func applyGCLoad(b *testing.B) func() {
	// We’ll apply load to the runtime with maxProcs-1 goroutines
	// and use one more to actually benchmark. It doesn't make sense
	// to try to run this test with only 1 P (that's what
	// BenchmarkReadMemStats is for).
	maxProcs := runtime.GOMAXPROCS(-1)
	if maxProcs == 1 {
		b.Skip("This benchmark can only be run with GOMAXPROCS > 1")
	}

	// Code to build a big tree with lots of pointers.

			fn: func(t *testing.T) {
				runtime.GC()
			},
		},
		{
			name: "runtime.GOMAXPROCS",
			fn: func(t *testing.T) {
				if runtime.GOARCH == "wasm" {
					t.Skip("GOMAXPROCS >1 not supported on wasm")
				}

				n := runtime.GOMAXPROCS(0)
				defer runtime.GOMAXPROCS(n)

				runtime.GOMAXPROCS(n + 1)
			},
		},
		{
			name: "runtime.GoroutineProfile",
			fn: func(t *testing.T) {

	errFatal(err)

	// Wait for all to connect
	// Parallel writes per server.
	b.Run("bytes", func(b *testing.B) {
		for par := 1; par <= 32; par *= 2 {
			b.Run("par="+strconv.Itoa(par*runtime.GOMAXPROCS(0)), func(b *testing.B) {
				defer timeout(60 * time.Second)()
				ctx, cancel := context.WithTimeout(context.Background(), 30*time.Second)
				defer cancel()
				b.ReportAllocs()
				b.SetBytes(int64(len(payload) * 2))

	// the same 100 times in a row. This should be more than enough to
	// ensure all goroutines get a chance to run to completion (or to
	// some block point) for a small group of test goroutines.
	defer runtime.GOMAXPROCS(runtime.GOMAXPROCS(1))

	c := 0
	ng := runtime.NumGoroutine()
	for i := 0; i < 1000; i++ {
		nng := runtime.NumGoroutine()
		if nng == ng {
			c++
		} else {
			c = 0
			ng = nng
		}

      export GOMAXPROCS
      kube::log::status "Set GOMAXPROCS automatically to ${GOMAXPROCS}"
    fi
  fi
}

# This will take binaries from $GOPATH/bin and copy them to the appropriate
# place in ${KUBE_OUTPUT_BIN}
#
# Ideally this wouldn't be necessary and we could just set GOBIN to
# KUBE_OUTPUT_BIN but that won't work in the face of cross compilation.  'go

	trigger, _ := c.trigger()
	if c.heapMarked > trigger {
		trigger = c.heapMarked
	}
	c.maxStackScan.Store(stackSize)
	c.globalsScan.Store(globalsSize)
	c.heapLive.Store(trigger)
	c.heapScan.Add(int64(float64(trigger-c.heapMarked) * scannableFrac))
	c.startCycle(0, gomaxprocs, gcTrigger{kind: gcTriggerHeap})
}

	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

            {{- end }}
          {{- end}}
        {{- end}}
        ]
    - name: GOMEMLIMIT
      valueFrom:
        resourceFieldRef:
          resource: limits.memory
    - name: GOMAXPROCS
      valueFrom:
        resourceFieldRef:
          resource: limits.cpu
    {{- if .CompliancePolicy }}
    - name: COMPLIANCE_POLICY
      value: "{{ .CompliancePolicy }}"
    {{- end }}

See the documentation for those packages for details.

The GOMAXPROCS variable limits the number of operating system threads that
can execute user-level Go code simultaneously. There is no limit to the number of threads
that can be blocked in system calls on behalf of Go code; those do not count against
the GOMAXPROCS limit. This package's [GOMAXPROCS] function queries and changes
the limit.

          - name: GOMEMLIMIT
            valueFrom:
              resourceFieldRef:
                resource: limits.memory
          - name: GOMAXPROCS
            valueFrom:
              resourceFieldRef:
                resource: limits.cpu
          - name: PLATFORM
            value: "{{ .Values.global.platform }}"
          resources: