}
        // Transfer the annotation to both region arguments
        for (Region* region : while_region.getRegions()) {
          BlockArgument arg = region->getArgument(output_index);
          LLVM_DEBUG(llvm::dbgs()
                     << "  Propagating device = '" << *device << "' to arg #"
                     << output_index << " of region #"
                     << region->getRegionNumber() << "\n");

	// Virtual Memory Map of process 53799 (gopls)
	// Output report format:  2.4  -64-bit process
	// VM page size:  16384 bytes
	//
	// ==== Non-writable regions for process 53799
	// REGION TYPE                    START END         [ VSIZE  RSDNT  DIRTY   SWAP] PRT/MAX SHRMOD PURGE    REGION DETAIL
	// __TEXT                      1029a0000-1033bc000    [ 10.1M  7360K     0K     0K] r-x/rwx SM=COW          /Users/USER/*/gopls

  auto walk_result = parent_op->walk([](Operation *op) {
    // Cleanup code in attached regions.
    for (Region &region : op->getRegions()) {
      if (!llvm::hasSingleElement(region)) return WalkResult::interrupt();
      RemovePassthroughOp(region.front());
      RemoveDeadLocalVariables(region.front());
    }

    LogicalResult result = success();

    // Update the regions. The dialect conversion framework wants new regions to
    // be created and updated, rather than updating the old op. Thus we use an
    // OperationState so we can add regions to the new up.
    OperationState state(op->getLoc(), op->getName().getStringRef(), operands,
                         new_results, op->getAttrs(), op->getSuccessors());
    for (Region &region : op->getRegions()) {

	}

	cred.scope.region = credElements[1]
	// Verify if region is valid.
	sRegion := cred.scope.region
	// Region is set to be empty, we use whatever was sent by the
	// request and proceed further. This is a work-around to address
	// an important problem for ListBuckets() getting signed with
	// different regions.
	if region == "" {
		region = sRegion
	}

  }

  // Checks if a region only consists of ops that are quantizable in a nested
  // region.
  // tf.CustomAggregator op cannot be inserted into region of a StableHLO op,
  // thus calibration is impossible within a nested region. Therefore, when an
  // op involves a region, the op is only quantizable when the region only
  // consists of ops whose quantization parameters can be propagated from

	scr, err := ParseScript(s)
	if err != nil {
		panic(err)
	}
	return scr
}

// MustParseRegion is like ParseRegion, but panics if the given region cannot be
// parsed. It simplifies safe initialization of Region values.
func MustParseRegion(s string) Region {
	r, err := ParseRegion(s)
	if err != nil {
		panic(err)
	}
	return r
}

var (
	und = Tag{}

	Und Tag = Tag{}

  },
  "layered_runtime": {
      "layers": [
          {

	for _, x := range part {
		switch v := x.(type) {
		case Tag:
			b.SetTag(v.tag())
		case Base:
			b.Tag.LangID = v.langID
		case Script:
			b.Tag.ScriptID = v.scriptID
		case Region:
			b.Tag.RegionID = v.regionID
		case Variant:
			if v.variant == "" {
				err = errInvalidArgument
				break
			}
			b.AddVariant(v.variant)
		case Extension:
			if v.s == "" {
				err = errInvalidArgument

	// There are two implementations of move algorithm.
	// The first one for non-overlapped memory regions. It uses forward copying.
	// The second one for overlapped regions. It uses backward copying
	MOVQ	DI, CX
	SUBQ	SI, CX
	// Now CX contains distance between SRC and DEST
	CMPQ	CX, BX
	// If the distance lesser than region length it means that regions are overlapped
	JC	copy_backward

	// Non-temporal copy would be better for big sizes.