import static com.google.common.base.Preconditions.checkArgument;
import static java.util.Objects.requireNonNull;
-import com.google.common.base.MoreObjects;
import com.google.common.base.MoreObjects.ToStringHelper;
import com.google.common.base.Verify;
import java.util.Collection;
import org.eclipse.jdt.annotation.Nullable;
import org.opendaylight.yangtools.yang.data.api.YangInstanceIdentifier;
import org.opendaylight.yangtools.yang.data.api.YangInstanceIdentifier.PathArgument;
+import org.opendaylight.yangtools.yang.data.api.schema.DistinctNodeContainer;
import org.opendaylight.yangtools.yang.data.api.schema.NormalizedNode;
import org.opendaylight.yangtools.yang.data.api.schema.NormalizedNodeContainer;
+import org.opendaylight.yangtools.yang.data.api.schema.builder.NormalizedNodeContainerBuilder;
import org.opendaylight.yangtools.yang.data.api.schema.tree.ConflictingModificationAppliedException;
import org.opendaylight.yangtools.yang.data.api.schema.tree.DataTreeConfiguration;
import org.opendaylight.yangtools.yang.data.api.schema.tree.DataValidationFailedException;
import org.opendaylight.yangtools.yang.data.api.schema.tree.ModificationType;
import org.opendaylight.yangtools.yang.data.api.schema.tree.ModifiedNodeDoesNotExistException;
import org.opendaylight.yangtools.yang.data.api.schema.tree.TreeType;
-import org.opendaylight.yangtools.yang.data.api.schema.tree.spi.MutableTreeNode;
-import org.opendaylight.yangtools.yang.data.api.schema.tree.spi.TreeNode;
-import org.opendaylight.yangtools.yang.data.api.schema.tree.spi.TreeNodeFactory;
-import org.opendaylight.yangtools.yang.data.api.schema.tree.spi.Version;
-import org.opendaylight.yangtools.yang.data.impl.schema.builder.api.NormalizedNodeContainerBuilder;
+import org.opendaylight.yangtools.yang.data.spi.tree.MutableTreeNode;
+import org.opendaylight.yangtools.yang.data.spi.tree.TreeNode;
+import org.opendaylight.yangtools.yang.data.spi.tree.TreeNodeFactory;
+import org.opendaylight.yangtools.yang.data.spi.tree.Version;
import org.opendaylight.yangtools.yang.model.api.DocumentedNode.WithStatus;
abstract class AbstractNodeContainerModificationStrategy<T extends WithStatus>
return entryStrategy.getSchema();
}
- final Optional<ModificationApplyOperation> entryStrategy() {
- return Optional.of(entryStrategy);
+ final @NonNull ModificationApplyOperation entryStrategy() {
+ return entryStrategy;
}
@Override
}
@Override
- final void verifyValue(final NormalizedNode<?, ?> writtenValue) {
+ final void verifyValue(final NormalizedNode writtenValue) {
final Class<?> nodeClass = support.requiredClass;
checkArgument(nodeClass.isInstance(writtenValue), "Node %s is not of type %s", writtenValue, nodeClass);
checkArgument(writtenValue instanceof NormalizedNodeContainer);
}
@Override
- final void verifyValueChildren(final NormalizedNode<?, ?> writtenValue) {
+ final void verifyValueChildren(final NormalizedNode writtenValue) {
if (verifyChildrenStructure) {
- final NormalizedNodeContainer<?, ?, ?> container = (NormalizedNodeContainer<?, ?, ?>) writtenValue;
- for (final NormalizedNode<?, ?> child : container.getValue()) {
- final Optional<ModificationApplyOperation> childOp = getChild(child.getIdentifier());
- if (childOp.isPresent()) {
- childOp.get().fullVerifyStructure(child);
- } else {
+ final DistinctNodeContainer<?, ?> container = (DistinctNodeContainer<?, ?>) writtenValue;
+ for (final NormalizedNode child : container.body()) {
+ final ModificationApplyOperation childOp = childByArg(child.getIdentifier());
+ if (childOp == null) {
throw new SchemaValidationFailedException(String.format(
- "Node %s is not a valid child of %s according to the schema.",
- child.getIdentifier(), container.getIdentifier()));
+ "Node %s is not a valid child of %s according to the schema.",
+ child.getIdentifier(), container.getIdentifier()));
}
+ childOp.fullVerifyStructure(child);
}
optionalVerifyValueChildren(writtenValue);
*
* @param writtenValue Effective written value
*/
- void optionalVerifyValueChildren(final NormalizedNode<?, ?> writtenValue) {
