Package org.elasticsearch.index.fielddata.ordinals

Examples of org.elasticsearch.index.fielddata.ordinals.OrdinalsBuilder$OrdinalsStore

82
83
84
85
86
87
88
89
90
91
92
93
94
95
96
97
98
99
100
101
102
103
104
105
106
107
108
109
110
111
112
113
114
115
116
117
118
119
120
121
122
123
        // TODO: how can we guess the number of terms? numerics end up creating more terms per value...
        FloatArray values = BigArrays.NON_RECYCLING_INSTANCE.newFloatArray(128);

        final float acceptableTransientOverheadRatio = fieldDataType.getSettings().getAsFloat("acceptable_transient_overhead_ratio", OrdinalsBuilder.DEFAULT_ACCEPTABLE_OVERHEAD_RATIO);
        boolean success = false;
        try (OrdinalsBuilder builder = new OrdinalsBuilder(reader.maxDoc(), acceptableTransientOverheadRatio)) {
            BytesRefIterator iter = builder.buildFromTerms(getNumericType().wrapTermsEnum(terms.iterator(null)));
            BytesRef term;
            long numTerms = 0;
            while ((term = iter.next()) != null) {
                values = BigArrays.NON_RECYCLING_INSTANCE.grow(values, numTerms + 1);
                values.set(numTerms++, NumericUtils.sortableIntToFloat(NumericUtils.prefixCodedToInt(term)));
            }
            values = BigArrays.NON_RECYCLING_INSTANCE.resize(values, numTerms);
            final FloatArray finalValues = values;
            final Ordinals build = builder.build(fieldDataType.getSettings());
            RandomAccessOrds ordinals = build.ordinals();
            if (FieldData.isMultiValued(ordinals) || CommonSettings.getMemoryStorageHint(fieldDataType) == CommonSettings.MemoryStorageFormat.ORDINALS) {
                final long ramBytesUsed = build.ramBytesUsed() + values.ramBytesUsed();
                data = new AtomicDoubleFieldData(ramBytesUsed) {

                    @Override
                    public SortedNumericDoubleValues getDoubleValues() {
                        return withOrdinals(build, finalValues, reader.maxDoc());
                    }
                   
                    @Override
                    public Iterable<? extends Accountable> getChildResources() {
                        List<Accountable> resources = new ArrayList<>();
                        resources.add(Accountables.namedAccountable("ordinals", build));
                        resources.add(Accountables.namedAccountable("values", finalValues));
                        return Collections.unmodifiableList(resources);
                    }

                };
            } else {
                final BitSet set = builder.buildDocsWithValuesSet();

                // there's sweet spot where due to low unique value count, using ordinals will consume less memory
                long singleValuesArraySize = reader.maxDoc() * RamUsageEstimator.NUM_BYTES_FLOAT + (set == null ? 0 : set.ramBytesUsed());
                long uniqueValuesArraySize = values.ramBytesUsed();
                long ordinalsSize = build.ramBytesUsed();
View Full Code Here
98
99
100
101
102
103
104
105
106
107
108
109
110
111
112
113
114
115
116
117
118
119
120
121
122
123
124
125
126
127
128
129
130
131
132
133
134
135
136
137
138
139
140
141
142
143
144
145
146
        final int pageSize = Integer.highestOneBit(BigArrays.PAGE_SIZE_IN_BYTES * 8 / encoding.numBitsPerCoordinate() - 1) << 1;
        PagedMutable lat = new PagedMutable(initialSize, pageSize, encoding.numBitsPerCoordinate(), PackedInts.COMPACT);
        PagedMutable lon = new PagedMutable(initialSize, pageSize, encoding.numBitsPerCoordinate(), PackedInts.COMPACT);
        final float acceptableTransientOverheadRatio = fieldDataType.getSettings().getAsFloat("acceptable_transient_overhead_ratio", OrdinalsBuilder.DEFAULT_ACCEPTABLE_OVERHEAD_RATIO);
        boolean success = false;
        try (OrdinalsBuilder builder = new OrdinalsBuilder(terms.size(), reader.maxDoc(), acceptableTransientOverheadRatio)) {
            final GeoPointEnum iter = new GeoPointEnum(builder.buildFromTerms(terms.iterator(null)));
            GeoPoint point;
            while ((point = iter.next()) != null) {
                final long ord = builder.currentOrdinal();
                if (lat.size() <= ord) {
                    final long newSize = BigArrays.overSize(ord + 1);
                    lat = lat.resize(newSize);
                    lon = lon.resize(newSize);
                }
                lat.set(ord, encoding.encodeCoordinate(point.getLat()));
                lon.set(ord, encoding.encodeCoordinate(point.getLon()));
            }

