if r <= uintptr(len(block.data)) {
			return (*notInHeap)(unsafe.Pointer(&block.data[r-n]))
		}
	}

	// Try to install a new block.
	lock(&a.lock)

	// Check block again under the lock. Someone may
	// have gotten here first.
	block = (*traceRegionAllocBlock)(a.current.Load())
	if block != nil {
		r := block.off.Add(n)
		if r <= uintptr(len(block.data)) {
			unlock(&a.lock)

	ports := []int{}
	for i := 0; i < count; i++ {
		l, err := net.Listen("tcp", ":0")
		if err != nil {
			return nil, fmt.Errorf("could not bind to a port: %v", err)
		}
		// It is possible but unlikely that someone else will bind this port before we get a chance to use it.
		defer l.Close()
		ports = append(ports, l.Addr().(*net.TCPAddr).Port)
	}
	return ports, nil
}

	rootCmd.SetOut(&out)
	rootCmd.SetErr(&err)
	// istioctl will overwrite logs which we don't want.
	// It happens to do this via PersistentPreRunE, which we can disable.
	// We add an additional check in case someone refactors this away, to ensure we don't wipe out non-logging code.
	if fmt.Sprintf("%p", rootCmd.PersistentPreRunE) != fmt.Sprintf("%p", cmd.ConfigureLogging) {
		log.Fatalf("istioctl PersistentPreRunE is not configuring logging")

// init function of the package is complete.
//
// Hardcoding is unfortunate because it means that the tool that does
// coverage instrumentation has to keep a list of runtime packages,
// meaning that if someone makes changes to the pkg "runtime"
// dependencies, unexpected behavior will result for coverage builds.
// The coverage runtime will detect and report the unexpected
// behavior; look for an error of this form:
//

due to design choices in Helm.
The underlying Kubernetes resources we configure have 1000s of fields; given enough users and bespoke use cases,
eventually someone will want to customize every one of those fields.
If all fields are exposed in `values.yaml`, we end up with an massive API that is also likely worse than just using the Kubernetes API directly.

		// than it does for an attempt to access a valid but unmapped address.
		// OS X 10.9.2 mishandles the malformed address case, making it look like
		// a user-generated signal (like someone ran kill -SEGV ourpid).
		// We pass user-generated signals to os/signal, or else ignore them.
		// Doing that here - and returning to the faulting code - results in an

// In the example for InlTree above, the code for println within h
// would have an innermost position with line number 12, whether
// h was not inlined, inlined into g, g-then-f, or g-then-f-then-main.
// This corresponds to what someone debugging main, f, g, or h might
// expect to see while single-stepping.
func (ctxt *Link) InnermostPos(xpos src.XPos) src.Pos {
	return ctxt.PosTable.Pos(xpos)
}

                abstract String getName()
                abstract void setName(String name)
            }

            class RulePlugin extends RuleSource {
                @Model
                void someone(Person person) {
                }

                @Mutate
                void tasks(ModelMap<Task> tasks, Person person) {
                    println person.unknown
                }
            }

# Set TFCI_GIT_DIR, the root directory for all commands, to two directories
# above the location of this file (setup.sh). We could also use "git rev-parse
# --show-toplevel", but that wouldn't work for non-git repos (like if someone
# downloaded TF as a zip archive).
export TFCI_GIT_DIR=$(cd $(dirname "$0"); realpath ../../)
cd "$TFCI_GIT_DIR"

# "TFCI" may optionally be set to the name of an env-type file with TFCI

        }

        // didn't see it, trying to put it instead...
        Dummy sneaky = map.putIfAbsent(sample, Dummy.VALUE);
        if (sneaky == null) {
          return sample;
        } else {
          /* Someone beat us to it! Trying again...
           *
           * Technically this loop not guaranteed to terminate, so theoretically (extremely