+ void optionalVerifyValueChildren(final NormalizedNode writtenValue) {
// Defaults to no-op
}
*
* @param writtenValue Effective written value
*/
- void mandatoryVerifyValueChildren(final NormalizedNode<?, ?> writtenValue) {
+ void mandatoryVerifyValueChildren(final NormalizedNode writtenValue) {
// Defaults to no-op
}
@Override
- protected final void recursivelyVerifyStructure(final NormalizedNode<?, ?> value) {
- final NormalizedNodeContainer<?, ?, ?> container = (NormalizedNodeContainer<?, ?, ?>) value;
- for (final NormalizedNode<?, ?> child : container.getValue()) {
- final Optional<ModificationApplyOperation> childOp = getChild(child.getIdentifier());
- if (!childOp.isPresent()) {
+ protected final void recursivelyVerifyStructure(final NormalizedNode value) {
+ final NormalizedNodeContainer<?> container = (NormalizedNodeContainer<?>) value;
+ for (final NormalizedNode child : container.body()) {
+ final ModificationApplyOperation childOp = childByArg(child.getIdentifier());
+ if (childOp == null) {
throw new SchemaValidationFailedException(
String.format("Node %s is not a valid child of %s according to the schema.",
child.getIdentifier(), container.getIdentifier()));
}
- childOp.get().recursivelyVerifyStructure(child);
+ childOp.recursivelyVerifyStructure(child);
}
}
@Override
- protected TreeNode applyWrite(final ModifiedNode modification, final NormalizedNode<?, ?> newValue,
+ protected TreeNode applyWrite(final ModifiedNode modification, final NormalizedNode newValue,
final Optional<? extends TreeNode> currentMeta, final Version version) {
final TreeNode newValueMeta = TreeNodeFactory.createTreeNode(newValue, version);
}
/*
- * This is where things get interesting. The user has performed a write and
- * then she applied some more modifications to it. So we need to make sense
- * of that an apply the operations on top of the written value. We could have
- * done it during the write, but this operation is potentially expensive, so
- * we have left it out of the fast path.
+ * This is where things get interesting. The user has performed a write and then she applied some more
+ * modifications to it. So we need to make sense of that and apply the operations on top of the written value.
+ *
+ * We could have done it during the write, but this operation is potentially expensive, so we have left it out
+ * of the fast path.
*
- * As it turns out, once we materialize the written data, we can share the
- * code path with the subtree change. So let's create an unsealed TreeNode
- * and run the common parts on it -- which end with the node being sealed.
+ * As it turns out, once we materialize the written data, we can share the code path with the subtree change. So
+ * let's create an unsealed TreeNode and run the common parts on it -- which end with the node being sealed.
*
- * FIXME: this code needs to be moved out from the prepare() path and into
- * the read() and seal() paths. Merging of writes needs to be charged
- * to the code which originated this, not to the code which is
- * attempting to make it visible.
+ * FIXME: this code needs to be moved out from the prepare() path and into the read() and seal() paths. Merging
+ * of writes needs to be charged to the code which originated this, not to the code which is attempting
+ * to make it visible.
*/
final MutableTreeNode mutable = newValueMeta.mutable();
mutable.setSubtreeVersion(version);
for (final ModifiedNode mod : modifications) {
final PathArgument id = mod.getIdentifier();
- final Optional<? extends TreeNode> cm = meta.getChild(id);
+ final Optional<? extends TreeNode> cm = meta.findChildByArg(id);
final Optional<? extends TreeNode> result = resolveChildOperation(id).apply(mod, cm, nodeVersion);
if (result.isPresent()) {
final TreeNode tn = result.get();
- meta.addChild(tn);
+ meta.putChild(tn);
data.addChild(tn.getData());
} else {
meta.removeChild(id);
* we do that, ModifiedNode children will look like this node were a TOUCH and we will let applyTouch() do the
* heavy lifting of applying the children recursively (either through here or through applyWrite().
