f, err := parser.ParseFile(fset, "src.go", src, parser.ParseComments)
	if err != nil {
		panic(err)
	}

	// Create an ast.CommentMap from the ast.File's comments.
	// This helps keeping the association between comments
	// and AST nodes.
	cmap := ast.NewCommentMap(fset, f, f.Comments)

	// Remove the first variable declaration from the list of declarations.
	for i, decl := range f.Decls {

	// Test on a copy
	// cleanup is the only one deleting caches.
	caches, _ := b.cloneCaches()

	for id, cache := range caches {
		if !cache.worthKeeping() {
			b.debugf("cache %s not worth keeping", id)
			remove[id] = struct{}{}
			continue
		}
		if cache.id != id {
			logger.Info("cache ID mismatch %s != %s", id, cache.id)
			remove[id] = struct{}{}
			continue
		}

import org.slf4j.LoggerFactory;

import static java.util.Objects.requireNonNull;

/**
 * A {@link TransferListener} implementation that wraps another delegate {@link TransferListener} but makes it run
 * on single thread, keeping the listener logic simple. This listener also blocks on last transfer event to allow
 * output to perform possible cleanup. It spawns a daemon thread to consume queued events that may fall in even
 * concurrently.
 *

	}
	m := ma.(*uniqueMap[T])

	// Keep around any values we allocate for insertion. There
	// are a few different ways we can race with other threads
	// and create values that we might discard. By keeping
	// the first one we make around, we can avoid generating
	// more than one per racing thread.
	var (
		toInsert     *T // Keep this around to keep it alive.
		toInsertWeak weak.Pointer[T]
	)

  "AreSplatValuesEqual<"# type #">($0, $1)">>;

// Returns defining op of this value.
def GetDefiningOp :  NativeCodeCall<"$0.getDefiningOp()">;

// Clones an operation with new operands while keeping attributes.
def CloneOpWithReplacedOperands : NativeCodeCall<
  "CloneOpWithReplacedOperands("
    "$_builder, $0, llvm::SmallVector<Value>{$1...}).front()">;

      return super.containsAll(targets);
    }

    /*
     * If targets is a sorted set with the same comparator, containsAll can run
     * in O(n) time stepping through the two collections.
     */
    Iterator<E> thisIterator = iterator();

    Iterator<?> thatIterator = targets.iterator();
    // known nonempty since we checked targets.size() > 1

		// PV should be deleted. Check if it's used and remove finalizer if
		// it's not.
		isUsed := c.isBeingUsed(pv)
		if !isUsed {
			return c.removeFinalizer(ctx, pv)
		}
		logger.V(4).Info("Keeping PV because it is being used", "PV", klog.KRef("", pvName))
	}

	if protectionutil.NeedToAddFinalizer(pv, volumeutil.PVProtectionFinalizer) {
		// PV is not being deleted -> it should have the finalizer. The

  // 3. Transpose to [4, 4, 2, 2, 3, 64]
  // 4. Reshape to [4, 4, 12, 64]
  auto filter = conv2d.getFilter();
  OpBuilder builder(conv2d);
  builder.setInsertionPoint(conv2d);
  // Book keeping filter information.
  auto filter_shape = mlir::cast<RankedTensorType>(filter.getType()).getShape();
  int64_t height = filter_shape[0];
  int64_t width = filter_shape[1];
  int64_t channel = filter_shape[2];

      return super.containsAll(targets);
    }

    /*
     * If targets is a sorted set with the same comparator, containsAll can run
     * in O(n) time stepping through the two collections.
     */
    Iterator<E> thisIterator = iterator();

    Iterator<?> thatIterator = targets.iterator();
    // known nonempty since we checked targets.size() > 1

			coreMap[cpus[i].CoreID] = struct{}{}
		}
		cpu := cpus[0]
		uaAppend(" CPU ", fmt.Sprintf("(total_cpus:%d, total_cores:%d; vendor:%s; family:%s; model:%s; stepping:%d; model_name:%s)",
			len(cpuMap), len(coreMap), cpu.VendorID, cpu.Family, cpu.Model, cpu.Stepping, cpu.ModelName))
	}
	uaAppend(")", "")

	return strings.Join(userAgentParts, "")
}