public static OpenBitSet CreateBitSet(IndexReader reader, Filter filter)
{
IndexSearcher searcher = new IndexSearcher(reader);
OpenBitSet result = new OpenBitSet();
searcher.Search(new MatchAllDocsQuery(), filter, new BitSetCollector(result));
return result;
}
/// <summary>
/// Asserts that the documents returned by <paramref name="q1"/>
/// are a subset of those returned by <paramref name="q2"/>.
/// <para/>
/// Both queries will be filtered by <paramref name="filter"/>.
/// </summary>
protected virtual void AssertSubsetOf(Query q1, Query q2, Filter filter)
{
// TRUNK ONLY: test both filter code paths
if (filter != null && Random.NextBoolean())
{
q1 = new FilteredQuery(q1, filter, TestUtil.RandomFilterStrategy(Random));
q2 = new FilteredQuery(q2, filter, TestUtil.RandomFilterStrategy(Random));
filter = null;
}
// not efficient, but simple!
TopDocs td1 = m_s1.Search(q1, filter, m_reader.MaxDoc);
TopDocs td2 = m_s2.Search(q2, filter, m_reader.MaxDoc);
Assert.IsTrue(td1.TotalHits <= td2.TotalHits);
// fill the superset into a bitset
var bitset = new BitSet(td2.ScoreDocs.Length);
for (int i = 0; i < td2.ScoreDocs.Length; i++)
{
bitset.Set(td2.ScoreDocs[i].Doc);
}
// check in the subset, that every bit was set by the super
for (int i = 0; i < td1.ScoreDocs.Length; i++)
{
Assert.IsTrue(bitset.Get(td1.ScoreDocs[i].Doc));
}
}
public BitSetRandomAccessDocIdSet(bool multi, MultiValueFacetDataCache multiCache, OpenBitSet openBitSet, FacetDataCache dataCache)
{
_multi = multi;
_multiCache = multiCache;
_openBitSet = openBitSet;
_dataCache = dataCache;
}
// test interleaving different OpenBitSetIterator.next()/skipTo()
internal virtual void DoIterate(System.Collections.BitArray a, OpenBitSet b, int mode)
{
if (mode == 1)
DoIterate1(a, b);
if (mode == 2)
DoIterate2(a, b);
}
public override sealed int FindValues(OpenBitSet bitset, int docId, int maxId)
{
while (docId <= maxId && !bitset.FastGet(array[docId >> SHIFT_SIZE][docId & MASK]))
{
docId++;
}
return docId;
}
public override int FindValues(OpenBitSet bitset, int docId, int maxId)
{
while (docId <= maxId && !bitset.FastGet(array[docId >> SHIFT_SIZE][docId & MASK]))
{
docId++;
}
return docId > maxId ? DocIdSetIterator.NO_MORE_DOCS : docId;
}
internal virtual void DoGet(System.Collections.BitArray a, OpenBitSet b)
{
int max = a.Count;
for (int i = 0; i < max; i++)
{
Assert.AreEqual(a.Get(i) != b.Get(i), "mismatch: BitSet=[" + i + "]=" + a.Get(i));
}
}
public override sealed int FindValues(OpenBitSet bitset, int docId, int maxId)
{
while (true)
{
if (bitset.FastGet(_array[docId >> SHIFT_SIZE][docId & MASK])) return docId;
if (docId++ >= maxId) break;
}
return DocIdSetIterator.NO_MORE_DOCS;
}
public virtual OpenBitSet GetBitSet(FacetDataCache dataCache)
{
if (lastCache == dataCache)
{
return bitSet;
}
bitSet = bitSetBuilder.BitSet(dataCache);
lastCache = dataCache;
return bitSet;
}
internal virtual void DoNextSetBit(System.Collections.BitArray a, OpenBitSet b)
{
int aa = - 1, bb = - 1;
do
{
aa = SupportClass.BitSetSupport.NextSetBit(a, aa + 1);
bb = b.NextSetBit(bb + 1);
Assert.AreEqual(aa, bb);
}
while (aa >= 0);
}
public MultiValueORFacetFilter(MultiValueFacetDataCache dataCache, int[] index)
{
_dataCache = dataCache;
_nestedArray = dataCache._nestedArray;
_index = index;
_bitset = new OpenBitSet(_dataCache.valArray.Count);
foreach (int i in _index)
{
_bitset.FastSet(i);
}
}
internal virtual void DoIterate2(System.Collections.BitArray a, OpenBitSet b)
{
int aa = - 1, bb = - 1;
OpenBitSetIterator iterator = new OpenBitSetIterator(b);
do
{
aa = SupportClass.BitSetSupport.NextSetBit(a, aa + 1);
bb = rand.NextDouble() > 0.5 ? iterator.NextDoc() : iterator.Advance(bb + 1);
Assert.AreEqual(aa == - 1?DocIdSetIterator.NO_MORE_DOCS:aa, bb);
}
while (aa >= 0);
}
public override DocIdSet GetDocIdSet(IndexReader reader)
{
OpenBitSet bitSet = new OpenBitSet(reader.NumDocs());
TermDocs termDocs = reader.TermDocs(new Term("TenantId", _tenantId));
while (termDocs.Next())
{
if (termDocs.Freq > 0)
{
bitSet.Set(termDocs.Doc);
}
}
return bitSet;
}
public FacetOrFilter(FacetDataCache dataCache, int[] index, bool takeCompliment)
{
this.dataCache = dataCache;
orderArray = dataCache.orderArray;
this.index = index;
bitset = new OpenBitSet(this.dataCache.valArray.Count);
foreach (int i in this.index)
{
bitset.FastSet(i);
}
if (takeCompliment)
{
bitset.Flip(0, this.dataCache.valArray.Count);
}
}
public virtual OpenBitSet BitSet(FacetDataCache dataCache)
{
int[] index = facetValueConverter.Convert(dataCache, vals);
OpenBitSet bitset = new OpenBitSet(dataCache.ValArray.Count);
foreach (int i in index)
{
bitset.FastSet(i);
}
if (takeCompliment)
{
// flip the bits
for (int i = 0; i < index.Length; ++i)
{
bitset.FastFlip(i);
}
}
return bitset;
}
/// <summary>
/// Get the DocIdSet.
