public void setCosts(Costs nodeCosts) { // add the costs from the step function nodeCosts.addCosts(this.rootOfStepFunction.getCumulativeCosts()); // add the costs for the termination criterion, if it exists // the costs are divided at branches, so we can simply add them up if (rootOfTerminationCriterion != null) { nodeCosts.addCosts(this.rootOfTerminationCriterion.getCumulativeCosts()); } super.setCosts(nodeCosts); }
@Override public SingleInputPlanNode instantiate(Channel in, SingleInputNode node) { Channel toReducer = in; if (in.getShipStrategy() == ShipStrategyType.FORWARD || (node.getBroadcastConnections() != null && !node.getBroadcastConnections().isEmpty())) { if (in.getSource().getOptimizerNode() instanceof PartitionNode) { LOG.warn("Cannot automatically inject combiner for ReduceFunction. Please add an explicit combiner with combineGroup() in front of the partition operator."); } } else if (combinerStrategy != DriverStrategy.NONE) { // non forward case. all local properties are killed anyways, so we can safely plug in a combiner Channel toCombiner = new Channel(in.getSource()); toCombiner.setShipStrategy(ShipStrategyType.FORWARD, DataExchangeMode.PIPELINED); // create an input node for combine with same parallelism as input node ReduceNode combinerNode = ((ReduceNode) node).getCombinerUtilityNode(); combinerNode.setParallelism(in.getSource().getParallelism()); SingleInputPlanNode combiner = new SingleInputPlanNode(combinerNode, "Combine ("+node.getOperator().getName()+")", toCombiner, this.combinerStrategy, this.keyList); combiner.setCosts(new Costs(0, 0)); combiner.initProperties(toCombiner.getGlobalProperties(), toCombiner.getLocalProperties()); toReducer = new Channel(combiner); toReducer.setShipStrategy(in.getShipStrategy(), in.getShipStrategyKeys(), in.getShipStrategySortOrder(), in.getDataExchangeMode()); toReducer.setLocalStrategy(LocalStrategy.SORT, in.getLocalStrategyKeys(), in.getLocalStrategySortOrder()); } return new SingleInputPlanNode(node, "Reduce (" + node.getOperator().getName() + ")", toReducer, DriverStrategy.SORTED_REDUCE, this.keyList); }
sipPlanNode.setParallelism(sourceParallelism); sipPlanNode.initProperties(new GlobalProperties(), new LocalProperties()); sipPlanNode.setCosts(defaultZeroCosts); sipChannel.setTarget(sipPlanNode); this.plan.getAllNodes().add(sipPlanNode); sicPlanNode.setParallelism(1); sicPlanNode.initProperties(new GlobalProperties(), new LocalProperties()); sicPlanNode.setCosts(defaultZeroCosts); sicChannel.setTarget(sicPlanNode); sipPlanNode.addOutgoingChannel(sicChannel); rbPlanNode.setParallelism(1); rbPlanNode.initProperties(new GlobalProperties(), new LocalProperties()); rbPlanNode.setCosts(defaultZeroCosts); rbChannel.setTarget(rbPlanNode); sicPlanNode.addOutgoingChannel(rbChannel); ariPlanNode.setParallelism(sourceParallelism); ariPlanNode.initProperties(new GlobalProperties(), new LocalProperties()); ariPlanNode.setCosts(defaultZeroCosts); ariChannel.setTarget(ariPlanNode); this.plan.getAllNodes().add(ariPlanNode); globalProperties.setRangePartitioned(new Ordering(0, null, Order.ASCENDING)); prPlanNode.initProperties(globalProperties, new LocalProperties()); prPlanNode.setCosts(defaultZeroCosts); this.plan.getAllNodes().add(prPlanNode);
combiner.setCosts(new Costs(0, 0)); combiner.initProperties(toCombiner.getGlobalProperties(), toCombiner.getLocalProperties());
