Examples with FunctionCall io.trino.sql.tree.FunctionCall used on opensource projects

Example 1 with FunctionCall

use of io.trino.sql.tree.FunctionCall in project trino by trinodb.

the class ExtractSpatialJoins method tryCreateSpatialJoin.

private static Result tryCreateSpatialJoin(Context context, JoinNode joinNode, Expression filter, PlanNodeId nodeId, List<Symbol> outputSymbols, FunctionCall spatialFunction, Optional<Expression> radius, PlannerContext plannerContext, SplitManager splitManager, PageSourceManager pageSourceManager, TypeAnalyzer typeAnalyzer) {
    // TODO Add support for distributed left spatial joins
    Optional<String> spatialPartitioningTableName = joinNode.getType() == INNER ? getSpatialPartitioningTableName(context.getSession()) : Optional.empty();
    Optional<KdbTree> kdbTree = spatialPartitioningTableName.map(tableName -> loadKdbTree(tableName, context.getSession(), plannerContext.getMetadata(), splitManager, pageSourceManager));
    List<Expression> arguments = spatialFunction.getArguments();
    verify(arguments.size() == 2);
    Expression firstArgument = arguments.get(0);
    Expression secondArgument = arguments.get(1);
    Type sphericalGeographyType = plannerContext.getTypeManager().getType(SPHERICAL_GEOGRAPHY_TYPE_SIGNATURE);
    if (typeAnalyzer.getType(context.getSession(), context.getSymbolAllocator().getTypes(), firstArgument).equals(sphericalGeographyType) || typeAnalyzer.getType(context.getSession(), context.getSymbolAllocator().getTypes(), secondArgument).equals(sphericalGeographyType)) {
        return Result.empty();
    }
    Set<Symbol> firstSymbols = extractUnique(firstArgument);
    Set<Symbol> secondSymbols = extractUnique(secondArgument);
    if (firstSymbols.isEmpty() || secondSymbols.isEmpty()) {
        return Result.empty();
    }
    Optional<Symbol> newFirstSymbol = newGeometrySymbol(context, firstArgument, plannerContext.getTypeManager());
    Optional<Symbol> newSecondSymbol = newGeometrySymbol(context, secondArgument, plannerContext.getTypeManager());
    PlanNode leftNode = joinNode.getLeft();
    PlanNode rightNode = joinNode.getRight();
    PlanNode newLeftNode;
    PlanNode newRightNode;
    // Check if the order of arguments of the spatial function matches the order of join sides
    int alignment = checkAlignment(joinNode, firstSymbols, secondSymbols);
    if (alignment > 0) {
        newLeftNode = newFirstSymbol.map(symbol -> addProjection(context, leftNode, symbol, firstArgument)).orElse(leftNode);
        newRightNode = newSecondSymbol.map(symbol -> addProjection(context, rightNode, symbol, secondArgument)).orElse(rightNode);
    } else if (alignment < 0) {
        newLeftNode = newSecondSymbol.map(symbol -> addProjection(context, leftNode, symbol, secondArgument)).orElse(leftNode);
        newRightNode = newFirstSymbol.map(symbol -> addProjection(context, rightNode, symbol, firstArgument)).orElse(rightNode);
    } else {
        return Result.empty();
    }
    Expression newFirstArgument = toExpression(newFirstSymbol, firstArgument);
    Expression newSecondArgument = toExpression(newSecondSymbol, secondArgument);
    Optional<Symbol> leftPartitionSymbol = Optional.empty();
    Optional<Symbol> rightPartitionSymbol = Optional.empty();
    if (kdbTree.isPresent()) {
        leftPartitionSymbol = Optional.of(context.getSymbolAllocator().newSymbol("pid", INTEGER));
        rightPartitionSymbol = Optional.of(context.getSymbolAllocator().newSymbol("pid", INTEGER));
        if (alignment > 0) {
            newLeftNode = addPartitioningNodes(plannerContext, context, newLeftNode, leftPartitionSymbol.get(), kdbTree.get(), newFirstArgument, Optional.empty());
            newRightNode = addPartitioningNodes(plannerContext, context, newRightNode, rightPartitionSymbol.get(), kdbTree.get(), newSecondArgument, radius);
        } else {
            newLeftNode = addPartitioningNodes(plannerContext, context, newLeftNode, leftPartitionSymbol.get(), kdbTree.get(), newSecondArgument, Optional.empty());
            newRightNode = addPartitioningNodes(plannerContext, context, newRightNode, rightPartitionSymbol.get(), kdbTree.get(), newFirstArgument, radius);
        }
    }
    Expression newSpatialFunction = FunctionCallBuilder.resolve(context.getSession(), plannerContext.getMetadata()).setName(spatialFunction.getName()).addArgument(GEOMETRY_TYPE_SIGNATURE, newFirstArgument).addArgument(GEOMETRY_TYPE_SIGNATURE, newSecondArgument).build();
    Expression newFilter = replaceExpression(filter, ImmutableMap.of(spatialFunction, newSpatialFunction));
    return Result.ofPlanNode(new SpatialJoinNode(nodeId, SpatialJoinNode.Type.fromJoinNodeType(joinNode.getType()), newLeftNode, newRightNode, outputSymbols, newFilter, leftPartitionSymbol, rightPartitionSymbol, kdbTree.map(KdbTreeUtils::toJson)));
}

