import org.eclipse.jdt.annotation.Nullable;
import org.opendaylight.mdsal.binding.model.api.Enumeration;
import org.opendaylight.mdsal.binding.model.api.GeneratedTransferObject;
-import org.opendaylight.mdsal.binding.model.api.GeneratedType;
+import org.opendaylight.mdsal.binding.model.api.Type;
import org.opendaylight.mdsal.binding.model.api.type.builder.GeneratedTypeBuilder;
import org.opendaylight.mdsal.binding.model.ri.BindingTypes;
+import org.opendaylight.mdsal.binding.runtime.api.CompositeRuntimeType;
+import org.opendaylight.mdsal.binding.runtime.api.RuntimeType;
+import org.opendaylight.yangtools.rfc8040.model.api.YangDataEffectiveStatement;
import org.opendaylight.yangtools.yang.common.QName;
import org.opendaylight.yangtools.yang.model.api.AddedByUsesAware;
import org.opendaylight.yangtools.yang.model.api.CopyableNode;
import org.opendaylight.yangtools.yang.model.api.stmt.CaseEffectiveStatement;
import org.opendaylight.yangtools.yang.model.api.stmt.ChoiceEffectiveStatement;
import org.opendaylight.yangtools.yang.model.api.stmt.ContainerEffectiveStatement;
+import org.opendaylight.yangtools.yang.model.api.stmt.FeatureEffectiveStatement;
import org.opendaylight.yangtools.yang.model.api.stmt.GroupingEffectiveStatement;
import org.opendaylight.yangtools.yang.model.api.stmt.IdentityEffectiveStatement;
import org.opendaylight.yangtools.yang.model.api.stmt.InputEffectiveStatement;
* A composite generator. Composite generators may contain additional children, which end up being mapped into
* the naming hierarchy 'under' the composite generator. To support this use case, each composite has a Java package
* name assigned.
+ *
+ * <p>
+ * State tracking for resolution of children to their original declaration, i.e. back along the 'uses' and 'augment'
+ * axis. This is quite convoluted because we are traversing the generator tree recursively in the iteration order of
+ * children, but actual dependencies may require resolution in a different order, for example in the case of:
+ * <pre>
+ * container foo {
+ * uses bar { // A
+ * augment bar { // B
+ * container xyzzy; // C
+ * }
+ * }
+ *
+ * grouping bar {
+ * container bar { // D
+ * uses baz; // E
+ * }
+ * }
+ *
+ * grouping baz {
+ * leaf baz { // F
+ * type string;
+ * }
+ * }
+ * }
+ *
+ * augment /foo/bar/xyzzy { // G
+ * leaf xyzzy { // H
+ * type string;
+ * }
+ * }
+ * </pre>
+ *
+ * <p>
+ * In this case we have three manifestations of 'leaf baz' -- marked A, E and F in the child iteration order. In order
+ * to perform a resolution, we first have to determine that F is the original definition, then establish that E is using
+ * the definition made by F and finally establish that A is using the definition made by F.
+ *
+ * <p>
+ * Dealing with augmentations is harder still, because we need to attach them to the original definition, hence for the
+ * /foo/bar container at A, we need to understand that its original definition is at D and we need to attach the augment
+ * at B to D. Futhermore we also need to establish that the augmentation at G attaches to container defined in C, so
+ * that the 'leaf xyzzy' existing as /foo/bar/xyzzy/xyzzy under C has its original definition at H.
+ *
+ * <p>
+ * Finally realize that the augment at G can actually exist in a different module and is shown in this example only
+ * the simplified form. That also means we could encounter G well before 'container foo' as well as we can have multiple
+ * such augments sprinkled across multiple modules having the same dependency rules as between C and G -- but they still
+ * have to form a directed acyclic graph and we partially deal with those complexities by having modules sorted by their
+ * dependencies.
