public ResultObjectProvider executeExtent(ClassMetaData meta, boolean subclasses, FetchConfiguration fetch) { int i = 0; List<SliceStoreManager> targets = getTargets(fetch); ResultObjectProvider[] tmp = new ResultObjectProvider[targets.size()]; for (SliceStoreManager slice : targets) { tmp[i++] = slice.executeExtent(meta, subclasses, fetch); } return new MergedResultObjectProvider(tmp); }
public ResultObjectProvider executeExtent(ClassMetaData meta, boolean subclasses, FetchConfiguration fetch) { int i = 0; List<SliceStoreManager> targets = getTargets(fetch); ResultObjectProvider[] tmp = new ResultObjectProvider[targets.size()]; for (SliceStoreManager slice : targets) { tmp[i++] = slice.executeExtent(meta, subclasses, fetch); } return new MergedResultObjectProvider(tmp); }
public ResultObjectProvider executeExtent(ClassMetaData meta, boolean subclasses, FetchConfiguration fetch) { int i = 0; List<SliceStoreManager> targets = getTargets(fetch); ResultObjectProvider[] tmp = new ResultObjectProvider[targets.size()]; for (SliceStoreManager slice : targets) { tmp[i++] = slice.executeExtent(meta, subclasses, fetch); } return new MergedResultObjectProvider(tmp); }
public ResultObjectProvider executeExtent(ClassMetaData meta, boolean subclasses, FetchConfiguration fetch) { int i = 0; List<SliceStoreManager> targets = getTargets(fetch); ResultObjectProvider[] tmp = new ResultObjectProvider[targets.size()]; for (SliceStoreManager slice : targets) { tmp[i++] = slice.executeExtent(meta, subclasses, fetch); } return new MergedResultObjectProvider(tmp); }
q, params); } else { result = new MergedResultObjectProvider(tmp);
q, params); } else { result = new MergedResultObjectProvider(tmp);
q, params); } else { result = new MergedResultObjectProvider(tmp);
q, params); } else { result = new MergedResultObjectProvider(tmp);
q, params); } else { result = new MergedResultObjectProvider(tmp);
q, params); } else { result = new MergedResultObjectProvider(tmp);
rop = new MergedResultObjectProvider(rops); else { rop = new OrderingMergedResultObjectProvider(rops,
rop = new MergedResultObjectProvider(rops); else { rop = new OrderingMergedResultObjectProvider(rops,
rop = new MergedResultObjectProvider(rops); else { rop = new OrderingMergedResultObjectProvider(rops,
public ResultObjectProvider executeQuery(StoreQuery q, Object[] params, StoreQuery.Range range) { if (_executors.length == 1) return _executors[0].executeQuery(q, params, range); // use lrs settings if we couldn't take advantage of the start index // so that hopefully the skip to the start will be efficient StoreQuery.Range ropRange = new StoreQuery.Range(0, range.end); ropRange.lrs = range.lrs || (range.start > 0 && q.getContext(). getFetchConfiguration().getFetchBatchSize() >= 0); // execute the query; we cannot use the lower bound of the result // range, but we can take advantage of the upper bound ResultObjectProvider[] rops = new ResultObjectProvider[_executors.length]; for (int i = 0; i < _executors.length; i++) rops[i] = _executors[i].executeQuery(q, params, ropRange); boolean[] asc = _executors[0].getAscending(q); ResultObjectProvider rop; if (asc.length == 0) rop = new MergedResultObjectProvider(rops); else rop = new OrderingMergedResultObjectProvider(rops, asc, _executors, q, params); // if there is a lower bound, wrap in range rop if (range.start != 0) rop = new RangeResultObjectProvider(rop, range.start, range.end); return rop; }
public ResultObjectProvider executeQuery(StoreQuery q, Object[] params, StoreQuery.Range range) { if (_executors.length == 1) return _executors[0].executeQuery(q, params, range); // use lrs settings if we couldn't take advantage of the start index // so that hopefully the skip to the start will be efficient StoreQuery.Range ropRange = new StoreQuery.Range(0, range.end); ropRange.lrs = range.lrs || (range.start > 0 && q.getContext(). getFetchConfiguration().getFetchBatchSize() >= 0); // execute the query; we cannot use the lower bound of the result // range, but we can take advantage of the upper bound ResultObjectProvider[] rops = new ResultObjectProvider[_executors.length]; for (int i = 0; i < _executors.length; i++) rops[i] = _executors[i].executeQuery(q, params, ropRange); boolean[] asc = _executors[0].getAscending(q); ResultObjectProvider rop; if (asc.length == 0) rop = new MergedResultObjectProvider(rops); else rop = new OrderingMergedResultObjectProvider(rops, asc, _executors, q, params); // if there is a lower bound, wrap in range rop if (range.start != 0) rop = new RangeResultObjectProvider(rop, range.start, range.end); return rop; }