Example 2 with FunctionCall

use of io.trino.sql.tree.FunctionCall in project trino by trinodb.

the class ExtractSpatialJoins method addPartitioningNodes.

private static PlanNode addPartitioningNodes(PlannerContext plannerContext, Context context, PlanNode node, Symbol partitionSymbol, KdbTree kdbTree, Expression geometry, Optional<Expression> radius) {
    Assignments.Builder projections = Assignments.builder();
    for (Symbol outputSymbol : node.getOutputSymbols()) {
        projections.putIdentity(outputSymbol);
    }
    TypeSignature typeSignature = new TypeSignature(KDB_TREE_TYPENAME);
    FunctionCallBuilder spatialPartitionsCall = FunctionCallBuilder.resolve(context.getSession(), plannerContext.getMetadata()).setName(QualifiedName.of("spatial_partitions")).addArgument(typeSignature, new Cast(new StringLiteral(KdbTreeUtils.toJson(kdbTree)), toSqlType(plannerContext.getTypeManager().getType(typeSignature)))).addArgument(GEOMETRY_TYPE_SIGNATURE, geometry);
    radius.ifPresent(value -> spatialPartitionsCall.addArgument(DOUBLE, value));
    FunctionCall partitioningFunction = spatialPartitionsCall.build();
    Symbol partitionsSymbol = context.getSymbolAllocator().newSymbol(partitioningFunction, new ArrayType(INTEGER));
    projections.put(partitionsSymbol, partitioningFunction);
    return new UnnestNode(context.getIdAllocator().getNextId(), new ProjectNode(context.getIdAllocator().getNextId(), node, projections.build()), node.getOutputSymbols(), ImmutableList.of(new UnnestNode.Mapping(partitionsSymbol, ImmutableList.of(partitionSymbol))), Optional.empty(), INNER, Optional.empty());
}

Example 3 with FunctionCall

use of io.trino.sql.tree.FunctionCall in project trino by trinodb.

the class PatternRecognitionAnalyzer method analyze.