+ *
+ * <p>
+ * For further details see {@link #linkOriginalGenerator()} and {@link #linkOriginalGeneratorRecursive()}, which deal
+ * with linking original instances in the tree iteration order. The part dealing with augment attachment lives mostly
+ * in {@link AugmentRequirement}.
*/
-abstract class AbstractCompositeGenerator<T extends EffectiveStatement<?, ?>> extends AbstractExplicitGenerator<T> {
+public abstract class AbstractCompositeGenerator<S extends EffectiveStatement<?, ?>, R extends CompositeRuntimeType>
+ extends AbstractExplicitGenerator<S, R> {
private static final Logger LOG = LoggerFactory.getLogger(AbstractCompositeGenerator.class);
+ // FIXME: we want to allocate this lazily to lower memory footprint
private final @NonNull CollisionDomain domain = new CollisionDomain(this);
- private final List<Generator> children;
+ private final @NonNull List<Generator> childGenerators;
+
+ /**
+ * List of {@code augment} statements targeting this generator. This list is maintained only for the primary
+ * incarnation. This list is an evolving entity until after we have finished linkage of original statements. It is
+ * expected to be stable at the start of {@code step 2} in {@link GeneratorReactor#execute(TypeBuilderFactory)}.
+ */
+ private @NonNull List<AbstractAugmentGenerator> augments = List.of();
- private List<AbstractAugmentGenerator> augments = List.of();
+ /**
+ * List of {@code grouping} statements this statement references. This field is set once by
+ * {@link #linkUsesDependencies(GeneratorContext)}.
+ */
private List<GroupingGenerator> groupings;
- AbstractCompositeGenerator(final T statement) {
+ /**
+ * List of composite children which have not been recursively processed. This may become a mutable list when we
+ * have some children which have not completed linking. Once we have completed linking of all children, including
+ * {@link #unlinkedChildren}, this will be set to {@code null}.
+ */
+ private List<AbstractCompositeGenerator<?, ?>> unlinkedComposites = List.of();
+ /**
+ * List of children which have not had their original linked. This list starts of as null. When we first attempt
+ * linkage, it becomes non-null.
+ */
+ private List<Generator> unlinkedChildren;
+
+ AbstractCompositeGenerator(final S statement) {
super(statement);
- children = createChildren(statement);
+ childGenerators = createChildren(statement);
}
- AbstractCompositeGenerator(final T statement, final AbstractCompositeGenerator<?> parent) {
+ AbstractCompositeGenerator(final S statement, final AbstractCompositeGenerator<?, ?> parent) {
super(statement, parent);
- children = createChildren(statement);
+ childGenerators = createChildren(statement);
}
@Override
public final Iterator<Generator> iterator() {
- return children.iterator();
+ return childGenerators.iterator();
+ }
+
+ final @NonNull List<AbstractAugmentGenerator> augments() {
+ return augments;
+ }
+
+ final @NonNull List<GroupingGenerator> groupings() {
+ return verifyNotNull(groupings, "Groupings not initialized in %s", this);
+ }
+
+ @Override
+ final R createExternalRuntimeType(final Type type) {
+ return createBuilder(statement()).populate(new AugmentResolver(), this).build(verifyGeneratedType(type));
+ }
+
+ abstract @NonNull CompositeRuntimeTypeBuilder<S, R> createBuilder(S statement);
+
+ @Override
+ final R createInternalRuntimeType(final AugmentResolver resolver, final S statement, final Type type) {
+ return createBuilder(statement).populate(resolver, this).build(verifyGeneratedType(type));
}
@Override
final boolean isEmpty() {
- return children.isEmpty();
+ return childGenerators.isEmpty();
}
- final @Nullable AbstractExplicitGenerator<?> findGenerator(final List<EffectiveStatement<?, ?>> stmtPath) {
+ final @Nullable AbstractExplicitGenerator<?, ?> findGenerator(final List<EffectiveStatement<?, ?>> stmtPath) {
return findGenerator(MatchStrategy.identity(), stmtPath, 0);
}
- final @Nullable AbstractExplicitGenerator<?> findGenerator(final MatchStrategy childStrategy,
+ final @Nullable AbstractExplicitGenerator<?, ?> findGenerator(final MatchStrategy childStrategy,
// TODO: Wouldn't this method be nicer with Deque<EffectiveStatement<?, ?>> ?