            Ordinals build = builder.build(fieldDataType.getSettings());
            RandomAccessOrds ordinals = build.ordinals();
            if (FieldData.isMultiValued(ordinals) || CommonSettings.getMemoryStorageHint(fieldDataType) == CommonSettings.MemoryStorageFormat.ORDINALS) {
                if (lat.size() != ordinals.getValueCount()) {
                    lat = lat.resize(ordinals.getValueCount());
                    lon = lon.resize(ordinals.getValueCount());
                }
                data = new GeoPointCompressedAtomicFieldData.WithOrdinals(encoding, lon, lat, build, reader.maxDoc());
            } else {
                int maxDoc = reader.maxDoc();
                PagedMutable sLat = new PagedMutable(reader.maxDoc(), pageSize, encoding.numBitsPerCoordinate(), PackedInts.COMPACT);
                PagedMutable sLon = new PagedMutable(reader.maxDoc(), pageSize, encoding.numBitsPerCoordinate(), PackedInts.COMPACT);
                final long missing = encoding.encodeCoordinate(0);
                for (int i = 0; i < maxDoc; i++) {
                    ordinals.setDocument(i);
                    final long nativeOrdinal = ordinals.nextOrd();
                    if (nativeOrdinal >= 0) {
                        sLat.set(i, lat.get(nativeOrdinal));
                        sLon.set(i, lon.get(nativeOrdinal));
                    } else {
                        sLat.set(i, missing);
                        sLon.set(i, missing);
                    }
                }
                BitSet set = builder.buildDocsWithValuesSet();
                data = new GeoPointCompressedAtomicFieldData.Single(encoding, sLon, sLat, set);
            }
            success = true;
            return data;
        } finally {
View Full Code Here
73
74
75
76
77
78
79
80
81
82
83
84
85
86
87
88
89
90
91
92
93
94
95
96
97
98
99
100
101
102
103
104
105
106
107
108
109
110
111
        }
        DoubleArray lat = BigArrays.NON_RECYCLING_INSTANCE.newDoubleArray(128);
        DoubleArray lon = BigArrays.NON_RECYCLING_INSTANCE.newDoubleArray(128);
        final float acceptableTransientOverheadRatio = fieldDataType.getSettings().getAsFloat("acceptable_transient_overhead_ratio", OrdinalsBuilder.DEFAULT_ACCEPTABLE_OVERHEAD_RATIO);
        boolean success = false;
        try (OrdinalsBuilder builder = new OrdinalsBuilder(terms.size(), reader.maxDoc(), acceptableTransientOverheadRatio)) {
            final GeoPointEnum iter = new GeoPointEnum(builder.buildFromTerms(terms.iterator(null)));
            GeoPoint point;
            long numTerms = 0;
            while ((point = iter.next()) != null) {
                lat = BigArrays.NON_RECYCLING_INSTANCE.resize(lat, numTerms + 1);
                lon = BigArrays.NON_RECYCLING_INSTANCE.resize(lon, numTerms + 1);
                lat.set(numTerms, point.getLat());
                lon.set(numTerms, point.getLon());
                ++numTerms;
            }
            lat = BigArrays.NON_RECYCLING_INSTANCE.resize(lat, numTerms);
            lon = BigArrays.NON_RECYCLING_INSTANCE.resize(lon, numTerms);

            Ordinals build = builder.build(fieldDataType.getSettings());
            RandomAccessOrds ordinals = build.ordinals();
            if (!(FieldData.isMultiValued(ordinals) || CommonSettings.getMemoryStorageHint(fieldDataType) == CommonSettings.MemoryStorageFormat.ORDINALS)) {
                int maxDoc = reader.maxDoc();
                DoubleArray sLat = BigArrays.NON_RECYCLING_INSTANCE.newDoubleArray(reader.maxDoc());
                DoubleArray sLon = BigArrays.NON_RECYCLING_INSTANCE.newDoubleArray(reader.maxDoc());
                for (int i = 0; i < maxDoc; i++) {
                    ordinals.setDocument(i);
                    long nativeOrdinal = ordinals.nextOrd();
                    if (nativeOrdinal != RandomAccessOrds.NO_MORE_ORDS) {
                        sLat.set(i, lat.get(nativeOrdinal));
                        sLon.set(i, lon.get(nativeOrdinal));
                    }
                }
                BitSet set = builder.buildDocsWithValuesSet();
                data = new GeoPointDoubleArrayAtomicFieldData.Single(sLon, sLat, set);
            } else {
                data = new GeoPointDoubleArrayAtomicFieldData.WithOrdinals(lon, lat, build, reader.maxDoc());
            }
            success = true;
View Full Code Here
84
85
86
87
88
89
90
91
92
93
94
95
96
97
98
99
100
101
102
103
104
105
106
107
108
109
110
111
112
113
114
115
116
117
118
119
120
121
122
123
124
125
        // TODO: how can we guess the number of terms? numerics end up creating more terms per value...
        DoubleArray values = BigArrays.NON_RECYCLING_INSTANCE.newDoubleArray(128);

