if len(el) > 0 {
		return errors.NewInvalid(api.Kind("Service"), service.Name, el)
	}

	// Special-case: headless + selectorless.  This has to happen before other
	// checks because it explicitly allows combinations of inputs that would
	// otherwise be errors.
	if service.Spec.ClusterIP == api.ClusterIPNone && len(service.Spec.Selector) == 0 {
		// If IPFamilies was not set by the user, start with the default
		// family.

		t.Error("allocs-by-size and frees-by-size counts don't match in length")
	} else {
		for i := range objects.alloc.Buckets {
			ba := objects.alloc.Buckets[i]
			bf := objects.free.Buckets[i]
			if ba != bf {
				t.Errorf("bucket %d is different for alloc and free hists: %f != %f", i, ba, bf)
			}
		}
		if !t.Failed() {
			var gotAlloc, gotFree uint64
			want := objects.total
			for i := range objects.alloc.Counts {

			var stats string
			if logMemStats {
				var mEnd runtime.MemStats
				runtime.ReadMemStats(&mEnd)
				nBytes := mEnd.TotalAlloc - mStart.TotalAlloc
				nAllocs := mEnd.Mallocs - mStart.Mallocs
				stats = fmt.Sprintf("[%d ns %d allocs %d bytes]", time, nAllocs, nBytes)
			} else {
				stats = fmt.Sprintf("[%d ns]", time)
			}

			if f.Log() {
				f.Logf("  pass %s end %s\n", p.name, stats)
				printFunc(f)

var emptymspan mspan

func allocmcache() *mcache {
	var c *mcache
	systemstack(func() {
		lock(&mheap_.lock)
		c = (*mcache)(mheap_.cachealloc.alloc())
		c.flushGen.Store(mheap_.sweepgen)
		unlock(&mheap_.lock)
	})
	for i := range c.alloc {
		c.alloc[i] = &emptymspan
	}
	c.nextSample = nextSample()
	return c
}

// freemcache releases resources associated with this

		// Size is the maximum byte size of an object in this
		// size class.
		Size uint32

		// Mallocs is the cumulative count of heap objects
		// allocated in this size class. The cumulative bytes
		// of allocation is Size*Mallocs. The number of live
		// objects in this size class is Mallocs - Frees.
		Mallocs uint64

		// Frees is the cumulative count of heap objects freed
		// in this size class.
		Frees uint64

	// Alternate between whether the chunk will be held live or will be
	// condemned to GC to create holes in the heap.
	saved := make([][]byte, allocs/2+1)
	condemned := make([][]byte, allocs/2)
	for i := 0; i < allocs; i++ {
		b := make([]byte, allocChunk)
		if i%2 == 0 {
			saved = append(saved, b)
		} else {
			condemned = append(condemned, b)
		}
	}

	// Pprof will ignore, but useful for people
	s := memStats
	fmt.Fprintf(w, "\n# runtime.MemStats\n")
	fmt.Fprintf(w, "# Alloc = %d\n", s.Alloc)
	fmt.Fprintf(w, "# TotalAlloc = %d\n", s.TotalAlloc)
	fmt.Fprintf(w, "# Sys = %d\n", s.Sys)
	fmt.Fprintf(w, "# Lookups = %d\n", s.Lookups)
	fmt.Fprintf(w, "# Mallocs = %d\n", s.Mallocs)
	fmt.Fprintf(w, "# Frees = %d\n", s.Frees)

	fmt.Fprintf(w, "# HeapAlloc = %d\n", s.HeapAlloc)

		return 0
	}
	return (float64(r.Bytes) * float64(r.N) / 1e6) / r.T.Seconds()
}

// AllocsPerOp returns the "allocs/op" metric,
// which is calculated as r.MemAllocs / r.N.
func (r BenchmarkResult) AllocsPerOp() int64 {
	if v, ok := r.Extra["allocs/op"]; ok {
		return int64(v)
	}
	if r.N <= 0 {
		return 0
	}
	return int64(r.MemAllocs) / int64(r.N)
}

			bySize[i].Frees += m.smallFreeCount[i]
			bySize[i].Mallocs += m.smallFreeCount[i]
			smallFree += m.smallFreeCount[i] * uint64(class_to_size[i])
		}
		slow.Frees += m.tinyAllocCount + m.largeFreeCount
		slow.Mallocs += slow.Frees

		slow.TotalAlloc = slow.Alloc + m.largeFree + smallFree

		for i := range slow.BySize {
			slow.BySize[i].Mallocs = bySize[i].Mallocs
			slow.BySize[i].Frees = bySize[i].Frees
		}

// set of transformations for TFLite IR that lower memory usage by redoing
// operations with small inputs and large outputs instead of keeping the result
// in memory. This class allows us to compactly and efficiently represent the
// (idealized) memory profile of a TFLite graph and simulate the effect of
// re-inserting operations on that memory profile.

#include <algorithm>
#include <cinttypes>