// Check that GOROOT/bin is bound before /bin.
		pid := strings.Replace(readfile("#c/pid"), " ", "", -1)
		ns := fmt.Sprintf("/proc/%s/ns", pid)
		if !strings.Contains(readfile(ns), fmt.Sprintf("bind -b %s /bin", gorootBin)) {
			xprintf("*** You need to bind %s before /bin.\n", gorootBin)
		}
	} else {
		// Check that GOROOT/bin appears in $PATH.
		pathsep := ":"
		if gohostos == "windows" {
			pathsep = ";"
		}

### `-tf-drop-while-shape-invariant`

_Drop `shape_invariant` attribute from While/WhileRegion ops._

Drop `shape_invariant` attribute from tf.While and tf.WhileRegion op. This
would allow shape inference pass to further refine operand/result shapes of
these ops. This is only safe to do when compiling to XLA.
### `-tf-drop-while-shape-invariant-in-device-cluster`

_Drop `shape_invariant` attribute from While/WhileRegion ops inside device cluster._

//
// Synchronous scavenging happens for one of two reasons: if an allocation would
// exceed the memory limit or whenever the heap grows in size, for some
// definition of heap-growth. The intuition behind this second reason is that the
// application had to grow the heap because existing fragments were not sufficiently
// large to satisfy a page-level memory allocation, so we scavenge those fragments

public class ManagedProxyClassGenerator extends AbstractProxyClassGenerator {
    /*
        Note: there is deliberately no internal synchronizing or caching at this level.
        Class generation should be performed behind a ManagedProxyFactory.
     */

    private static final String STATE_FIELD_NAME = "$state";
    private static final String TYPE_CONVERTER_FIELD_NAME = "$typeConverter";

// Aliases are keyed by network/IP address. Example: "default/1.2.3.4".
//
// In some cases, we do not know the IP address of a Workload. For instance, we may simply know
// that there is a workload behind a gateway, and rely on the gateway to handle the rest.
// In this case, the key format will be "resource-uid". The resource can be a Pod, WorkloadEntry, etc.
// These resources cannot be looked up on-demand.
//

  public static <T extends @Nullable Object> Iterator<T> cycle(T... elements) {
    return cycle(Lists.newArrayList(elements));
  }

  /**
   * Returns an Iterator that walks the specified array, nulling out elements behind it. This can
   * avoid memory leaks when an element is no longer necessary.
   *
   * <p>This method accepts an array with element type {@code @Nullable T}, but callers must pass an

  public static <T extends @Nullable Object> Iterator<T> cycle(T... elements) {
    return cycle(Lists.newArrayList(elements));
  }

  /**
   * Returns an Iterator that walks the specified array, nulling out elements behind it. This can
   * avoid memory leaks when an element is no longer necessary.
   *
   * <p>This method accepts an array with element type {@code @Nullable T}, but callers must pass an

	c.dispatching = true
	// We are reusing the slice to avoid memory reallocations in every
	// dispatchEvent() call. That may prevent Go GC from freeing items
	// from previous phases that are sitting behind the current length
	// of the slice, but there is only a limited number of those and the
	// gain from avoiding memory allocations is much bigger.
	c.watchersBuffer = c.watchersBuffer[:0]

		w.WriteHeader(308)
	})).ts
	req, err := NewRequest("POST", ts.URL, strings.NewReader("some body"))
	if err != nil {
		t.Fatal(err)
	}
	c := ts.Client()
	req.GetBody = nil // so it can't rewind.
	res, err := c.Do(req)
	if err != nil {
		t.Fatal(err)
	}
	res.Body.Close()
	if res.StatusCode != 308 {
		t.Errorf("status = %d; want %d", res.StatusCode, 308)
	}

// Because they are from a trap instead of from a saved pair,
// the initial PC must not be rewound to the previous instruction.
// (All the saved pairs record a PC that is a return address, so we
// rewind it into the CALL instruction.)
// If gp.m.libcall{g,pc,sp} information is available, it uses that information in preference to
// the pc/sp/lr passed in.
func tracebacktrap(pc, sp, lr uintptr, gp *g) {