/// </summary>
/// <param name="reader">Applcible reader.</param>
/// <returns>The set.</returns>
public override DocIdSet GetDocIdSet(IndexReader reader)
{
OpenBitSet result = new OpenBitSet(reader.MaxDoc());
TermDocs td = reader.TermDocs();
try
{
foreach (Term t in this.terms)
{
td.Seek(t);
while (td.Next())
{
result.Set(td.Doc());
}
}
}
finally
{
td.Close();
}
return result;
}
private static void Walk <T>(FST <T> fst) // LUCENENET NOTE: Not referenced anywhere
{
var queue = new List <FST.Arc <T> >();
// Java version was BitSet(), but in .NET we don't have a zero contructor BitSet.
// Couldn't find the default size in BitSet, so went with zero here.
var seen = new BitSet();
var reader = fst.GetBytesReader();
var startArc = fst.GetFirstArc(new FST.Arc <T>());
queue.Add(startArc);
while (queue.Count > 0)
{
//FST.Arc<T> arc = queue.Remove(0);
var arc = queue[0];
queue.RemoveAt(0);
long node = arc.Target;
//System.out.println(arc);
if (FST <T> .TargetHasArcs(arc) && !seen.Get((int)node))
{
seen.Set((int)node);
fst.ReadFirstRealTargetArc(node, arc, reader);
while (true)
{
queue.Add((new FST.Arc <T>()).CopyFrom(arc));
if (arc.IsLast)
{
break;
}
else
{
fst.ReadNextRealArc(arc, reader);
}
}
}
}
}
private OpenBitSet CorrectBits(IndexReader reader)
{
OpenBitSet bits = new OpenBitSet(reader.MaxDoc()); //assume all are INvalid
Term startTerm = new Term(fieldName);
TermEnum te = reader.Terms(startTerm);
if (te != null)
{
Term currTerm = te.Term();
while ((currTerm != null) && (currTerm.Field() == startTerm.Field())) //term fieldnames are interned
{
int lastDoc = -1;
//set non duplicates
TermDocs td = reader.TermDocs(currTerm);
if (td.Next())
{
if (keepMode == KM_USE_FIRST_OCCURRENCE)
{
bits.Set(td.Doc());
}
else
{
do
{
lastDoc = td.Doc();
} while (td.Next());
bits.Set(lastDoc);
}
}
if (!te.Next())
{
break;
}
currTerm = te.Term();
}
}
return bits;
}
public NuGetIndexSearcher(
NuGetSearcherManager manager,
IndexReader reader,
IDictionary<string, string> commitUserData,
IDictionary<string, Filter> curatedFeeds,
Filter[][] latest,
IReadOnlyDictionary<string, int[]> docIdMapping,
Downloads downloads,
VersionResult[] versions,
RankingResult rankings,
QueryBoostingContext context,
OpenBitSet latestBitSet,
OpenBitSet latestStableBitSet,
OwnersResult owners)
: base(reader)
{
Manager = manager;
CommitUserData = commitUserData;
_curatedFeeds = new Dictionary<string, Filter>(curatedFeeds.Count);
foreach (var curatedFeedsFilter in curatedFeeds)
{
_curatedFeeds.Add(curatedFeedsFilter.Key, new CachingWrapperFilter(curatedFeedsFilter.Value));
}
_latest = latest;
DocIdMapping = docIdMapping;
Downloads = downloads;
Versions = versions;
Rankings = rankings;
LatestBitSet = latestBitSet;
LatestStableBitSet = latestStableBitSet;
Owners = owners;
QueryBoostingContext = context;
LastReopen = DateTime.UtcNow;
}
public override DocIdSet GetDocIdSet(IndexReader reader)
{
var bits = new OpenBitSet(reader.MaxDoc());
TermDocs termDocs = reader.TermDocs();
List<double> area = _shape.Area;
int sz = area.Count;
// iterate through each boxid
for (int i = 0; i < sz; i++)
{
double boxId = area[i];
termDocs.Seek(new Term(_fieldName, NumericUtils.DoubleToPrefixCoded(boxId)));
// iterate through all documents
// which have this boxId
while (termDocs.Next())
{
bits.FastSet(termDocs.Doc());
}
}
return bits;
}
internal virtual void DoRandomSets(int maxSize, int iter, int mode)
{
System.Collections.BitArray a0 = null;
OpenBitSet b0 = null;
for (int i = 0; i < iter; i++)
{
int sz = rand.Next(maxSize);
System.Collections.BitArray a = new System.Collections.BitArray(sz);
OpenBitSet b = new OpenBitSet(sz);
// test the various ways of setting bits
if (sz > 0)
{
int nOper = rand.Next(sz);
for (int j = 0; j < nOper; j++)
{
int idx;
idx = rand.Next(sz);
a.Set(idx, true);
b.FastSet(idx);
idx = rand.Next(sz);
a.Set(idx, false);
b.FastClear(idx);
idx = rand.Next(sz);
a.Set(idx, !a.Get(idx));
b.FastFlip(idx);
bool val = b.FlipAndGet(idx);
bool val2 = b.FlipAndGet(idx);
Assert.IsTrue(val != val2);
val = b.GetAndSet(idx);
Assert.IsTrue(val2 == val);
Assert.IsTrue(b.Get(idx));
if (!val)
b.FastClear(idx);
Assert.IsTrue(b.Get(idx) == val);
}
}
// test that the various ways of accessing the bits are equivalent
DoGet(a, b);
// {{dougsale-2.4.0}}
//
// Java's java.util.BitSet automatically grows as needed - i.e., when a bit is referenced beyond
// the size of the BitSet, an exception isn't thrown - rather, the set grows to the size of the
// referenced bit.
//
// System.Collections.BitArray does not have this feature, and thus I've faked it here by
// "growing" the array explicitly when necessary (creating a new instance of the appropriate size
// and setting the appropriate bits).
//
// test ranges, including possible extension
int fromIndex, toIndex;
fromIndex = rand.Next(sz + 80);
toIndex = fromIndex + rand.Next((sz >> 1) + 1);
// {{dougsale-2.4.0}}:
// The following commented-out, compound statement's 'for loop' implicitly grows the Java BitSets 'a'
// and 'aa' to the same cardinality as 'j+1' when 'a.Count < j+1' and 'fromIndex < toIndex':
//BitArray aa = (BitArray)a.Clone(); for (int j = fromIndex; j < toIndex; j++) aa.Set(j, !a.Get(j));
// So, if necessary, lets explicitly grow 'a' now; then 'a' and its clone, 'aa', will be of the required size.
if (a.Count < toIndex && fromIndex < toIndex)
{
System.Collections.BitArray tmp = new System.Collections.BitArray(toIndex, false);
for (int k = 0; k < a.Count; k++)
tmp.Set(k, a.Get(k));
a = tmp;
}
// {{dougsale-2.4.0}}: now we can invoke this statement without going 'out-of-bounds'
System.Collections.BitArray aa = (System.Collections.BitArray)a.Clone(); for (int j = fromIndex; j < toIndex; j++) aa.Set(j, !a.Get(j));
OpenBitSet bb = (OpenBitSet)b.Clone(); bb.Flip(fromIndex, toIndex);
DoIterate(aa, bb, mode); // a problem here is from flip or doIterate
fromIndex = rand.Next(sz + 80);
toIndex = fromIndex + rand.Next((sz >> 1) + 1);
// {{dougsale-2.4.0}}:
// The following commented-out, compound statement's 'for loop' implicitly grows the Java BitSet 'aa'
// when 'a.Count < j+1' and 'fromIndex < toIndex'
//aa = (BitArray)a.Clone(); for (int j = fromIndex; j < toIndex; j++) aa.Set(j, false);
// So, if necessary, lets explicitly grow 'aa' now
if (a.Count < toIndex && fromIndex < toIndex)
{
aa = new System.Collections.BitArray(toIndex);
for (int k = 0; k < a.Count; k++)
aa.Set(k, a.Get(k));
}
else
{
aa = (System.Collections.BitArray)a.Clone();
}
for (int j = fromIndex; j < toIndex; j++) aa.Set(j, false);
bb = (OpenBitSet)b.Clone(); bb.Clear(fromIndex, toIndex);
DoNextSetBit(aa, bb); // a problem here is from clear() or nextSetBit
fromIndex = rand.Next(sz + 80);
toIndex = fromIndex + rand.Next((sz >> 1) + 1);
// {{dougsale-2.4.0}}:
// The following commented-out, compound statement's 'for loop' implicitly grows the Java BitSet 'aa'
// when 'a.Count < j+1' and 'fromIndex < toIndex'
//aa = (BitArray)a.Clone(); for (int j = fromIndex; j < toIndex; j++) aa.Set(j, false);
// So, if necessary, lets explicitly grow 'aa' now
if (a.Count < toIndex && fromIndex < toIndex)
{
aa = new System.Collections.BitArray(toIndex);
for (int k = 0; k < a.Count; k++)
aa.Set(k, a.Get(k));
}
else
{
aa = (System.Collections.BitArray)a.Clone();
}
for (int j = fromIndex; j < toIndex; j++) aa.Set(j, true);
bb = (OpenBitSet)b.Clone(); bb.Set(fromIndex, toIndex);
DoNextSetBit(aa, bb); // a problem here is from set() or nextSetBit
if (a0 != null)
{
Assert.AreEqual(a.Equals(a0), b.Equals(b0));
Assert.AreEqual(SupportClass.BitSetSupport.Cardinality(a), b.Cardinality());
// {{dougsale-2.4.0}}
//
// The Java code used java.util.BitSet, which grows as needed.
