds a free user namespace and allocate it to the specified pod.
// The first return value is the first ID in the user namespace, the second returns
// the length for the user namespace range.

		memStats = new(runtime.MemStats)
		runtime.ReadMemStats(memStats)
	}

	// Find out how many records there are (MemProfile(nil, true)),
	// allocate that many records, and get the data.
	// There's a race—more records might be added between
	// the two calls—so allocate a few extra records for safety
	// and also try again if we're very unlucky.
	// The loop should only execute one iteration in the common case.

		// registers. In that case, we should store registers
		// in a context object. If we pre-allocate one per P,
		// asyncPreempt can spill just a few registers to the
		// stack, then grab its context object and spill into
		// it. When it enters the runtime, it would allocate a
		// new context for the P.
		print("runtime: asyncPreemptStack=", asyncPreemptStack, "\n")
		throw("async stack too large")

		// to know the data type in advance. We achieve this by switching on the attribute-type, and we
		// allocate the 'adjusted length' bytes (as done in step(3)) for the data-structure.
		switch attrType {
		case attrName:
			// NFACCT_NAME has a variable size, so we allocate a slice of 'adjusted length' bytes
			// and read the next 'adjusted length' bytes into this slice.
			data := make([]byte, length)

	if csiNode != nil {
		for i := range csiNode.Spec.Drivers {
			d := csiNode.Spec.Drivers[i]
			if d.Allocatable != nil && d.Allocatable.Count != nil {
				// TODO: drop GetCSIAttachLimitKey once we don't get values from Node object (v1.18)
				k := v1.ResourceName(volumeutil.GetCSIAttachLimitKey(d.Name))
				nodeVolumeLimits[k] = int64(*d.Allocatable.Count)
			}
		}
	}
	return nodeVolumeLimits

    annotations: {}
    loadBalancerIP: ""
    loadBalancerSourceRanges: []
    externalTrafficPolicy: ""
    externalIPs: []
    ipFamilyPolicy: ""
    ipFamilies: []
    ## Whether to automatically allocate NodePorts (only for LoadBalancers).
    # allocateLoadBalancerNodePorts: false

  resources:
    requests:
      cpu: 100m
      memory: 128Mi
    limits:
      cpu: 2000m
      memory: 1024Mi

	s := p.localSize
	l := p.local
	if uintptr(pid) < s {
		return indexLocal(l, pid), pid
	}
	if p.local == nil {
		allPools = append(allPools, p)
	}
	// If GOMAXPROCS changes between GCs, we re-allocate the array and lose the old one.
	size := runtime.GOMAXPROCS(0)
	local := make([]poolLocal, size)
	atomic.StorePointer(&p.local, unsafe.Pointer(&local[0])) // store-release

	stackSystem = goos.IsWindows*512*goarch.PtrSize + goos.IsPlan9*512 + goos.IsIos*goarch.IsArm64*1024

	// The minimum size of stack used by Go code
	stackMin = 2048

	// The minimum stack size to allocate.
	// The hackery here rounds fixedStack0 up to a power of 2.
	fixedStack0 = stackMin + stackSystem
	fixedStack1 = fixedStack0 - 1
	fixedStack2 = fixedStack1 | (fixedStack1 >> 1)

	}
	if neg {
		n = -n
	}
	return n
}

type sigset struct{}

// Called to initialize a new m (including the bootstrap m).
// Called on the parent thread (main thread in case of bootstrap), can allocate memory.
func mpreinit(mp *m) {
	// Initialize stack and goroutine for note handling.
	mp.gsignal = malg(32 * 1024)
	mp.gsignal.m = mp
	mp.notesig = (*int8)(mallocgc(_ERRMAX, nil, true))