final List<EffectiveStatement<?, ?>> stmtPath, final int offset) {
- final EffectiveStatement<?, ?> stmt = stmtPath.get(offset);
+ final var stmt = stmtPath.get(offset);
// Try direct children first, which is simple
- AbstractExplicitGenerator<?> ret = childStrategy.findGenerator(stmt, children);
+ var ret = childStrategy.findGenerator(stmt, childGenerators);
if (ret != null) {
final int next = offset + 1;
if (stmtPath.size() == next) {
// Final step, return child
return ret;
}
- if (ret instanceof AbstractCompositeGenerator) {
+ if (ret instanceof AbstractCompositeGenerator<?, ?> composite) {
// We know how to descend down
- return ((AbstractCompositeGenerator<?>) ret).findGenerator(childStrategy, stmtPath, next);
+ return composite.findGenerator(childStrategy, stmtPath, next);
}
// Yeah, don't know how to continue here
return null;
final void linkUsesDependencies(final GeneratorContext context) {
// We are establishing two linkages here:
// - we are resolving 'uses' statements to their corresponding 'grouping' definitions
- // - we propagate those groupings as anchors to any augment statements
- final List<GroupingGenerator> tmp = new ArrayList<>();
- for (EffectiveStatement<?, ?> stmt : statement().effectiveSubstatements()) {
- if (stmt instanceof UsesEffectiveStatement) {
- final UsesEffectiveStatement uses = (UsesEffectiveStatement) stmt;
- final GroupingGenerator grouping = context.resolveTreeScoped(GroupingGenerator.class, uses.argument());
+ // - we propagate those groupings as anchors to any augment statements, which takes out some amount of guesswork
+ // from augment+uses resolution case, as groupings know about their immediate augments as soon as uses linkage
+ // is resolved
+ final var tmp = new ArrayList<GroupingGenerator>();
+ for (var stmt : statement().effectiveSubstatements()) {
+ if (stmt instanceof UsesEffectiveStatement uses) {
+ final var grouping = context.resolveTreeScoped(GroupingGenerator.class, uses.argument());
tmp.add(grouping);
+ // Trigger resolution of uses/augment statements. This looks like guesswork, but there may be multiple
+ // 'augment' statements in a 'uses' statement and keeping a ListMultimap here seems wasteful.
for (Generator gen : this) {
- if (gen instanceof UsesAugmentGenerator) {
- ((UsesAugmentGenerator) gen).linkGroupingDependency(uses, grouping);
+ if (gen instanceof UsesAugmentGenerator usesGen) {
+ usesGen.resolveGrouping(uses, grouping);
}
}
}
groupings = List.copyOf(tmp);
}
+ final void startUsesAugmentLinkage(final List<AugmentRequirement> requirements) {
+ for (var child : childGenerators) {
+ if (child instanceof UsesAugmentGenerator uses) {
+ requirements.add(uses.startLinkage());
+ }
+ if (child instanceof AbstractCompositeGenerator<?, ?> composite) {
+ composite.startUsesAugmentLinkage(requirements);
+ }
+ }
+ }
+
final void addAugment(final AbstractAugmentGenerator augment) {
if (augments.isEmpty()) {
augments = new ArrayList<>(2);
augments.add(requireNonNull(augment));
}
+ /**
+ * Attempt to link the generator corresponding to the original definition for this generator's statements as well as
+ * to all child generators.