@Override public SingleInputPlanNode instantiate(Channel in, SingleInputNode node) { if (in.getShipStrategy() == ShipStrategyType.FORWARD) { // locally connected, directly instantiate return new SingleInputPlanNode(node, "GroupReduce ("+node.getOperator().getName()+")", in, DriverStrategy.ALL_GROUP_REDUCE); } else { // non forward case.plug in a combiner Channel toCombiner = new Channel(in.getSource()); toCombiner.setShipStrategy(ShipStrategyType.FORWARD, DataExchangeMode.PIPELINED); // create an input node for combine with same parallelism as input node GroupReduceNode combinerNode = ((GroupReduceNode) node).getCombinerUtilityNode(); combinerNode.setParallelism(in.getSource().getParallelism()); SingleInputPlanNode combiner = new SingleInputPlanNode(combinerNode, "Combine ("+node.getOperator().getName()+")", toCombiner, DriverStrategy.ALL_GROUP_REDUCE_COMBINE); combiner.setCosts(new Costs(0, 0)); combiner.initProperties(toCombiner.getGlobalProperties(), toCombiner.getLocalProperties()); Channel toReducer = new Channel(combiner); toReducer.setShipStrategy(in.getShipStrategy(), in.getShipStrategyKeys(), in.getShipStrategySortOrder(), in.getDataExchangeMode()); toReducer.setLocalStrategy(in.getLocalStrategy(), in.getLocalStrategyKeys(), in.getLocalStrategySortOrder()); return new SingleInputPlanNode(node, "GroupReduce ("+node.getOperator().getName()+")", toReducer, DriverStrategy.ALL_GROUP_REDUCE); } }
@Override public SingleInputPlanNode instantiate(Channel in, SingleInputNode node) { if (in.getShipStrategy() == ShipStrategyType.FORWARD) { // locally connected, directly instantiate return new SingleInputPlanNode(node, "Reduce ("+node.getOperator().getName()+")", in, DriverStrategy.ALL_REDUCE); } else { // non forward case.plug in a combiner Channel toCombiner = new Channel(in.getSource()); toCombiner.setShipStrategy(ShipStrategyType.FORWARD, DataExchangeMode.PIPELINED); // create an input node for combine with same parallelism as input node ReduceNode combinerNode = ((ReduceNode) node).getCombinerUtilityNode(); combinerNode.setParallelism(in.getSource().getParallelism()); SingleInputPlanNode combiner = new SingleInputPlanNode(combinerNode, "Combine ("+node.getOperator().getName()+")", toCombiner, DriverStrategy.ALL_REDUCE); combiner.setCosts(new Costs(0, 0)); combiner.initProperties(toCombiner.getGlobalProperties(), toCombiner.getLocalProperties()); Channel toReducer = new Channel(combiner); toReducer.setShipStrategy(in.getShipStrategy(), in.getShipStrategyKeys(), in.getShipStrategySortOrder(), in.getDataExchangeMode()); toReducer.setLocalStrategy(in.getLocalStrategy(), in.getLocalStrategyKeys(), in.getLocalStrategySortOrder()); return new SingleInputPlanNode(node, "Reduce ("+node.getOperator().getName()+")", toReducer, DriverStrategy.ALL_REDUCE); } }
public void setCosts(Costs nodeCosts) { // add the costs from the step function nodeCosts.addCosts(this.rootOfStepFunction.getCumulativeCosts()); // add the costs for the termination criterion, if it exists // the costs are divided at branches, so we can simply add them up if (rootOfTerminationCriterion != null) { nodeCosts.addCosts(this.rootOfTerminationCriterion.getCumulativeCosts()); } super.setCosts(nodeCosts); }
public void setCosts(Costs nodeCosts) { // add the costs from the step function nodeCosts.addCosts(this.rootOfStepFunction.getCumulativeCosts()); // add the costs for the termination criterion, if it exists // the costs are divided at branches, so we can simply add them up if (rootOfTerminationCriterion != null) { nodeCosts.addCosts(this.rootOfTerminationCriterion.getCumulativeCosts()); } super.setCosts(nodeCosts); }
public void setCosts(Costs nodeCosts) { // add the costs from the step function nodeCosts.addCosts(this.rootOfStepFunction.getCumulativeCosts()); // add the costs for the termination criterion, if it exists // the costs are divided at branches, so we can simply add them up if (rootOfTerminationCriterion != null) { nodeCosts.addCosts(this.rootOfTerminationCriterion.getCumulativeCosts()); } super.setCosts(nodeCosts); }