// When a bit, outside the dimension of the set is referenced,
// the set automatically grows to the necessary size. The
// new entries default to false.
//
// BitArray does not grow automatically and is not growable.
// Thus when BitArray instances of mismatched cardinality
// interact, we must first explicitly "grow" the smaller one.
//
// This growth is acheived by creating a new instance of the
// required size and copying the appropriate values.
//
//BitArray a_and = (BitArray)a.Clone(); a_and.And(a0);
//BitArray a_or = (BitArray)a.Clone(); a_or.Or(a0);
//BitArray a_xor = (BitArray)a.Clone(); a_xor.Xor(a0);
//BitArray a_andn = (BitArray)a.Clone(); for (int j = 0; j < a_andn.Count; j++) if (a0.Get(j)) a_andn.Set(j, false);
System.Collections.BitArray a_and;
System.Collections.BitArray a_or;
System.Collections.BitArray a_xor;
System.Collections.BitArray a_andn;
if (a.Count < a0.Count)
{
// the Java code would have implicitly resized 'a_and', 'a_or', 'a_xor', and 'a_andn'
// in this case, so we explicitly create a resized stand-in for 'a' here, allowing for
// a to keep its original size while 'a_and', 'a_or', 'a_xor', and 'a_andn' are resized
System.Collections.BitArray tmp = new System.Collections.BitArray(a0.Count, false);
for (int z = 0; z < a.Count; z++)
tmp.Set(z, a.Get(z));
a_and = (System.Collections.BitArray)tmp.Clone(); a_and.And(a0);
a_or = (System.Collections.BitArray)tmp.Clone(); a_or.Or(a0);
a_xor = (System.Collections.BitArray)tmp.Clone(); a_xor.Xor(a0);
a_andn = (System.Collections.BitArray)tmp.Clone(); for (int j = 0; j < a_andn.Count; j++) if (a0.Get(j)) a_andn.Set(j, false);
}
else if (a.Count > a0.Count)
{
// the Java code would have implicitly resized 'a0' in this case, so
// we explicitly do so here:
System.Collections.BitArray tmp = new System.Collections.BitArray(a.Count, false);
for (int z = 0; z < a0.Count; z++)
tmp.Set(z, a0.Get(z));
a0 = tmp;
a_and = (System.Collections.BitArray)a.Clone(); a_and.And(a0);
a_or = (System.Collections.BitArray)a.Clone(); a_or.Or(a0);
a_xor = (System.Collections.BitArray)a.Clone(); a_xor.Xor(a0);
a_andn = (System.Collections.BitArray)a.Clone(); for (int j = 0; j < a_andn.Count; j++) if (a0.Get(j)) a_andn.Set(j, false);
}
else
{
// 'a' and 'a0' are the same size, no explicit growing necessary
a_and = (System.Collections.BitArray)a.Clone(); a_and.And(a0);
a_or = (System.Collections.BitArray)a.Clone(); a_or.Or(a0);
a_xor = (System.Collections.BitArray)a.Clone(); a_xor.Xor(a0);
a_andn = (System.Collections.BitArray)a.Clone(); for (int j = 0; j < a_andn.Count; j++) if (a0.Get(j)) a_andn.Set(j, false);
}
OpenBitSet b_and = (OpenBitSet)b.Clone(); Assert.AreEqual(b, b_and); b_and.And(b0);
OpenBitSet b_or = (OpenBitSet)b.Clone(); b_or.Or(b0);
OpenBitSet b_xor = (OpenBitSet)b.Clone(); b_xor.Xor(b0);
OpenBitSet b_andn = (OpenBitSet)b.Clone(); b_andn.AndNot(b0);
DoIterate(a_and, b_and, mode);
DoIterate(a_or, b_or, mode);
DoIterate(a_xor, b_xor, mode);
DoIterate(a_andn, b_andn, mode);
Assert.AreEqual(SupportClass.BitSetSupport.Cardinality(a_and), b_and.Cardinality());
Assert.AreEqual(SupportClass.BitSetSupport.Cardinality(a_or), b_or.Cardinality());
Assert.AreEqual(SupportClass.BitSetSupport.Cardinality(a_xor), b_xor.Cardinality());
Assert.AreEqual(SupportClass.BitSetSupport.Cardinality(a_andn), b_andn.Cardinality());
// test non-mutating popcounts
Assert.AreEqual(b_and.Cardinality(), OpenBitSet.IntersectionCount(b, b0));
Assert.AreEqual(b_or.Cardinality(), OpenBitSet.UnionCount(b, b0));
Assert.AreEqual(b_xor.Cardinality(), OpenBitSet.XorCount(b, b0));
Assert.AreEqual(b_andn.Cardinality(), OpenBitSet.AndNotCount(b, b0));
}
a0 = a;
b0 = b;
}
}
public OpenBitSetIterator(OpenBitSet obs) : this(obs.Bits, obs.NumWords)
{
}
/// <summary>
/// Returns the popcount or cardinality of the intersection of the two sets.
/// Neither set is modified.