+ *
+ * @return Progress indication
+ */
+ final @NonNull LinkageProgress linkOriginalGeneratorRecursive() {
+ if (unlinkedComposites == null) {
+ // We have unset this list (see below), and there is nothing left to do
+ return LinkageProgress.DONE;
+ }
+
+ if (unlinkedChildren == null) {
+ unlinkedChildren = childGenerators.stream()
+ .filter(AbstractExplicitGenerator.class::isInstance)
+ .map(child -> (AbstractExplicitGenerator<?, ?>) child)
+ .collect(Collectors.toList());
+ }
+
+ var progress = LinkageProgress.NONE;
+ if (!unlinkedChildren.isEmpty()) {
+ // Attempt to make progress on child linkage
+ final var it = unlinkedChildren.iterator();
+ while (it.hasNext()) {
+ if (it.next() instanceof AbstractExplicitGenerator<?, ?> explicit && explicit.linkOriginalGenerator()) {
+ progress = LinkageProgress.SOME;
+ it.remove();
+
+ // If this is a composite generator we need to process is further
+ if (explicit instanceof AbstractCompositeGenerator<?, ?> composite) {
+ if (unlinkedComposites.isEmpty()) {
+ unlinkedComposites = new ArrayList<>();
+ }
+ unlinkedComposites.add(composite);
+ }
+ }
+ }
+
+ if (unlinkedChildren.isEmpty()) {
+ // Nothing left to do, make sure any previously-allocated list can be scavenged
+ unlinkedChildren = List.of();
+ }
+ }
+
+ // Process children of any composite children we have.
+ final var it = unlinkedComposites.iterator();
+ while (it.hasNext()) {
+ final var tmp = it.next().linkOriginalGeneratorRecursive();
+ if (tmp != LinkageProgress.NONE) {
+ progress = LinkageProgress.SOME;
+ }
+ if (tmp == LinkageProgress.DONE) {
+ it.remove();
+ }
+ }
+
+ if (unlinkedChildren.isEmpty() && unlinkedComposites.isEmpty()) {
+ // All done, set the list to null to indicate there is nothing left to do in this generator or any of our
+ // children.
+ unlinkedComposites = null;
+ return LinkageProgress.DONE;
+ }
+
+ return progress;
+ }
+
+ @Override
+ final AbstractCompositeGenerator<S, R> getOriginal() {
+ return (AbstractCompositeGenerator<S, R>) super.getOriginal();
+ }
+
@Override
- final AbstractCompositeGenerator<?> getOriginal() {
- return (AbstractCompositeGenerator<?>) super.getOriginal();
+ final AbstractCompositeGenerator<S, R> tryOriginal() {
+ return (AbstractCompositeGenerator<S, R>) super.tryOriginal();
}
- final @NonNull AbstractExplicitGenerator<?> getOriginalChild(final QName childQName) {
+ final <X extends EffectiveStatement<?, ?>, Y extends RuntimeType> @Nullable OriginalLink<X, Y> originalChild(
+ final QName childQName) {
// First try groupings/augments ...