public void setCosts(Costs nodeCosts) { // add the costs from the step function nodeCosts.addCosts(this.rootOfStepFunction.getCumulativeCosts()); // add the costs for the termination criterion, if it exists // the costs are divided at branches, so we can simply add them up if (rootOfTerminationCriterion != null) { nodeCosts.addCosts(this.rootOfTerminationCriterion.getCumulativeCosts()); } super.setCosts(nodeCosts); }
@Override public SingleInputPlanNode instantiate(Channel in, SingleInputNode node) { Channel toReducer = in; if (in.getShipStrategy() == ShipStrategyType.FORWARD || (node.getBroadcastConnections() != null && !node.getBroadcastConnections().isEmpty())) { if (in.getSource().getOptimizerNode() instanceof PartitionNode) { LOG.warn("Cannot automatically inject combiner for ReduceFunction. Please add an explicit combiner with combineGroup() in front of the partition operator."); } } else if (combinerStrategy != DriverStrategy.NONE) { // non forward case. all local properties are killed anyways, so we can safely plug in a combiner Channel toCombiner = new Channel(in.getSource()); toCombiner.setShipStrategy(ShipStrategyType.FORWARD, DataExchangeMode.PIPELINED); // create an input node for combine with same parallelism as input node ReduceNode combinerNode = ((ReduceNode) node).getCombinerUtilityNode(); combinerNode.setParallelism(in.getSource().getParallelism()); SingleInputPlanNode combiner = new SingleInputPlanNode(combinerNode, "Combine ("+node.getOperator().getName()+")", toCombiner, this.combinerStrategy, this.keyList); combiner.setCosts(new Costs(0, 0)); combiner.initProperties(toCombiner.getGlobalProperties(), toCombiner.getLocalProperties()); toReducer = new Channel(combiner); toReducer.setShipStrategy(in.getShipStrategy(), in.getShipStrategyKeys(), in.getShipStrategySortOrder(), in.getDataExchangeMode()); toReducer.setLocalStrategy(LocalStrategy.SORT, in.getLocalStrategyKeys(), in.getLocalStrategySortOrder()); } return new SingleInputPlanNode(node, "Reduce (" + node.getOperator().getName() + ")", toReducer, DriverStrategy.SORTED_REDUCE, this.keyList); }
@Override public SingleInputPlanNode instantiate(Channel in, SingleInputNode node) { Channel toReducer = in; if (in.getShipStrategy() == ShipStrategyType.FORWARD || (node.getBroadcastConnections() != null && !node.getBroadcastConnections().isEmpty())) { if (in.getSource().getOptimizerNode() instanceof PartitionNode) { LOG.warn("Cannot automatically inject combiner for ReduceFunction. Please add an explicit combiner with combineGroup() in front of the partition operator."); } } else if (combinerStrategy != DriverStrategy.NONE) { // non forward case. all local properties are killed anyways, so we can safely plug in a combiner Channel toCombiner = new Channel(in.getSource()); toCombiner.setShipStrategy(ShipStrategyType.FORWARD, DataExchangeMode.PIPELINED); // create an input node for combine with same parallelism as input node ReduceNode combinerNode = ((ReduceNode) node).getCombinerUtilityNode(); combinerNode.setParallelism(in.getSource().getParallelism()); SingleInputPlanNode combiner = new SingleInputPlanNode(combinerNode, "Combine ("+node.getOperator().getName()+")", toCombiner, this.combinerStrategy, this.keyList); combiner.setCosts(new Costs(0, 0)); combiner.initProperties(toCombiner.getGlobalProperties(), toCombiner.getLocalProperties()); toReducer = new Channel(combiner); toReducer.setShipStrategy(in.getShipStrategy(), in.getShipStrategyKeys(), in.getShipStrategySortOrder(), in.getDataExchangeMode()); toReducer.setLocalStrategy(LocalStrategy.SORT, in.getLocalStrategyKeys(), in.getLocalStrategySortOrder()); } return new SingleInputPlanNode(node, "Reduce (" + node.getOperator().getName() + ")", toReducer, DriverStrategy.SORTED_REDUCE, this.keyList); }
