if client.deadline == 0 {
			client.cancelFn(context.DeadlineExceeded)
			return nil, context.DeadlineExceeded
		}
	}
	for {
		// Handle the extremely unlikely scenario that we wrapped.
		if _, loaded := c.outgoing.LoadOrStore(client.MuxID, client); client.MuxID != 0 && !loaded {
			if debugReqs {
				_, found := c.outgoing.Load(client.MuxID)

        DCOMMENT("\t\tValue Result mapped to " << attr);
        RecordValue(ValuePort(std::get<0>(result)), attr);
      } else {
        DCOMMENT("\t\tValue result unmapped, consider value type:" << value);
        RefineResultType(op, std::get<0>(result), value.getType());
      }
    }

    if (ElementsAttr eattr = mlir::dyn_cast_or_null<ElementsAttr>(attr)) {

		}
		state.assignToSection(sect, symn, sym.SRODATA)
		setCarrierSize(symn, state.datsize-symnStartValue)
		if ctxt.HeadType == objabi.Haix {
			// Read-only symbols might be wrapped inside their outer
			// symbol.
			// XCOFF symbol table needs to know the size of
			// these outer symbols.
			xcoffUpdateOuterSize(ctxt, state.datsize-symnStartValue, symn)
		}
	}

    in order to enable optimizations that rely on a fixed order of operations (such
    as rematerialization.)
    The flatbuffer exporter will unwrap the wrapped region and annotate the generated
    model with metadata such that any runtime reorderings will respect the order
    given by the control dependencies.
  }];

  // May take values of type !tfl.control as inputs

	}

	return &sendFileReader{Reader: io.LimitReader(file, length), Closer: file}, nil
}

// closeWrapper converts a function to an io.Closer
type closeWrapper func() error

// Close calls the wrapped function.
func (c closeWrapper) Close() error {
	return c()
}

// CreateFile - creates the file.

		store:      store,
		nextObject: nextPod,
	}

	revertTransformer := store.UpdatePrefixTransformer(
		func(previousTransformer *PrefixTransformer) value.Transformer {
			transformer.wrapped = previousTransformer
			return transformer
		})
	defer revertTransformer()

	for i := 0; i < 5; i++ {
		if err := transformer.createObject(ctx); err != nil {

      control_edges.emplace_back(control_nodes_at[outer_op],
                                 control_nodes_at[owner]);
    }
    control_token.dropAllUses();

    // Replace the ControlNodeOp with the wrapped operation.
    rewriter.setInsertionPointAfter(outer_op);
    auto* cloned_inner = rewriter.clone(*inner_op);
    for (auto it :
         llvm::zip(control_node_op.getOutputs(), cloned_inner->getResults())) {

    # Bash cannot do non-integer math, shell out to awk.
    latency="$(echo "${current_time} ${start_time}" | awk '{print $1 - $2}')s"

    # The default latency is null which cannot be wrapped as a string so we must
    # do it here instead of the printf.
    latency="\"${latency}\""
  fi

// Currently (1.17 dev) such a stack map is always ABI0;
// any ABI wrapper that is present is nosplit, hence a precise
// stack map is not needed there (the parameters survive only long
// enough to call the wrapped assembly function).
// This always returns a freshly copied ABI.
func AbiForBodylessFuncStackMap(fn *ir.Func) *abi.ABIConfig {
	return ssaConfig.ABI0.Copy() // No idea what races will result, be safe
}

`tf.compat.v1.mixed_precision.LossScale` in the constructor, which defaulted to a dynamic loss scale for the `"mixed_float16"` policy and no loss scale for other policies. In `Model.compile`, if the model's policy had a loss scale, the optimizer would be wrapped with a `LossScaleOptimizer`. With the non-experimental `Policy`, there is no loss scale associated with the `Policy`, and `Model.compile` wraps the optimizer with a `LossScaleOptimizer` if and only if the policy is a `"mixed_float16"` policy. If you...