/// </summary>
public static long IntersectionCount(OpenBitSet a, OpenBitSet b)
{
return(BitUtil.Pop_Intersect(a.m_bits, b.m_bits, 0, Math.Min(a.m_wlen, b.m_wlen)));
}
//* see <see cref="union" /> */
public virtual void Or(OpenBitSet other)
{
Union(other);
}
public MultiRandomAccessDocIdSet(MultiValueFacetDataCache dataCache, OpenBitSet bitset)
{
this.dataCache = dataCache;
this.bitset = bitset;
this.nestedArray = dataCache.NestedArray;
}
public OpenBitSetIterator(OpenBitSet obs)
: this(obs.GetBits(), obs.GetNumWords())
{
}
/**
* Create a SortedVIntList from an OpenBitSet.
* @param bits A bit set representing a set of integers.
*/
public SortedVIntList(OpenBitSet bits)
{
SortedVIntListBuilder builder = new SortedVIntListBuilder(this);
int nextInt = bits.NextSetBit(0);
while (nextInt != -1)
{
builder.AddInt(nextInt);
nextInt = bits.NextSetBit(nextInt + 1);
}
builder.Done();
}
public override RandomAccessDocIdSet GetRandomAccessDocIdSet(BoboIndexReader reader)
{
MultiValueFacetDataCache dataCache = _facetHandler.GetFacetData<MultiValueFacetDataCache>(reader);
int[] index = _valueConverter.Convert(dataCache, _vals);
//BigNestedIntArray nestedArray = dataCache.NestedArray;
OpenBitSet bitset = new OpenBitSet(dataCache.ValArray.Count);
foreach (int i in index)
{
bitset.FastSet(i);
}
if (_takeCompliment)
{
// flip the bits
int size = dataCache.ValArray.Count;
for (int i = 0; i < size; ++i)
{
bitset.FastFlip(i);
}
}
long count = bitset.Cardinality();
if (count == 0)
{
return new EmptyRandomAccessDocIdSet();
}
else
{
return new MultiRandomAccessDocIdSet(dataCache, bitset);
}
}
/// <summary>Returns the popcount or cardinality of the intersection of the two sets.
/// Neither set is modified.
/// </summary>
public static long IntersectionCount(OpenBitSet a, OpenBitSet b)
{
return(BitUtil.Pop_intersect(a.bits, b.bits, 0, System.Math.Min(a.wlen, b.wlen)));
}
//* see <see cref="andNot" /> */
public virtual void AndNot(OpenBitSet other)
{
Remove(other);
}
public SearchBits(OpenBitSet openBitSet) {
_openBitSet = openBitSet;
}
public OpenBitSetIterator(OpenBitSet obs) : this(obs.GetBits(), obs.GetNumWords())
{
}
public override DocIdSet GetDocIdSet(Index.IndexReader reader /*, Bits acceptDocs*/)
{
var bits = new OpenBitSet(reader.MaxDoc);
var terms = new TermsEnumCompatibility(reader, fieldName);
var term = terms.Next();
if (term == null)
return null;
Node scanCell = null;
//cells is treated like a stack. LinkedList conveniently has bulk add to beginning. It's in sorted order so that we
// always advance forward through the termsEnum index.
var cells = new LinkedList<Node>(
grid.GetWorldNode().GetSubCells(queryShape));
//This is a recursive algorithm that starts with one or more "big" cells, and then recursively dives down into the
// first such cell that intersects with the query shape. It's a depth first traversal because we don't move onto
// the next big cell (breadth) until we're completely done considering all smaller cells beneath it. For a given
// cell, if it's *within* the query shape then we can conveniently short-circuit the depth traversal and
// grab all documents assigned to this cell/term. For an intersection of the cell and query shape, we either
// recursively step down another grid level or we decide heuristically (via prefixGridScanLevel) that there aren't
// that many points, and so we scan through all terms within this cell (i.e. the term starts with the cell's term),
// seeing which ones are within the query shape.
while (cells.Count > 0)
{
Node cell = cells.First.Value; cells.RemoveFirst();
var cellTerm = cell.GetTokenString();
var seekStat = terms.Seek(cellTerm);
if (seekStat == TermsEnumCompatibility.SeekStatus.END)
break;
if (seekStat == TermsEnumCompatibility.SeekStatus.NOT_FOUND)
continue;
if (cell.GetLevel() == detailLevel || cell.IsLeaf())
{
terms.Docs(bits);
}
else
{//any other intersection
//If the next indexed term is the leaf marker, then add all of them
var nextCellTerm = terms.Next();
Debug.Assert(nextCellTerm.Text.StartsWith(cellTerm));
scanCell = grid.GetNode(nextCellTerm.Text, scanCell);
if (scanCell.IsLeaf())
{
terms.Docs(bits);
term = terms.Next();//move pointer to avoid potential redundant addDocs() below
}
//Decide whether to continue to divide & conquer, or whether it's time to scan through terms beneath this cell.