@Override public SingleInputPlanNode instantiate(Channel in, SingleInputNode node) { if (in.getShipStrategy() == ShipStrategyType.FORWARD) { // locally connected, directly instantiate return new SingleInputPlanNode(node, "GroupReduce ("+node.getOperator().getName()+")", in, DriverStrategy.ALL_GROUP_REDUCE); } else { // non forward case.plug in a combiner Channel toCombiner = new Channel(in.getSource()); toCombiner.setShipStrategy(ShipStrategyType.FORWARD, DataExchangeMode.PIPELINED); // create an input node for combine with same parallelism as input node GroupReduceNode combinerNode = ((GroupReduceNode) node).getCombinerUtilityNode(); combinerNode.setParallelism(in.getSource().getParallelism()); SingleInputPlanNode combiner = new SingleInputPlanNode(combinerNode, "Combine ("+node.getOperator().getName()+")", toCombiner, DriverStrategy.ALL_GROUP_REDUCE_COMBINE); combiner.setCosts(new Costs(0, 0)); combiner.initProperties(toCombiner.getGlobalProperties(), toCombiner.getLocalProperties()); Channel toReducer = new Channel(combiner); toReducer.setShipStrategy(in.getShipStrategy(), in.getShipStrategyKeys(), in.getShipStrategySortOrder(), in.getDataExchangeMode()); toReducer.setLocalStrategy(in.getLocalStrategy(), in.getLocalStrategyKeys(), in.getLocalStrategySortOrder()); return new SingleInputPlanNode(node, "GroupReduce ("+node.getOperator().getName()+")", toReducer, DriverStrategy.ALL_GROUP_REDUCE); } }
@Override public SingleInputPlanNode instantiate(Channel in, SingleInputNode node) { if (in.getShipStrategy() == ShipStrategyType.FORWARD) { // locally connected, directly instantiate return new SingleInputPlanNode(node, "GroupReduce ("+node.getOperator().getName()+")", in, DriverStrategy.ALL_GROUP_REDUCE); } else { // non forward case.plug in a combiner Channel toCombiner = new Channel(in.getSource()); toCombiner.setShipStrategy(ShipStrategyType.FORWARD, DataExchangeMode.PIPELINED); // create an input node for combine with same parallelism as input node GroupReduceNode combinerNode = ((GroupReduceNode) node).getCombinerUtilityNode(); combinerNode.setParallelism(in.getSource().getParallelism()); SingleInputPlanNode combiner = new SingleInputPlanNode(combinerNode, "Combine ("+node.getOperator().getName()+")", toCombiner, DriverStrategy.ALL_GROUP_REDUCE_COMBINE); combiner.setCosts(new Costs(0, 0)); combiner.initProperties(toCombiner.getGlobalProperties(), toCombiner.getLocalProperties()); Channel toReducer = new Channel(combiner); toReducer.setShipStrategy(in.getShipStrategy(), in.getShipStrategyKeys(), in.getShipStrategySortOrder(), in.getDataExchangeMode()); toReducer.setLocalStrategy(in.getLocalStrategy(), in.getLocalStrategyKeys(), in.getLocalStrategySortOrder()); return new SingleInputPlanNode(node, "GroupReduce ("+node.getOperator().getName()+")", toReducer, DriverStrategy.ALL_GROUP_REDUCE); } }
@Override public SingleInputPlanNode instantiate(Channel in, SingleInputNode node) { if (in.getShipStrategy() == ShipStrategyType.FORWARD) { // locally connected, directly instantiate return new SingleInputPlanNode(node, "Reduce ("+node.getOperator().getName()+")", in, DriverStrategy.ALL_REDUCE); } else { // non forward case.plug in a combiner Channel toCombiner = new Channel(in.getSource()); toCombiner.setShipStrategy(ShipStrategyType.FORWARD, DataExchangeMode.PIPELINED); // create an input node for combine with same parallelism as input node ReduceNode combinerNode = ((ReduceNode) node).getCombinerUtilityNode(); combinerNode.setParallelism(in.getSource().getParallelism()); SingleInputPlanNode combiner = new SingleInputPlanNode(combinerNode, "Combine ("+node.getOperator().getName()+")", toCombiner, DriverStrategy.ALL_REDUCE); combiner.setCosts(new Costs(0, 0)); combiner.initProperties(toCombiner.getGlobalProperties(), toCombiner.getLocalProperties()); Channel toReducer = new Channel(combiner); toReducer.setShipStrategy(in.getShipStrategy(), in.getShipStrategyKeys(), in.getShipStrategySortOrder(), in.getDataExchangeMode()); toReducer.setLocalStrategy(in.getLocalStrategy(), in.getLocalStrategyKeys(), in.getLocalStrategySortOrder()); return new SingleInputPlanNode(node, "Reduce ("+node.getOperator().getName()+")", toReducer, DriverStrategy.ALL_REDUCE); } }