- final AbstractExplicitGenerator<?> found = findInferredGenerator(childQName);
+ var found = findInferredGenerator(childQName);
if (found != null) {
- return found;
+ return (OriginalLink<X, Y>) OriginalLink.partial(found);
}
// ... no luck, we really need to start looking at our origin
- final AbstractExplicitGenerator<?> prev = verifyNotNull(previous(),
- "Failed to find %s in scope of %s", childQName, this);
+ final var prev = previous();
+ if (prev != null) {
+ final QName prevQName = childQName.bindTo(prev.getQName().getModule());
+ found = prev.findSchemaTreeGenerator(prevQName);
+ if (found != null) {
+ return (OriginalLink<X, Y>) found.originalLink();
+ }
+ }
- final QName prevQName = childQName.bindTo(prev.getQName().getModule());
- return verifyNotNull(prev.findSchemaTreeGenerator(prevQName),
- "Failed to find child %s (proxy for %s) in %s", prevQName, childQName, prev).getOriginal();
+ return null;
}
@Override
- final @Nullable AbstractExplicitGenerator<?> findSchemaTreeGenerator(final QName qname) {
- final AbstractExplicitGenerator<?> found = super.findSchemaTreeGenerator(qname);
+ final AbstractExplicitGenerator<?, ?> findSchemaTreeGenerator(final QName qname) {
+ final var found = super.findSchemaTreeGenerator(qname);
return found != null ? found : findInferredGenerator(qname);
}
- private @Nullable AbstractExplicitGenerator<?> findInferredGenerator(final QName qname) {
+ final @Nullable AbstractAugmentGenerator findAugmentForGenerator(final QName qname) {
+ for (var augment : augments) {
+ final var gen = augment.findSchemaTreeGenerator(qname);
+ if (gen != null) {
+ return augment;
+ }
+ }
+ return null;
+ }
+
+ final @Nullable GroupingGenerator findGroupingForGenerator(final QName qname) {
+ for (var grouping : groupings) {
+ final var gen = grouping.findSchemaTreeGenerator(qname.bindTo(grouping.statement().argument().getModule()));
+ if (gen != null) {
+ return grouping;
+ }
+ }
+ return null;
+ }
+
+ private @Nullable AbstractExplicitGenerator<?, ?> findInferredGenerator(final QName qname) {
// First search our local groupings ...
- for (GroupingGenerator grouping : groupings) {
- final AbstractExplicitGenerator<?> gen = grouping.findSchemaTreeGenerator(
- qname.bindTo(grouping.statement().argument().getModule()));
+ for (var grouping : groupings) {
+ final var gen = grouping.findSchemaTreeGenerator(qname.bindTo(grouping.statement().argument().getModule()));
if (gen != null) {
return gen;
}
}
// ... next try local augments, which may have groupings themselves
- for (AbstractAugmentGenerator augment : augments) {
- final AbstractExplicitGenerator<?> gen = augment.findSchemaTreeGenerator(qname);
+ for (var augment : augments) {
+ final var gen = augment.findSchemaTreeGenerator(qname);
if (gen != null) {
return gen;
}
* @return The number of groupings this type uses.
*/
final int addUsesInterfaces(final GeneratedTypeBuilder builder, final TypeBuilderFactory builderFactory) {
- for (GroupingGenerator grp : groupings) {
+ for (var grp : groupings) {
builder.addImplementsType(grp.getGeneratedType(builderFactory));
}
return groupings.size();
}
final void addGetterMethods(final GeneratedTypeBuilder builder, final TypeBuilderFactory builderFactory) {
- for (Generator child : this) {
+ for (var child : this) {
// Only process explicit generators here
- if (child instanceof AbstractExplicitGenerator) {
- ((AbstractExplicitGenerator<?>) child).addAsGetterMethod(builder, builderFactory);
+ if (child instanceof AbstractExplicitGenerator<?, ?> explicit) {
+ explicit.addAsGetterMethod(builder, builderFactory);
}
- final GeneratedType enclosedType = child.enclosedType(builderFactory);
- if (enclosedType instanceof GeneratedTransferObject) {
- builder.addEnclosingTransferObject((GeneratedTransferObject) enclosedType);
- } else if (enclosedType instanceof Enumeration) {