// Scanning is a performance optimization trade-off.
bool scan = cell.GetLevel() >= prefixGridScanLevel;//simple heuristic
if (!scan)
{
//Divide & conquer
var lst = cell.GetSubCells(queryShape);
for (var i = lst.Count - 1; i >= 0; i--) //add to beginning
{
cells.AddFirst(lst[i]);
}
}
else
{
//Scan through all terms within this cell to see if they are within the queryShape. No seek()s.
for (var t = terms.Term(); t != null && t.Text.StartsWith(cellTerm); t = terms.Next())
{
scanCell = grid.GetNode(t.Text, scanCell);
int termLevel = scanCell.GetLevel();
if (termLevel > detailLevel)
continue;
if (termLevel == detailLevel || scanCell.IsLeaf())
{
//TODO should put more thought into implications of box vs point
Shape cShape = termLevel == grid.GetMaxLevels() ? scanCell.GetCenter() : scanCell.GetShape();
if (queryShape.Relate(cShape) == SpatialRelation.DISJOINT)
continue;
terms.Docs(bits);
}
}//term loop
}
}
}//cell loop
return bits;
}
/// <summary>
/// (non-Javadoc)
/// see com.browseengine.bobo.util.BigSegmentedArray#findValues(org.apache.lucene.util.OpenBitSet, int, int)
/// </summary>
/// <param name="bitset"></param>
/// <param name="id"></param>
/// <param name="maxId"></param>
/// <returns></returns>
public override int FindValues(OpenBitSet bitset, int id, int maxId)
{
while (id <= maxId)
{
int i = id >> SHIFT_SIZE;
if (_array[i] == null)
{
if (bitset.FastGet(_fillValue))
return id;
else
id = (i + 1) << SHIFT_SIZE; // jump to next segment
}
else
{
if (bitset.FastGet(_array[i][id & MASK]))
return id;
else
id++;
}
}
return DocIdSetIterator.NO_MORE_DOCS;
}
public virtual void TestEquals()
{
rand = NewRandom();
OpenBitSet b1 = new OpenBitSet(1111);
OpenBitSet b2 = new OpenBitSet(2222);
Assert.IsTrue(b1.Equals(b2));
Assert.IsTrue(b2.Equals(b1));
b1.Set(10);
Assert.IsFalse(b1.Equals(b2));
Assert.IsFalse(b2.Equals(b1));
b2.Set(10);
Assert.IsTrue(b1.Equals(b2));
Assert.IsTrue(b2.Equals(b1));
b2.Set(2221);
Assert.IsFalse(b1.Equals(b2));
Assert.IsFalse(b2.Equals(b1));
b1.Set(2221);
Assert.IsTrue(b1.Equals(b2));
Assert.IsTrue(b2.Equals(b1));
// try different type of object
Assert.IsFalse(b1.Equals(new System.Object()));
}
public MultiValueOrFacetDocIdSetIterator(MultiValueFacetDataCache dataCache, OpenBitSet bs)
: base(dataCache, bs)
{
_nestedArray = dataCache.NestedArray;
}
internal virtual void DoRandomSets(int maxSize, int iter, int mode)
{
System.Collections.BitArray a0 = null;
OpenBitSet b0 = null;
for (int i = 0; i < iter; i++)
{
int sz = rand.Next(maxSize);
System.Collections.BitArray a = new System.Collections.BitArray(sz);
OpenBitSet b = new OpenBitSet(sz);
// test the various ways of setting bits
if (sz > 0)
{
int nOper = rand.Next(sz);
for (int j = 0; j < nOper; j++)
{
int idx;
idx = rand.Next(sz);
a.Set(idx, true);
b.FastSet(idx);
idx = rand.Next(sz);
a.Set(idx, false);
b.FastClear(idx);
idx = rand.Next(sz);
a.Set(idx, !a.Get(idx));
b.FastFlip(idx);
bool val = b.FlipAndGet(idx);
bool val2 = b.FlipAndGet(idx);
Assert.IsTrue(val != val2);
val = b.GetAndSet(idx);
Assert.IsTrue(val2 == val);
Assert.IsTrue(b.Get(idx));
if (!val)
{
b.FastClear(idx);
}
Assert.IsTrue(b.Get(idx) == val);
}
}
// test that the various ways of accessing the bits are equivalent
DoGet(a, b);
// {{dougsale-2.4.0}}
//
// Java's java.util.BitSet automatically grows as needed - i.e., when a bit is referenced beyond
// the size of the BitSet, an exception isn't thrown - rather, the set grows to the size of the
// referenced bit.
//
// System.Collections.BitArray does not have this feature, and thus I've faked it here by
// "growing" the array explicitly when necessary (creating a new instance of the appropriate size
// and setting the appropriate bits).
//
// test ranges, including possible extension
int fromIndex, toIndex;
fromIndex = rand.Next(sz + 80);
toIndex = fromIndex + rand.Next((sz >> 1) + 1);
// {{dougsale-2.4.0}}:
// The following commented-out, compound statement's 'for loop' implicitly grows the Java BitSets 'a'
// and 'aa' to the same cardinality as 'j+1' when 'a.Count < j+1' and 'fromIndex < toIndex':
//BitArray aa = (BitArray)a.Clone(); for (int j = fromIndex; j < toIndex; j++) aa.Set(j, !a.Get(j));
// So, if necessary, lets explicitly grow 'a' now; then 'a' and its clone, 'aa', will be of the required size.