@Override public SingleInputPlanNode instantiate(Channel in, SingleInputNode node) { if (in.getShipStrategy() == ShipStrategyType.FORWARD) { // locally connected, directly instantiate return new SingleInputPlanNode(node, "Reduce ("+node.getOperator().getName()+")", in, DriverStrategy.ALL_REDUCE); } else { // non forward case.plug in a combiner Channel toCombiner = new Channel(in.getSource()); toCombiner.setShipStrategy(ShipStrategyType.FORWARD, DataExchangeMode.PIPELINED); // create an input node for combine with same parallelism as input node ReduceNode combinerNode = ((ReduceNode) node).getCombinerUtilityNode(); combinerNode.setParallelism(in.getSource().getParallelism()); SingleInputPlanNode combiner = new SingleInputPlanNode(combinerNode, "Combine ("+node.getOperator().getName()+")", toCombiner, DriverStrategy.ALL_REDUCE); combiner.setCosts(new Costs(0, 0)); combiner.initProperties(toCombiner.getGlobalProperties(), toCombiner.getLocalProperties()); Channel toReducer = new Channel(combiner); toReducer.setShipStrategy(in.getShipStrategy(), in.getShipStrategyKeys(), in.getShipStrategySortOrder(), in.getDataExchangeMode()); toReducer.setLocalStrategy(in.getLocalStrategy(), in.getLocalStrategyKeys(), in.getLocalStrategySortOrder()); return new SingleInputPlanNode(node, "Reduce ("+node.getOperator().getName()+")", toReducer, DriverStrategy.ALL_REDUCE); } }
@Override public SingleInputPlanNode instantiate(Channel in, SingleInputNode node) { if (in.getShipStrategy() == ShipStrategyType.FORWARD) { // locally connected, directly instantiate return new SingleInputPlanNode(node, "GroupReduce ("+node.getOperator().getName()+")", in, DriverStrategy.ALL_GROUP_REDUCE); } else { // non forward case.plug in a combiner Channel toCombiner = new Channel(in.getSource()); toCombiner.setShipStrategy(ShipStrategyType.FORWARD, DataExchangeMode.PIPELINED); // create an input node for combine with same parallelism as input node GroupReduceNode combinerNode = ((GroupReduceNode) node).getCombinerUtilityNode(); combinerNode.setParallelism(in.getSource().getParallelism()); SingleInputPlanNode combiner = new SingleInputPlanNode(combinerNode, "Combine ("+node.getOperator().getName()+")", toCombiner, DriverStrategy.ALL_GROUP_REDUCE_COMBINE); combiner.setCosts(new Costs(0, 0)); combiner.initProperties(toCombiner.getGlobalProperties(), toCombiner.getLocalProperties()); Channel toReducer = new Channel(combiner); toReducer.setShipStrategy(in.getShipStrategy(), in.getShipStrategyKeys(), in.getShipStrategySortOrder(), in.getDataExchangeMode()); toReducer.setLocalStrategy(in.getLocalStrategy(), in.getLocalStrategyKeys(), in.getLocalStrategySortOrder()); return new SingleInputPlanNode(node, "GroupReduce ("+node.getOperator().getName()+")", toReducer, DriverStrategy.ALL_GROUP_REDUCE); } }