- builder.addEnumeration((Enumeration) enclosedType);
+ final var enclosedType = child.enclosedType(builderFactory);
+ if (enclosedType instanceof GeneratedTransferObject gto) {
+ builder.addEnclosingTransferObject(gto);
+ } else if (enclosedType instanceof Enumeration enumeration) {
+ builder.addEnumeration(enumeration);
} else {
verify(enclosedType == null, "Unhandled enclosed type %s in %s", enclosedType, child);
}
}
}
- private List<Generator> createChildren(final EffectiveStatement<?, ?> statement) {
- final List<Generator> tmp = new ArrayList<>();
- final List<AbstractAugmentGenerator> tmpAug = new ArrayList<>();
+ private @NonNull List<Generator> createChildren(final EffectiveStatement<?, ?> statement) {
+ final var tmp = new ArrayList<Generator>();
+ final var tmpAug = new ArrayList<AbstractAugmentGenerator>();
- for (EffectiveStatement<?, ?> stmt : statement.effectiveSubstatements()) {
- if (stmt instanceof ActionEffectiveStatement) {
- if (!isAugmenting(stmt)) {
- tmp.add(new ActionGenerator((ActionEffectiveStatement) stmt, this));
+ for (var stmt : statement.effectiveSubstatements()) {
+ if (stmt instanceof ActionEffectiveStatement action) {
+ if (!isAugmenting(action)) {
+ tmp.add(new ActionGenerator(action, this));
}
- } else if (stmt instanceof AnydataEffectiveStatement) {
- if (!isAugmenting(stmt)) {
- tmp.add(new OpaqueObjectGenerator<>((AnydataEffectiveStatement) stmt, this));
+ } else if (stmt instanceof AnydataEffectiveStatement anydata) {
+ if (!isAugmenting(anydata)) {
+ tmp.add(new OpaqueObjectGenerator.Anydata(anydata, this));
}
- } else if (stmt instanceof AnyxmlEffectiveStatement) {
- if (!isAugmenting(stmt)) {
- tmp.add(new OpaqueObjectGenerator<>((AnyxmlEffectiveStatement) stmt, this));
+ } else if (stmt instanceof AnyxmlEffectiveStatement anyxml) {
+ if (!isAugmenting(anyxml)) {
+ tmp.add(new OpaqueObjectGenerator.Anyxml(anyxml, this));
}
- } else if (stmt instanceof CaseEffectiveStatement) {
- tmp.add(new CaseGenerator((CaseEffectiveStatement) stmt, this));
- } else if (stmt instanceof ChoiceEffectiveStatement) {
+ } else if (stmt instanceof CaseEffectiveStatement cast) {
+ tmp.add(new CaseGenerator(cast, this));
+ } else if (stmt instanceof ChoiceEffectiveStatement choice) {
// FIXME: use isOriginalDeclaration() ?
- if (!isAddedByUses(stmt)) {
- tmp.add(new ChoiceGenerator((ChoiceEffectiveStatement) stmt, this));
+ if (!isAddedByUses(choice)) {
+ tmp.add(new ChoiceGenerator(choice, this));
}
- } else if (stmt instanceof ContainerEffectiveStatement) {
- if (isOriginalDeclaration(stmt)) {
- tmp.add(new ContainerGenerator((ContainerEffectiveStatement) stmt, this));
+ } else if (stmt instanceof ContainerEffectiveStatement container) {
+ if (isOriginalDeclaration(container)) {
+ tmp.add(new ContainerGenerator(container, this));
}
- } else if (stmt instanceof GroupingEffectiveStatement) {
- tmp.add(new GroupingGenerator((GroupingEffectiveStatement) stmt, this));
- } else if (stmt instanceof IdentityEffectiveStatement) {
- tmp.add(new IdentityGenerator((IdentityEffectiveStatement) stmt, this));
- } else if (stmt instanceof InputEffectiveStatement) {
- // FIXME: do not generate legacy RPC layout
- tmp.add(this instanceof RpcGenerator ? new RpcContainerGenerator((InputEffectiveStatement) stmt, this)
- : new OperationContainerGenerator((InputEffectiveStatement) stmt, this));
- } else if (stmt instanceof LeafEffectiveStatement) {
- if (!isAugmenting(stmt)) {
- tmp.add(new LeafGenerator((LeafEffectiveStatement) stmt, this));
+ } else if (stmt instanceof FeatureEffectiveStatement feature && this instanceof ModuleGenerator parent) {
+ tmp.add(new FeatureGenerator(feature, parent));
+ } else if (stmt instanceof GroupingEffectiveStatement grouping) {
+ tmp.add(new GroupingGenerator(grouping, this));
+ } else if (stmt instanceof IdentityEffectiveStatement identity) {