public static PatternRecognitionAnalysis analyze(List<SubsetDefinition> subsets, List<VariableDefinition> variableDefinitions, List<MeasureDefinition> measures, RowPattern pattern, Optional<SkipTo> skipTo) {
    // extract label names (Identifiers) from PATTERN and SUBSET clauses. create labels respecting SQL identifier semantics
    Set<String> primaryLabels = extractExpressions(ImmutableList.of(pattern), Identifier.class).stream().map(PatternRecognitionAnalyzer::label).collect(toImmutableSet());
    List<String> unionLabels = subsets.stream().map(SubsetDefinition::getName).map(PatternRecognitionAnalyzer::label).collect(toImmutableList());
    // analyze SUBSET
    Set<String> unique = new HashSet<>();
    for (SubsetDefinition subset : subsets) {
        String label = label(subset.getName());
        if (primaryLabels.contains(label)) {
            throw semanticException(INVALID_LABEL, subset.getName(), "union pattern variable name: %s is a duplicate of primary pattern variable name", subset.getName());
        }
        if (!unique.add(label)) {
            throw semanticException(INVALID_LABEL, subset.getName(), "union pattern variable name: %s is declared twice", subset.getName());
        }
        for (Identifier element : subset.getIdentifiers()) {
            // TODO can there be repetitions in the list of subset elements? (currently repetitions are supported)
            if (!primaryLabels.contains(label(element))) {
                throw semanticException(INVALID_LABEL, element, "subset element: %s is not a primary pattern variable", element);
            }
        }
    }
    // analyze DEFINE
    unique = new HashSet<>();
    for (VariableDefinition definition : variableDefinitions) {
        String label = label(definition.getName());
        if (!primaryLabels.contains(label)) {
            throw semanticException(INVALID_LABEL, definition.getName(), "defined variable: %s is not a primary pattern variable", definition.getName());
        }
        if (!unique.add(label)) {
            throw semanticException(INVALID_LABEL, definition.getName(), "pattern variable with name: %s is defined twice", definition.getName());
        }
        // DEFINE clause only supports RUNNING semantics which is default
        Expression expression = definition.getExpression();
        extractExpressions(ImmutableList.of(expression), FunctionCall.class).stream().filter(functionCall -> functionCall.getProcessingMode().map(mode -> mode.getMode() == FINAL).orElse(false)).findFirst().ifPresent(functionCall -> {
            throw semanticException(INVALID_PROCESSING_MODE, functionCall.getProcessingMode().get(), "FINAL semantics is not supported in DEFINE clause");
        });
    }
    // record primary labels without definitions. they are implicitly associated with `true` condition
    Set<String> undefinedLabels = Sets.difference(primaryLabels, unique);
    // validate pattern quantifiers
    ImmutableMap.Builder<NodeRef<RangeQuantifier>, Range> ranges = ImmutableMap.builder();
    preOrder(pattern).filter(RangeQuantifier.class::isInstance).map(RangeQuantifier.class::cast).forEach(quantifier -> {
        Optional<Long> atLeast = quantifier.getAtLeast().map(LongLiteral::getValue);
        atLeast.ifPresent(value -> {
            if (value < 0) {
                throw semanticException(NUMERIC_VALUE_OUT_OF_RANGE, quantifier, "Pattern quantifier lower bound must be greater than or equal to 0");
            }
            if (value > Integer.MAX_VALUE) {
                throw semanticException(NUMERIC_VALUE_OUT_OF_RANGE, quantifier, "Pattern quantifier lower bound must not exceed " + Integer.MAX_VALUE);
            }
        });
        Optional<Long> atMost = quantifier.getAtMost().map(LongLiteral::getValue);
        atMost.ifPresent(value -> {
            if (value < 1) {
                throw semanticException(NUMERIC_VALUE_OUT_OF_RANGE, quantifier, "Pattern quantifier upper bound must be greater than or equal to 1");
            }
            if (value > Integer.MAX_VALUE) {
                throw semanticException(NUMERIC_VALUE_OUT_OF_RANGE, quantifier, "Pattern quantifier upper bound must not exceed " + Integer.MAX_VALUE);
            }
        });
        if (atLeast.isPresent() && atMost.isPresent()) {
            if (atLeast.get() > atMost.get()) {
                throw semanticException(INVALID_RANGE, quantifier, "Pattern quantifier lower bound must not exceed upper bound");
            }
        }
        ranges.put(NodeRef.of(quantifier), new Range(atLeast.map(Math::toIntExact), atMost.map(Math::toIntExact)));
    });
    // validate AFTER MATCH SKIP
    Set<String> allLabels = ImmutableSet.<String>builder().addAll(primaryLabels).addAll(unionLabels).build();
    skipTo.flatMap(SkipTo::getIdentifier).ifPresent(identifier -> {
        String label = label(identifier);
        if (!allLabels.contains(label)) {
            throw semanticException(INVALID_LABEL, identifier, "%s is not a primary or union pattern variable", identifier);
        }
    });
    // check no prohibited nesting: cannot nest one row pattern recognition within another
    List<Expression> expressions = Streams.concat(measures.stream().map(MeasureDefinition::getExpression), variableDefinitions.stream().map(VariableDefinition::getExpression)).collect(toImmutableList());
    expressions.forEach(expression -> preOrder(expression).filter(child -> child instanceof PatternRecognitionRelation || child instanceof RowPattern).findFirst().ifPresent(nested -> {
        throw semanticException(NESTED_ROW_PATTERN_RECOGNITION, nested, "nested row pattern recognition in row pattern recognition");
    }));
    return new PatternRecognitionAnalysis(allLabels, undefinedLabels, ranges.buildOrThrow());
}