@Override public SingleInputPlanNode instantiate(Channel in, SingleInputNode node) { if (in.getShipStrategy() == ShipStrategyType.FORWARD) { // locally connected, directly instantiate return new SingleInputPlanNode(node, "Reduce ("+node.getOperator().getName()+")", in, DriverStrategy.ALL_REDUCE); } else { // non forward case.plug in a combiner Channel toCombiner = new Channel(in.getSource()); toCombiner.setShipStrategy(ShipStrategyType.FORWARD, DataExchangeMode.PIPELINED); // create an input node for combine with same parallelism as input node ReduceNode combinerNode = ((ReduceNode) node).getCombinerUtilityNode(); combinerNode.setParallelism(in.getSource().getParallelism()); SingleInputPlanNode combiner = new SingleInputPlanNode(combinerNode, "Combine ("+node.getOperator().getName()+")", toCombiner, DriverStrategy.ALL_REDUCE); combiner.setCosts(new Costs(0, 0)); combiner.initProperties(toCombiner.getGlobalProperties(), toCombiner.getLocalProperties()); Channel toReducer = new Channel(combiner); toReducer.setShipStrategy(in.getShipStrategy(), in.getShipStrategyKeys(), in.getShipStrategySortOrder(), in.getDataExchangeMode()); toReducer.setLocalStrategy(in.getLocalStrategy(), in.getLocalStrategyKeys(), in.getLocalStrategySortOrder()); return new SingleInputPlanNode(node, "Reduce ("+node.getOperator().getName()+")", toReducer, DriverStrategy.ALL_REDUCE); } }
@Override public SingleInputPlanNode instantiate(Channel in, SingleInputNode node) { if (in.getShipStrategy() == ShipStrategyType.FORWARD) { // locally connected, directly instantiate return new SingleInputPlanNode(node, "GroupReduce ("+node.getOperator().getName()+")", in, DriverStrategy.ALL_GROUP_REDUCE); } else { // non forward case.plug in a combiner Channel toCombiner = new Channel(in.getSource()); toCombiner.setShipStrategy(ShipStrategyType.FORWARD, DataExchangeMode.PIPELINED); // create an input node for combine with same parallelism as input node GroupReduceNode combinerNode = ((GroupReduceNode) node).getCombinerUtilityNode(); combinerNode.setParallelism(in.getSource().getParallelism()); SingleInputPlanNode combiner = new SingleInputPlanNode(combinerNode, "Combine ("+node.getOperator().getName()+")", toCombiner, DriverStrategy.ALL_GROUP_REDUCE_COMBINE); combiner.setCosts(new Costs(0, 0)); combiner.initProperties(toCombiner.getGlobalProperties(), toCombiner.getLocalProperties()); Channel toReducer = new Channel(combiner); toReducer.setShipStrategy(in.getShipStrategy(), in.getShipStrategyKeys(), in.getShipStrategySortOrder(), in.getDataExchangeMode()); toReducer.setLocalStrategy(in.getLocalStrategy(), in.getLocalStrategyKeys(), in.getLocalStrategySortOrder()); return new SingleInputPlanNode(node, "GroupReduce ("+node.getOperator().getName()+")", toReducer, DriverStrategy.ALL_GROUP_REDUCE); } }
@Override public SingleInputPlanNode instantiate(Channel in, SingleInputNode node) { if (in.getShipStrategy() == ShipStrategyType.FORWARD) { // locally connected, directly instantiate return new SingleInputPlanNode(node, "Reduce ("+node.getOperator().getName()+")", in, DriverStrategy.ALL_REDUCE); } else { // non forward case.plug in a combiner Channel toCombiner = new Channel(in.getSource()); toCombiner.setShipStrategy(ShipStrategyType.FORWARD, DataExchangeMode.PIPELINED); // create an input node for combine with same parallelism as input node ReduceNode combinerNode = ((ReduceNode) node).getCombinerUtilityNode(); combinerNode.setParallelism(in.getSource().getParallelism()); SingleInputPlanNode combiner = new SingleInputPlanNode(combinerNode, "Combine ("+node.getOperator().getName()+")", toCombiner, DriverStrategy.ALL_REDUCE); combiner.setCosts(new Costs(0, 0)); combiner.initProperties(toCombiner.getGlobalProperties(), toCombiner.getLocalProperties()); Channel toReducer = new Channel(combiner); toReducer.setShipStrategy(in.getShipStrategy(), in.getShipStrategyKeys(), in.getShipStrategySortOrder(), in.getDataExchangeMode()); toReducer.setLocalStrategy(in.getLocalStrategy(), in.getLocalStrategyKeys(), in.getLocalStrategySortOrder()); return new SingleInputPlanNode(node, "Reduce ("+node.getOperator().getName()+")", toReducer, DriverStrategy.ALL_REDUCE); } }