public ResultObjectProvider executeQuery(StoreQuery q, Object[] params, StoreQuery.Range range) { if (_executors.length == 1) return _executors[0].executeQuery(q, params, range); // use lrs settings if we couldn't take advantage of the start index // so that hopefully the skip to the start will be efficient StoreQuery.Range ropRange = new StoreQuery.Range(0, range.end); ropRange.lrs = range.lrs || (range.start > 0 && q.getContext(). getFetchConfiguration().getFetchBatchSize() >= 0); // execute the query; we cannot use the lower bound of the result // range, but we can take advantage of the upper bound ResultObjectProvider[] rops = new ResultObjectProvider[_executors.length]; for (int i = 0; i < _executors.length; i++) rops[i] = _executors[i].executeQuery(q, params, ropRange); boolean[] asc = _executors[0].getAscending(q); ResultObjectProvider rop; if (asc.length == 0) rop = new MergedResultObjectProvider(rops); else rop = new OrderingMergedResultObjectProvider(rops, asc, _executors, q, params); // if there is a lower bound, wrap in range rop if (range.start != 0) rop = new RangeResultObjectProvider(rop, range.start, range.end); return rop; }
public ResultObjectProvider executeQuery(StoreQuery q, Object[] params, StoreQuery.Range range) { if (_executors.length == 1) return _executors[0].executeQuery(q, params, range); // use lrs settings if we couldn't take advantage of the start index // so that hopefully the skip to the start will be efficient StoreQuery.Range ropRange = new StoreQuery.Range(0, range.end); ropRange.lrs = range.lrs || (range.start > 0 && q.getContext(). getFetchConfiguration().getFetchBatchSize() >= 0); // execute the query; we cannot use the lower bound of the result // range, but we can take advantage of the upper bound ResultObjectProvider[] rops = new ResultObjectProvider[_executors.length]; for (int i = 0; i < _executors.length; i++) rops[i] = _executors[i].executeQuery(q, params, ropRange); boolean[] asc = _executors[0].getAscending(q); ResultObjectProvider rop; if (asc.length == 0) rop = new MergedResultObjectProvider(rops); else rop = new OrderingMergedResultObjectProvider(rops, asc, _executors, q, params); // if there is a lower bound, wrap in range rop if (range.start != 0) rop = new RangeResultObjectProvider(rop, range.start, range.end); return rop; }
public ResultObjectProvider executeQuery(StoreQuery q, Object[] params, StoreQuery.Range range) { if (_executors.length == 1) return _executors[0].executeQuery(q, params, range); // use lrs settings if we couldn't take advantage of the start index // so that hopefully the skip to the start will be efficient StoreQuery.Range ropRange = new StoreQuery.Range(0, range.end); ropRange.lrs = range.lrs || (range.start > 0 && q.getContext(). getFetchConfiguration().getFetchBatchSize() >= 0); // execute the query; we cannot use the lower bound of the result // range, but we can take advantage of the upper bound ResultObjectProvider[] rops = new ResultObjectProvider[_executors.length]; for (int i = 0; i < _executors.length; i++) rops[i] = _executors[i].executeQuery(q, params, ropRange); boolean[] asc = _executors[0].getAscending(q); ResultObjectProvider rop; if (asc.length == 0) rop = new MergedResultObjectProvider(rops); else rop = new OrderingMergedResultObjectProvider(rops, asc, _executors, q, params); // if there is a lower bound, wrap in range rop if (range.start != 0) rop = new RangeResultObjectProvider(rop, range.start, range.end); return rop; }
return new MergedResultObjectProvider(rops);
return new MergedResultObjectProvider(rops);