assert.NotEmpty(t, runtimeServiceSpans, "syncPod trace should have runtime service spans")

	for _, span := range imageServiceSpans {
		assert.Equal(t, span.Parent.SpanID(), rootSpan.SpanContext.SpanID(), fmt.Sprintf("image service span %s %s should be child of root span", span.Name, span.Parent.SpanID()))
	}

	for _, span := range runtimeServiceSpans {

// In this example:
//
//	z := x + y // add them
//	  <--C-->     <---E-->
//	    ^
//	    D
//
// intervals C, D and E are inexact.  C is contained by the
// z-assignment statement, because it spans three of its children (:=,
// x, +).  So too is the 1-char interval D, because it contains only
// interior whitespace of the assignment.  E is considered interior
// whitespace of the BlockStmt containing the assignment.
//

      if (rangeMap.asMapOfRanges().isEmpty()) {
        return;
      }
      Range<K> span = rangeMap.span();
      checkArgument(
          subRange.encloses(span),
          "Cannot putAll rangeMap with span %s into a subRangeMap(%s)",
          span,
          subRange);
      TreeRangeMap.this.putAll(rangeMap);
    }

    @Override
    public void clear() {

      if (rangeMap.asMapOfRanges().isEmpty()) {
        return;
      }
      Range<K> span = rangeMap.span();
      checkArgument(
          subRange.encloses(span),
          "Cannot putAll rangeMap with span %s into a subRangeMap(%s)",
          span,
          subRange);
      TreeRangeMap.this.putAll(rangeMap);
    }

    @Override
    public void clear() {

		span = c.allocLarge(size, noscan)
		span.freeindex = 1
		span.allocCount = 1
		size = span.elemsize
		x = unsafe.Pointer(span.base())
		if needzero && span.needzero != 0 {
			delayedZeroing = true
		}
		if !noscan {
			// Tell the GC not to look at this yet.
			span.largeType = nil
			header = &span.largeType
		}
	}

	if start == 0 && offset == 0 && (limit == ^uint64(0) || limit == 0) {
		// Some tools may introduce a fake mapping that spans the entire
		// address space. Assume that the address has already been
		// adjusted, so no additional base adjustment is necessary.
		return 0, nil
	}

	switch fh.Type {
	case elf.ET_EXEC:

 * `COMPOSITE`. Note that a `COMPOSITE` represents a set of devices, they
 * are typically associated with packed variables. Presently, we assume this
 * set spans all the devices. So, a variable on a `COMPOSITE` will have a local
 * instance on the execute op's device.
 */
bool IsResourceMergeable(Attribute& resource_attr, Attribute& device_attr) {
  return resource_attr &&

	recorder record.EventRecorder

	// Reference to this node.
	nodeRef *v1.ObjectReference

	// imageCache is the cache of latest image list.
	imageCache imageCache

	// tracer for recording spans
	tracer trace.Tracer
}

// imageCache caches latest result of ListImages.
type imageCache struct {
	// sync.Mutex is the mutex protects the image cache.
	sync.Mutex
	// images is the image cache.

        op.progress.collect { progress(it) }.join('').trim()
    }

    private static String progress(Progress p) {
        p.hasDetailsOfType(StyledTextOutputEvent) ? p.details.spans*.text.join('') : ''
    }

    private static boolean notEmpty(TestFile file) {
        file.exists() && file.length() > 0
    }

    private static boolean hasPlugin(TestFile file, String pluginName) {

.dead-block.highlight-skyblue,
.dead-value span.highlight-lightgray,
.dead-block.highlight-lightgray,
.dead-value span.highlight-yellow,
.dead-block.highlight-yellow,
.dead-value span.highlight-lime,
.dead-block.highlight-lime,
.dead-value span.highlight-khaki,
.dead-block.highlight-khaki,
.dead-value span.highlight-aqua,
.dead-block.highlight-aqua,
.dead-value span.highlight-salmon,
.dead-block.highlight-salmon {