+ tmp.add(new IdentityGenerator(identity, this));
+ } else if (stmt instanceof InputEffectiveStatement input) {
+ tmp.add(new InputGenerator(input, this));
+ } else if (stmt instanceof LeafEffectiveStatement leaf) {
+ if (!isAugmenting(leaf)) {
+ tmp.add(new LeafGenerator(leaf, this));
}
- } else if (stmt instanceof LeafListEffectiveStatement) {
- if (!isAugmenting(stmt)) {
- tmp.add(new LeafListGenerator((LeafListEffectiveStatement) stmt, this));
+ } else if (stmt instanceof LeafListEffectiveStatement leafList) {
+ if (!isAugmenting(leafList)) {
+ tmp.add(new LeafListGenerator(leafList, this));
}
- } else if (stmt instanceof ListEffectiveStatement) {
- if (isOriginalDeclaration(stmt)) {
- final ListGenerator listGen = new ListGenerator((ListEffectiveStatement) stmt, this);
+ } else if (stmt instanceof ListEffectiveStatement list) {
+ if (isOriginalDeclaration(list)) {
+ final var listGen = new ListGenerator(list, this);
tmp.add(listGen);
- final KeyGenerator keyGen = listGen.keyGenerator();
+ final var keyGen = listGen.keyGenerator();
if (keyGen != null) {
tmp.add(keyGen);
}
}
- } else if (stmt instanceof NotificationEffectiveStatement) {
- if (!isAugmenting(stmt)) {
- tmp.add(new NotificationGenerator((NotificationEffectiveStatement) stmt, this));
+ } else if (stmt instanceof NotificationEffectiveStatement notification) {
+ if (!isAugmenting(notification)) {
+ tmp.add(new NotificationGenerator(notification, this));
}
- } else if (stmt instanceof OutputEffectiveStatement) {
- // FIXME: do not generate legacy RPC layout
- tmp.add(this instanceof RpcGenerator ? new RpcContainerGenerator((OutputEffectiveStatement) stmt, this)
- : new OperationContainerGenerator((OutputEffectiveStatement) stmt, this));
- } else if (stmt instanceof RpcEffectiveStatement) {
- tmp.add(new RpcGenerator((RpcEffectiveStatement) stmt, this));
- } else if (stmt instanceof TypedefEffectiveStatement) {
- tmp.add(new TypedefGenerator((TypedefEffectiveStatement) stmt, this));
- } else if (stmt instanceof AugmentEffectiveStatement) {
- if (this instanceof ModuleGenerator) {
- tmpAug.add(new ModuleAugmentGenerator((AugmentEffectiveStatement) stmt, this));
+ } else if (stmt instanceof OutputEffectiveStatement output) {
+ tmp.add(new OutputGenerator(output, this));
+ } else if (stmt instanceof RpcEffectiveStatement rpc) {
+ if (this instanceof ModuleGenerator module) {
+ tmp.add(new RpcGenerator(rpc, module));
}
- } else if (stmt instanceof UsesEffectiveStatement) {
- final UsesEffectiveStatement uses = (UsesEffectiveStatement) stmt;
- for (EffectiveStatement<?, ?> usesSub : uses.effectiveSubstatements()) {
- if (usesSub instanceof AugmentEffectiveStatement) {
- tmpAug.add(new UsesAugmentGenerator((AugmentEffectiveStatement) usesSub, this, uses));
+ } else if (stmt instanceof TypedefEffectiveStatement typedef) {
+ tmp.add(new TypedefGenerator(typedef, this));
+ } else if (stmt instanceof AugmentEffectiveStatement augment) {
+ // FIXME: MDSAL-695: So here we are ignoring any augment which is not in a module, while the 'uses'
+ // processing takes care of the rest. There are two problems here:
+ //
+ // 1) this could be an augment introduced through uses -- in this case we are picking
+ // confusing it with this being its declaration site, we should probably be
+ // ignoring it, but then
+ //
+ // 2) we are losing track of AugmentEffectiveStatement for which we do not generate
+ // interfaces -- and recover it at runtime through explicit walk along the
+ // corresponding AugmentationSchemaNode.getOriginalDefinition() pointer
+ //
+ // So here is where we should decide how to handle this augment, and make sure we
+ // retain information about this being an alias. That will serve as the base for keys
+ // in the augment -> original map we provide to BindingRuntimeTypes.
