t.align = 0  // 0 means use t.Width, below
	t.alg = AMEM // default
	// default t.ptrBytes is 0.
	if t.Noalg() {
		t.setAlg(ANOALG)
	}

	et := t.Kind()
	switch et {
	case TFUNC, TCHAN, TMAP, TSTRING:
		break

	// SimType == 0 during bootstrap
	default:
		if SimType[t.Kind()] != 0 {
			et = SimType[t.Kind()]
		}
	}

	var w int64
	switch et {
	default:

  ExpandParallelExecuteToIslands(island_op, parallel_execute_op, &builder,
                                 executes, legacy_graph_export,
                                 parallel_group_idx);

  // Remap all results of parallel_execute op with outputs from newly created
  // islands.
  llvm::SmallVector<Value, 8> parallel_execute_outputs;
  parallel_execute_outputs.reserve(

}

// mapRType asserts that typ is a map type, and returns an expression
// that yields the *runtime._type value representing typ.
func mapRType(pos src.XPos, typ *types.Type) ir.Node {
	return kindRType(pos, typ, types.TMAP)
}

// chanRType asserts that typ is a map type, and returns an expression
// that yields the *runtime._type value representing typ.
func chanRType(pos src.XPos, typ *types.Type) ir.Node {

	sys.rolesMap = make(map[arn.ARN]string)

	// From OpenID
	if riMap := sys.OpenIDConfig.GetRoleInfo(); riMap != nil {
		sys.validateAndAddRolePolicyMappings(ctx, riMap)
	}

	// From AuthN plugin if enabled.
	if authn := newGlobalAuthNPluginFn(); authn != nil {
		riMap := authn.GetRoleInfo()
		sys.validateAndAddRolePolicyMappings(ctx, riMap)
	}

	sys.printIAMRoles()

	// turn owned by this Deployment.
	rsMap := make(map[types.UID]bool, len(rsList))
	for _, rs := range rsList {
		rsMap[rs.UID] = true
	}
	owned := &v1.PodList{Items: make([]v1.Pod, 0, len(all.Items))}
	for i := range all.Items {
		pod := &all.Items[i]
		controllerRef := metav1.GetControllerOf(pod)
		if controllerRef != nil && rsMap[controllerRef.UID] {
			owned.Items = append(owned.Items, *pod)
		}

      FuncOp::create(ops.front()->getLoc(), kHostFunctionAttr, func_type);

  // Create function body.
  Block* outlined_func_block = outlined_func.addEntryBlock();

  // Clone the operations and remap the inputs to use the function arguments.
  IRMapping mapping;
  mapping.map(inputs, outlined_func.getArguments());
  builder->setInsertionPoint(outlined_func_block, outlined_func_block->begin());
  for (Operation* op : ops) {

                      cluster_func_output_index, core_id));
    return mlir::failure();
  }
  return mlir::success();
}

// Collects tile sharded outputs from a tf_device.parallel_execute to remap from
// the TPU computation result.
mlir::LogicalResult GetTileShardedOutputsToMerge(
    const mlir::Location& location, const int cluster_func_output_index,
    llvm::ArrayRef<xla::OpSharding> output_sharding_config,

		as := ir.NewAssignStmt(base.Pos, hu, ir.NewBinaryExpr(base.Pos, ir.OADD, huVal, ir.NewInt(base.Pos, elem.Size())))
		nfor.Post = ir.NewBlockStmt(base.Pos, []ir.Node{nfor.Post, as})

	case k == types.TMAP:
		// order.stmt allocated the iterator for us.
		// we only use a once, so no copy needed.
		ha := a

		hit := nrange.Prealloc
		th := hit.Type()
		// depends on layout of iterator struct.

                return sourcePath + File.separatorChar + absolutePath.substring(targetPath.length() + 1);
            }
            throw new IllegalArgumentException("Cannot remap path '" + absolutePath + "' which does not have '" + targetPath + "' as a prefix");
        }

        @Override

		}

	case ssa.OpPPC64LoweredAtomicAnd8,
		ssa.OpPPC64LoweredAtomicAnd32,
		ssa.OpPPC64LoweredAtomicOr8,
		ssa.OpPPC64LoweredAtomicOr32:
		// LWSYNC
		// LBAR/LWAR	(Rarg0), Rtmp
		// AND/OR	Rarg1, Rtmp
		// STBCCC/STWCCC Rtmp, (Rarg0)
		// BNE		-3(PC)
		ld := ppc64.ALBAR
		st := ppc64.ASTBCCC
		if v.Op == ssa.OpPPC64LoweredAtomicAnd32 || v.Op == ssa.OpPPC64LoweredAtomicOr32 {
			ld = ppc64.ALWAR