*/
- final NormalizedNode<?, ?> value = modification.getWrittenValue();
+ final NormalizedNode value = modification.getWrittenValue();
- Verify.verify(value instanceof NormalizedNodeContainer, "Attempted to merge non-container %s", value);
- for (final NormalizedNode<?, ?> c : ((NormalizedNodeContainer<?, ?, ?>) value).getValue()) {
+ Verify.verify(value instanceof DistinctNodeContainer, "Attempted to merge non-container %s", value);
+ for (final NormalizedNode c : ((DistinctNodeContainer<?, ?>) value).body()) {
final PathArgument id = c.getIdentifier();
modification.modifyChild(id, resolveChildOperation(id), version);
}
}
private void mergeChildrenIntoModification(final ModifiedNode modification,
- final Collection<? extends NormalizedNode<?, ?>> children, final Version version) {
- for (final NormalizedNode<?, ?> c : children) {
+ final Collection<? extends NormalizedNode> children, final Version version) {
+ for (final NormalizedNode c : children) {
final ModificationApplyOperation childOp = resolveChildOperation(c.getIdentifier());
final ModifiedNode childNode = modification.modifyChild(c.getIdentifier(), childOp, version);
childOp.mergeIntoModifiedNode(childNode, c, version);
}
@Override
- final void mergeIntoModifiedNode(final ModifiedNode modification, final NormalizedNode<?, ?> value,
+ final void mergeIntoModifiedNode(final ModifiedNode modification, final NormalizedNode value,
final Version version) {
- final Collection<? extends NormalizedNode<?, ?>> children =
- ((NormalizedNodeContainer<?, ?, ?>)value).getValue();
-
+ final Collection<? extends NormalizedNode> children = ((DistinctNodeContainer<?, ?>)value).body();
switch (modification.getOperation()) {
case NONE:
// Fresh node, just record a MERGE with a value
case TOUCH:
mergeChildrenIntoModification(modification, children, version);
- // We record empty merge value, since real children merges
- // are already expanded. This is needed to satisfy non-null for merge
- // original merge value can not be used since it mean different
- // order of operation - parent changes are always resolved before
- // children ones, and having node in TOUCH means children was modified
- // before.
+ // We record empty merge value, since real children merges are already expanded. This is needed to
+ // satisfy non-null for merge original merge value can not be used since it mean different order of
+ // operation - parent changes are always resolved before children ones, and having node in TOUCH means
+ // children was modified before.
modification.updateValue(LogicalOperation.MERGE, support.createEmptyValue(value));
return;
case MERGE:
@Override
protected TreeNode applyTouch(final ModifiedNode modification, final TreeNode currentMeta, final Version version) {
/*
- * The user may have issued an empty merge operation. In this case we do not perform
- * a data tree mutation, do not pass GO, and do not collect useless garbage. It
- * also means the ModificationType is UNMODIFIED.
+ * The user may have issued an empty merge operation. In this case we:
+ * - do not perform a data tree mutation
+ * - do not pass GO, and
+ * - do not collect useless garbage.
+ * It also means the ModificationType is UNMODIFIED.
*/
final Collection<ModifiedNode> children = modification.getChildren();
if (!children.isEmpty()) {
final TreeNode ret = mutateChildren(newMeta, dataBuilder, version, children);
/*
- * It is possible that the only modifications under this node were empty merges,
- * which were turned into UNMODIFIED. If that is the case, we can turn this operation
- * into UNMODIFIED, too, potentially cascading it up to root. This has the benefit
- * of speeding up any users, who can skip processing child nodes.
+ * It is possible that the only modifications under this node were empty merges, which were turned into
+ * UNMODIFIED. If that is the case, we can turn this operation into UNMODIFIED, too, potentially cascading
+ * it up to root. This has the benefit of speeding up any users, who can skip processing child nodes.
*
* In order to do that, though, we have to check all child operations are UNMODIFIED.
+ *
* Let's do precisely that, stopping as soon we find a different result.
*/
for (final ModifiedNode child : children) {
return null;
}
- static final TreeNode defaultTreeNode(final NormalizedNode<?, ?> emptyNode) {
+ static final TreeNode defaultTreeNode(final NormalizedNode emptyNode) {
return TreeNodeFactory.createTreeNode(emptyNode, FAKE_VERSION);
}
final TreeNode current, final Version version) throws DataValidationFailedException {
for (final NodeModification childMod : modification.getChildren()) {
final PathArgument childId = childMod.getIdentifier();
- final Optional<? extends TreeNode> childMeta = current.getChild(childId);
+ final Optional<? extends TreeNode> childMeta = current.findChildByArg(childId);
path.push(childId);
try {
}
@Override
- public final String toString() {
- return addToStringAttributes(MoreObjects.toStringHelper(this)).toString();
- }
-
ToStringHelper addToStringAttributes(final ToStringHelper helper) {
return helper.add("support", support).add("verifyChildren", verifyChildrenStructure);
}