Example 4 with FunctionCall

use of io.trino.sql.tree.FunctionCall in project trino by trinodb.

the class DynamicFilters method getDescriptor.

public static Optional<Descriptor> getDescriptor(Expression expression) {
    if (!(expression instanceof FunctionCall)) {
        return Optional.empty();
    }
    FunctionCall functionCall = (FunctionCall) expression;
    if (!isDynamicFilterFunction(functionCall)) {
        return Optional.empty();
    }
    List<Expression> arguments = functionCall.getArguments();
    checkArgument(arguments.size() == 4, "invalid arguments count: %s", arguments.size());
    Expression probeSymbol = arguments.get(0);
    Expression operatorExpression = arguments.get(1);
    checkArgument(operatorExpression instanceof StringLiteral, "operatorExpression is expected to be an instance of StringLiteral: %s", operatorExpression.getClass().getSimpleName());
    String operatorExpressionString = ((StringLiteral) operatorExpression).getValue();
    ComparisonExpression.Operator operator = ComparisonExpression.Operator.valueOf(operatorExpressionString);
    Expression idExpression = arguments.get(2);
    checkArgument(idExpression instanceof StringLiteral, "id is expected to be an instance of StringLiteral: %s", idExpression.getClass().getSimpleName());
    String id = ((StringLiteral) idExpression).getValue();
    Expression nullAllowedExpression = arguments.get(3);
    checkArgument(nullAllowedExpression instanceof BooleanLiteral, "nullAllowedExpression is expected to be an instance of BooleanLiteral: %s", nullAllowedExpression.getClass().getSimpleName());
    boolean nullAllowed = ((BooleanLiteral) nullAllowedExpression).getValue();
    return Optional.of(new Descriptor(new DynamicFilterId(id), probeSymbol, operator, nullAllowed));
}

Example 5 with FunctionCall

use of io.trino.sql.tree.FunctionCall in project trino by trinodb.

the class TestSetTimeZoneTask method testSetTimeZoneIntervalDayTimeTypeInvalidFunctionCall.

@Test
public void testSetTimeZoneIntervalDayTimeTypeInvalidFunctionCall() {
    QueryStateMachine stateMachine = createQueryStateMachine("SET TIME ZONE parse_duration('3601s')");
    SetTimeZone setTimeZone = new SetTimeZone(new NodeLocation(1, 1), Optional.of(new FunctionCall(new NodeLocation(1, 24), QualifiedName.of(ImmutableList.of(new Identifier(new NodeLocation(1, 24), "parse_duration", false))), ImmutableList.of(new StringLiteral(new NodeLocation(1, 39), "3601s")))));
    assertThatThrownBy(() -> executeSetTimeZone(setTimeZone, stateMachine)).isInstanceOf(TrinoException.class).hasMessage("Invalid time zone offset interval: interval contains seconds");
}