if (a.Count < toIndex && fromIndex < toIndex)
{
System.Collections.BitArray tmp = new System.Collections.BitArray(toIndex, false);
for (int k = 0; k < a.Count; k++)
{
tmp.Set(k, a.Get(k));
}
a = tmp;
}
// {{dougsale-2.4.0}}: now we can invoke this statement without going 'out-of-bounds'
System.Collections.BitArray aa = (System.Collections.BitArray)a.Clone(); for (int j = fromIndex; j < toIndex; j++)
{
aa.Set(j, !a.Get(j));
}
OpenBitSet bb = (OpenBitSet)b.Clone(); bb.Flip(fromIndex, toIndex);
DoIterate(aa, bb, mode); // a problem here is from flip or doIterate
fromIndex = rand.Next(sz + 80);
toIndex = fromIndex + rand.Next((sz >> 1) + 1);
// {{dougsale-2.4.0}}:
// The following commented-out, compound statement's 'for loop' implicitly grows the Java BitSet 'aa'
// when 'a.Count < j+1' and 'fromIndex < toIndex'
//aa = (BitArray)a.Clone(); for (int j = fromIndex; j < toIndex; j++) aa.Set(j, false);
// So, if necessary, lets explicitly grow 'aa' now
if (a.Count < toIndex && fromIndex < toIndex)
{
aa = new System.Collections.BitArray(toIndex);
for (int k = 0; k < a.Count; k++)
{
aa.Set(k, a.Get(k));
}
}
else
{
aa = (System.Collections.BitArray)a.Clone();
}
for (int j = fromIndex; j < toIndex; j++)
{
aa.Set(j, false);
}
bb = (OpenBitSet)b.Clone(); bb.Clear(fromIndex, toIndex);
DoNextSetBit(aa, bb); // a problem here is from clear() or nextSetBit
fromIndex = rand.Next(sz + 80);
toIndex = fromIndex + rand.Next((sz >> 1) + 1);
// {{dougsale-2.4.0}}:
// The following commented-out, compound statement's 'for loop' implicitly grows the Java BitSet 'aa'
// when 'a.Count < j+1' and 'fromIndex < toIndex'
//aa = (BitArray)a.Clone(); for (int j = fromIndex; j < toIndex; j++) aa.Set(j, false);
// So, if necessary, lets explicitly grow 'aa' now
if (a.Count < toIndex && fromIndex < toIndex)
{
aa = new System.Collections.BitArray(toIndex);
for (int k = 0; k < a.Count; k++)
{
aa.Set(k, a.Get(k));
}
}
else
{
aa = (System.Collections.BitArray)a.Clone();
}
for (int j = fromIndex; j < toIndex; j++)
{
aa.Set(j, true);
}
bb = (OpenBitSet)b.Clone(); bb.Set(fromIndex, toIndex);
DoNextSetBit(aa, bb); // a problem here is from set() or nextSetBit
if (a0 != null)
{
Assert.AreEqual(a.Equals(a0), b.Equals(b0));
Assert.AreEqual(BitSetSupport.Cardinality(a), b.Cardinality());
// {{dougsale-2.4.0}}
//
// The Java code used java.util.BitSet, which grows as needed.
// When a bit, outside the dimension of the set is referenced,
// the set automatically grows to the necessary size. The
// new entries default to false.
//
// BitArray does not grow automatically and is not growable.
// Thus when BitArray instances of mismatched cardinality
// interact, we must first explicitly "grow" the smaller one.
//
// This growth is acheived by creating a new instance of the
// required size and copying the appropriate values.
//
//BitArray a_and = (BitArray)a.Clone(); a_and.And(a0);
//BitArray a_or = (BitArray)a.Clone(); a_or.Or(a0);
//BitArray a_xor = (BitArray)a.Clone(); a_xor.Xor(a0);
//BitArray a_andn = (BitArray)a.Clone(); for (int j = 0; j < a_andn.Count; j++) if (a0.Get(j)) a_andn.Set(j, false);
System.Collections.BitArray a_and;
System.Collections.BitArray a_or;
System.Collections.BitArray a_xor;
System.Collections.BitArray a_andn;
if (a.Count < a0.Count)
{
// the Java code would have implicitly resized 'a_and', 'a_or', 'a_xor', and 'a_andn'
// in this case, so we explicitly create a resized stand-in for 'a' here, allowing for
// a to keep its original size while 'a_and', 'a_or', 'a_xor', and 'a_andn' are resized
System.Collections.BitArray tmp = new System.Collections.BitArray(a0.Count, false);
for (int z = 0; z < a.Count; z++)
{
tmp.Set(z, a.Get(z));
}
a_and = (System.Collections.BitArray)tmp.Clone(); a_and.And(a0);
a_or = (System.Collections.BitArray)tmp.Clone(); a_or.Or(a0);
a_xor = (System.Collections.BitArray)tmp.Clone(); a_xor.Xor(a0);
a_andn = (System.Collections.BitArray)tmp.Clone(); for (int j = 0; j < a_andn.Count; j++)
{
if (a0.Get(j))
{
a_andn.Set(j, false);
}
}
}
else if (a.Count > a0.Count)
{
// the Java code would have implicitly resized 'a0' in this case, so
// we explicitly do so here:
System.Collections.BitArray tmp = new System.Collections.BitArray(a.Count, false);