+ if (this instanceof ModuleGenerator module) {
+ tmpAug.add(new ModuleAugmentGenerator(augment, module));
+ }
+ } else if (stmt instanceof UsesEffectiveStatement uses) {
+ for (var usesSub : uses.effectiveSubstatements()) {
+ if (usesSub instanceof AugmentEffectiveStatement usesAug) {
+ tmpAug.add(new UsesAugmentGenerator(usesAug, uses, this));
}
}
+ } else if (stmt instanceof YangDataEffectiveStatement yangData) {
+ if (this instanceof ModuleGenerator moduleGen) {
+ tmp.add(YangDataGenerator.of(yangData, moduleGen));
+ }
} else {
LOG.trace("Ignoring statement {}", stmt);
- continue;
}
}
// Sort augments and add them last. This ensures child iteration order always reflects potential
- // interdependencies, hence we do not need to worry about them.
+ // interdependencies, hence we do not need to worry about them. This is extremely important, as there are a
+ // number of places where we would have to either move the logic to parent statement and explicitly filter/sort
+ // substatements to establish this order.
tmpAug.sort(AbstractAugmentGenerator.COMPARATOR);
tmp.addAll(tmpAug);
-
- // Compatibility FooService and FooListener interfaces, only generated for modules.
- if (this instanceof ModuleGenerator) {
- final ModuleGenerator moduleGen = (ModuleGenerator) this;
-
- final List<NotificationGenerator> notifs = tmp.stream()
- .filter(NotificationGenerator.class::isInstance)
- .map(NotificationGenerator.class::cast)
- .collect(Collectors.toUnmodifiableList());
- if (!notifs.isEmpty()) {
- tmp.add(new NotificationServiceGenerator(moduleGen, notifs));
- }
-
- final List<RpcGenerator> rpcs = tmp.stream()
- .filter(RpcGenerator.class::isInstance)
- .map(RpcGenerator.class::cast)
- .collect(Collectors.toUnmodifiableList());
- if (!rpcs.isEmpty()) {
- tmp.add(new RpcServiceGenerator(moduleGen, rpcs));
- }
- }
-
return List.copyOf(tmp);
}
// Utility equivalent of (!isAddedByUses(stmt) && !isAugmenting(stmt)). Takes advantage of relationship between
// CopyableNode and AddedByUsesAware
private static boolean isOriginalDeclaration(final EffectiveStatement<?, ?> stmt) {
- if (stmt instanceof AddedByUsesAware) {
- if (((AddedByUsesAware) stmt).isAddedByUses()
- || stmt instanceof CopyableNode && ((CopyableNode) stmt).isAugmenting()) {
- return false;
- }
+ if (stmt instanceof AddedByUsesAware aware
+ && (aware.isAddedByUses() || stmt instanceof CopyableNode copyable && copyable.isAugmenting())) {
+ return false;
}
return true;
}
private static boolean isAddedByUses(final EffectiveStatement<?, ?> stmt) {
- return stmt instanceof AddedByUsesAware && ((AddedByUsesAware) stmt).isAddedByUses();
+ return stmt instanceof AddedByUsesAware aware && aware.isAddedByUses();
}
private static boolean isAugmenting(final EffectiveStatement<?, ?> stmt) {
- return stmt instanceof CopyableNode && ((CopyableNode) stmt).isAugmenting();
+ return stmt instanceof CopyableNode copyable && copyable.isAugmenting();
}
}
Code Review / mdsal.git / blobdiff