public static BTreeRow create(Clustering clustering, LivenessInfo primaryKeyLivenessInfo, Deletion deletion, Object[] btree) { int minDeletionTime = Math.min(minDeletionTime(primaryKeyLivenessInfo), minDeletionTime(deletion.time())); if (minDeletionTime != Integer.MIN_VALUE) { for (ColumnData cd : BTree.<ColumnData>iterable(btree)) minDeletionTime = Math.min(minDeletionTime, minDeletionTime(cd)); } return create(clustering, primaryKeyLivenessInfo, deletion, btree, minDeletionTime); }
public static BTreeRow create(Clustering clustering, LivenessInfo primaryKeyLivenessInfo, Deletion deletion, Object[] btree) { int minDeletionTime = Math.min(minDeletionTime(primaryKeyLivenessInfo), minDeletionTime(deletion.time())); if (minDeletionTime != Integer.MIN_VALUE) { for (ColumnData cd : BTree.<ColumnData>iterable(btree)) minDeletionTime = Math.min(minDeletionTime, minDeletionTime(cd)); } return create(clustering, primaryKeyLivenessInfo, deletion, btree, minDeletionTime); }
public static BTreeRow create(Clustering clustering, LivenessInfo primaryKeyLivenessInfo, Deletion deletion, Object[] btree) { int minDeletionTime = Math.min(minDeletionTime(primaryKeyLivenessInfo), minDeletionTime(deletion.time())); if (minDeletionTime != Integer.MIN_VALUE) { for (ColumnData cd : BTree.<ColumnData>iterable(btree)) minDeletionTime = Math.min(minDeletionTime, minDeletionTime(cd)); } return create(clustering, primaryKeyLivenessInfo, deletion, btree, minDeletionTime); }
public static BTreeRow create(Clustering clustering, LivenessInfo primaryKeyLivenessInfo, Deletion deletion, Object[] btree) { int minDeletionTime = Math.min(minDeletionTime(primaryKeyLivenessInfo), minDeletionTime(deletion.time())); if (minDeletionTime != Integer.MIN_VALUE) { for (ColumnData cd : BTree.<ColumnData>iterable(btree)) minDeletionTime = Math.min(minDeletionTime, minDeletionTime(cd)); } return create(clustering, primaryKeyLivenessInfo, deletion, btree, minDeletionTime); }
private Row transformAndFilter(LivenessInfo info, Deletion deletion, Function<ColumnData, ColumnData> function) { Object[] transformed = BTree.transformAndFilter(btree, function); if (btree == transformed && info == this.primaryKeyLivenessInfo && deletion == this.deletion) return this; if (info.isEmpty() && deletion.isLive() && BTree.isEmpty(transformed)) return null; int minDeletionTime = minDeletionTime(transformed, info, deletion.time()); return BTreeRow.create(clustering, info, deletion, transformed, minDeletionTime); }
private Row transformAndFilter(LivenessInfo info, Deletion deletion, Function<ColumnData, ColumnData> function) { Object[] transformed = BTree.transformAndFilter(btree, function); if (btree == transformed && info == this.primaryKeyLivenessInfo && deletion == this.deletion) return this; if (info.isEmpty() && deletion.isLive() && BTree.isEmpty(transformed)) return null; int minDeletionTime = minDeletionTime(transformed, info, deletion.time()); return BTreeRow.create(clustering, info, deletion, transformed, minDeletionTime); }
private Row transformAndFilter(LivenessInfo info, Deletion deletion, Function<ColumnData, ColumnData> function) { Object[] transformed = BTree.transformAndFilter(btree, function); if (btree == transformed && info == this.primaryKeyLivenessInfo && deletion == this.deletion) return this; if (info.isEmpty() && deletion.isLive() && BTree.isEmpty(transformed)) return null; int minDeletionTime = minDeletionTime(transformed, info, deletion.time()); return BTreeRow.create(clustering, info, deletion, transformed, minDeletionTime); }
private Row transformAndFilter(LivenessInfo info, Deletion deletion, Function<ColumnData, ColumnData> function) { Object[] transformed = BTree.transformAndFilter(btree, function); if (btree == transformed && info == this.primaryKeyLivenessInfo && deletion == this.deletion) return this; if (info.isEmpty() && deletion.isLive() && BTree.isEmpty(transformed)) return null; int minDeletionTime = minDeletionTime(transformed, info, deletion.time()); return BTreeRow.create(clustering, info, deletion, transformed, minDeletionTime); }
: BTreeRow.create(clustering, rowInfo, rowDeletion, BTree.build(dataBuffer, UpdateFunction.<ColumnData>noOp()));
: BTreeRow.create(clustering, rowInfo, rowDeletion, BTree.build(dataBuffer, UpdateFunction.<ColumnData>noOp()));
: BTreeRow.create(clustering, rowInfo, rowDeletion, BTree.build(dataBuffer, UpdateFunction.<ColumnData>noOp()));
: BTreeRow.create(clustering, rowInfo, rowDeletion, BTree.build(dataBuffer, UpdateFunction.<ColumnData>noOp()));
public Row build() { if (!isSorted) getCells().sort(); // we can avoid resolving if we're sorted and have no complex values // (because we'll only have unique simple cells, which are already in their final condition) if (!isSorted | hasComplex) getCells().resolve(resolver); Object[] btree = getCells().build(); if (deletion.isShadowedBy(primaryKeyLivenessInfo)) deletion = Deletion.LIVE; int minDeletionTime = minDeletionTime(btree, primaryKeyLivenessInfo, deletion.time()); Row row = BTreeRow.create(clustering, primaryKeyLivenessInfo, deletion, btree, minDeletionTime); reset(); return row; } }
public Row build() { if (!isSorted) getCells().sort(); // we can avoid resolving if we're sorted and have no complex values // (because we'll only have unique simple cells, which are already in their final condition) if (!isSorted | hasComplex) getCells().resolve(resolver); Object[] btree = getCells().build(); if (deletion.isShadowedBy(primaryKeyLivenessInfo)) deletion = Deletion.LIVE; int minDeletionTime = minDeletionTime(btree, primaryKeyLivenessInfo, deletion.time()); Row row = BTreeRow.create(clustering, primaryKeyLivenessInfo, deletion, btree, minDeletionTime); reset(); return row; } }
public Row build() { if (!isSorted) getCells().sort(); // we can avoid resolving if we're sorted and have no complex values // (because we'll only have unique simple cells, which are already in their final condition) if (!isSorted | hasComplex) getCells().resolve(resolver); Object[] btree = getCells().build(); if (deletion.isShadowedBy(primaryKeyLivenessInfo)) deletion = Deletion.LIVE; int minDeletionTime = minDeletionTime(btree, primaryKeyLivenessInfo, deletion.time()); Row row = BTreeRow.create(clustering, primaryKeyLivenessInfo, deletion, btree, minDeletionTime); reset(); return row; } }
public Row build() { if (!isSorted) getCells().sort(); // we can avoid resolving if we're sorted and have no complex values // (because we'll only have unique simple cells, which are already in their final condition) if (!isSorted | hasComplex) getCells().resolve(resolver); Object[] btree = getCells().build(); if (deletion.isShadowedBy(primaryKeyLivenessInfo)) deletion = Deletion.LIVE; int minDeletionTime = minDeletionTime(btree, primaryKeyLivenessInfo, deletion.time()); Row row = BTreeRow.create(clustering, primaryKeyLivenessInfo, deletion, btree, minDeletionTime); reset(); return row; } }