for (int z = 0; z < a0.Count; z++)
{
tmp.Set(z, a0.Get(z));
}
a0 = tmp;
a_and = (System.Collections.BitArray)a.Clone(); a_and.And(a0);
a_or = (System.Collections.BitArray)a.Clone(); a_or.Or(a0);
a_xor = (System.Collections.BitArray)a.Clone(); a_xor.Xor(a0);
a_andn = (System.Collections.BitArray)a.Clone(); for (int j = 0; j < a_andn.Count; j++)
{
if (a0.Get(j))
{
a_andn.Set(j, false);
}
}
}
else
{
// 'a' and 'a0' are the same size, no explicit growing necessary
a_and = (System.Collections.BitArray)a.Clone(); a_and.And(a0);
a_or = (System.Collections.BitArray)a.Clone(); a_or.Or(a0);
a_xor = (System.Collections.BitArray)a.Clone(); a_xor.Xor(a0);
a_andn = (System.Collections.BitArray)a.Clone(); for (int j = 0; j < a_andn.Count; j++)
{
if (a0.Get(j))
{
a_andn.Set(j, false);
}
}
}
OpenBitSet b_and = (OpenBitSet)b.Clone(); Assert.AreEqual(b, b_and); b_and.And(b0);
OpenBitSet b_or = (OpenBitSet)b.Clone(); b_or.Or(b0);
OpenBitSet b_xor = (OpenBitSet)b.Clone(); b_xor.Xor(b0);
OpenBitSet b_andn = (OpenBitSet)b.Clone(); b_andn.AndNot(b0);
DoIterate(a_and, b_and, mode);
DoIterate(a_or, b_or, mode);
DoIterate(a_xor, b_xor, mode);
DoIterate(a_andn, b_andn, mode);
Assert.AreEqual(BitSetSupport.Cardinality(a_and), b_and.Cardinality());
Assert.AreEqual(BitSetSupport.Cardinality(a_or), b_or.Cardinality());
Assert.AreEqual(BitSetSupport.Cardinality(a_xor), b_xor.Cardinality());
Assert.AreEqual(BitSetSupport.Cardinality(a_andn), b_andn.Cardinality());
// test non-mutating popcounts
Assert.AreEqual(b_and.Cardinality(), OpenBitSet.IntersectionCount(b, b0));
Assert.AreEqual(b_or.Cardinality(), OpenBitSet.UnionCount(b, b0));
Assert.AreEqual(b_xor.Cardinality(), OpenBitSet.XorCount(b, b0));
Assert.AreEqual(b_andn.Cardinality(), OpenBitSet.AndNotCount(b, b0));
}
a0 = a;
b0 = b;
}
}
private int FindIn(OpenBitSet OpenBitSet, int baseVal, int val)
{
return -1;
}
///<summary>Method to decompress the entire batch
/// * </summary>
/// * <param name="blob"> OpenBitSet </param>
/// * <returns> int array with decompressed segment of numbers </returns>
protected internal virtual int[] Decompress(OpenBitSet blob)
{
return new P4DSetNoBase().Decompress(blob);
}
// some BitSet compatability methods
//** see {@link intersect} */
public virtual void And(OpenBitSet other)
{
Intersect(other);
}
/// <summary>
/// Assert that the content of the <see cref="DocIdSet"/> is the same as the content of the <see cref="OpenBitSet"/>.
/// </summary>
#pragma warning disable xUnit1013
public virtual void AssertEquals(int numBits, OpenBitSet ds1, WAH8DocIdSet ds2)
#pragma warning restore xUnit1013
{
// nextDoc
DocIdSetIterator it2 = ds2.GetIterator();
if (it2 == null)
{
Assert.AreEqual(-1, ds1.NextSetBit(0));
}
else
{
Assert.AreEqual(-1, it2.DocID);
for (int doc = ds1.NextSetBit(0); doc != -1; doc = ds1.NextSetBit(doc + 1))
{
Assert.AreEqual(doc, it2.NextDoc());
Assert.AreEqual(doc, it2.DocID);
}
Assert.AreEqual(DocIdSetIterator.NO_MORE_DOCS, it2.NextDoc());
Assert.AreEqual(DocIdSetIterator.NO_MORE_DOCS, it2.DocID);
}
// nextDoc / advance
it2 = ds2.GetIterator();
if (it2 == null)
{
Assert.AreEqual(-1, ds1.NextSetBit(0));
}
else
{
for (int doc = -1; doc != DocIdSetIterator.NO_MORE_DOCS;)
{
if (Random.NextBoolean())
{
doc = ds1.NextSetBit(doc + 1);
if (doc == -1)
{
doc = DocIdSetIterator.NO_MORE_DOCS;
}
Assert.AreEqual(doc, it2.NextDoc());
Assert.AreEqual(doc, it2.DocID);
}
else
{
int target = doc + 1 + Random.Next(Random.NextBoolean() ? 64 : Math.Max(numBits / 8, 1));
doc = ds1.NextSetBit(target);
if (doc == -1)
{
doc = DocIdSetIterator.NO_MORE_DOCS;
}
Assert.AreEqual(doc, it2.Advance(target));
Assert.AreEqual(doc, it2.DocID);
}
}
}
// bits()
IBits bits = ds2.Bits;
if (bits != null)
{
// test consistency between bits and iterator
it2 = ds2.GetIterator();
for (int previousDoc = -1, doc = it2.NextDoc(); ; previousDoc = doc, doc = it2.NextDoc())
{
int max = doc == DocIdSetIterator.NO_MORE_DOCS ? bits.Length : doc;
for (int i = previousDoc + 1; i < max; ++i)
{
Assert.AreEqual(false, bits.Get(i));
}
if (doc == DocIdSetIterator.NO_MORE_DOCS)
{
break;
}
Assert.AreEqual(true, bits.Get(doc));
}
}
Assert.AreEqual(ds1.Cardinality(), ds2.Cardinality());
}