        final float acceptableTransientOverheadRatio = fieldDataType.getSettings().getAsFloat("acceptable_transient_overhead_ratio", OrdinalsBuilder.DEFAULT_ACCEPTABLE_OVERHEAD_RATIO);
        boolean success = false;
        try (OrdinalsBuilder builder = new OrdinalsBuilder(reader.maxDoc(), acceptableTransientOverheadRatio)) {
            final BytesRefIterator iter = builder.buildFromTerms(getNumericType().wrapTermsEnum(terms.iterator(null)));
            BytesRef term;
            long numTerms = 0;
            while ((term = iter.next()) != null) {
                values = BigArrays.NON_RECYCLING_INSTANCE.grow(values, numTerms + 1);
                values.set(numTerms++, NumericUtils.sortableLongToDouble(NumericUtils.prefixCodedToLong(term)));
            }
            values = BigArrays.NON_RECYCLING_INSTANCE.resize(values, numTerms);
            final DoubleArray finalValues = values;
            final Ordinals build = builder.build(fieldDataType.getSettings());
            RandomAccessOrds ordinals = build.ordinals();
            if (FieldData.isMultiValued(ordinals) || CommonSettings.getMemoryStorageHint(fieldDataType) == CommonSettings.MemoryStorageFormat.ORDINALS) {
                final long ramBytesUsed = build.ramBytesUsed() + values.ramBytesUsed();
                data = new AtomicDoubleFieldData(ramBytesUsed) {

                    @Override
                    public SortedNumericDoubleValues getDoubleValues() {
                        return withOrdinals(build, finalValues, reader.maxDoc());
                    }
                   
                    @Override
                    public Iterable<? extends Accountable> getChildResources() {
                        List<Accountable> resources = new ArrayList<>();
                        resources.add(Accountables.namedAccountable("ordinals", build));
                        resources.add(Accountables.namedAccountable("values", finalValues));
                        return Collections.unmodifiableList(resources);
                    }

                };
            } else {
                final BitSet set = builder.buildDocsWithValuesSet();

                // there's sweet spot where due to low unique value count, using ordinals will consume less memory
                long singleValuesArraySize = reader.maxDoc() * RamUsageEstimator.NUM_BYTES_DOUBLE + (set == null ? 0 : set.ramBytesUsed());
                long uniqueValuesArraySize = values.ramBytesUsed();
                long ordinalsSize = build.ramBytesUsed();
View Full Code Here
80
81
82
83
84
85
86
87
88
89
90
91
92
93
94
95
96
97
98
99
100
101
102
103
104
105
106
107
        } else {
            numTerms = -1;
        }
        final float acceptableTransientOverheadRatio = fieldDataType.getSettings().getAsFloat("acceptable_transient_overhead_ratio", OrdinalsBuilder.DEFAULT_ACCEPTABLE_OVERHEAD_RATIO);
        boolean success = false;
        try (OrdinalsBuilder builder = new OrdinalsBuilder(numTerms, reader.maxDoc(), acceptableTransientOverheadRatio)) {

            // we don't store an ord 0 in the FST since we could have an empty string in there and FST don't support
            // empty strings twice. ie. them merge fails for long output.
            TermsEnum termsEnum = filter(terms, reader);
            DocsEnum docsEnum = null;
            for (BytesRef term = termsEnum.next(); term != null; term = termsEnum.next()) {
                final long termOrd = builder.nextOrdinal();
                fstBuilder.add(Util.toIntsRef(term, scratch), (long) termOrd);
                docsEnum = termsEnum.docs(null, docsEnum, DocsEnum.FLAG_NONE);
                for (int docId = docsEnum.nextDoc(); docId != DocsEnum.NO_MORE_DOCS; docId = docsEnum.nextDoc()) {
                    builder.addDoc(docId);
                }
            }

            FST<Long> fst = fstBuilder.finish();

            final Ordinals ordinals = builder.build(fieldDataType.getSettings());

            data = new FSTBytesAtomicFieldData(fst, ordinals);
            success = true;
            return data;
        } finally {
View Full Code Here
188
189
190
191
192
193
194
        final OrdinalsBuilder builder;

        TypeBuilder(float acceptableTransientOverheadRatio, LeafReader reader) throws IOException {
            bytes = new PagedBytes(15);
            termOrdToBytesOffset = PackedLongValues.monotonicBuilder(PackedInts.COMPACT);
            builder = new OrdinalsBuilder(-1, reader.maxDoc(), acceptableTransientOverheadRatio);
        }
View Full Code Here
102
103
104
105
106
107
108
109
110
111
112
113
114
115
116
117
118
119
120
121
122
123
124
125
126
127
128
129
130
131
132
133
134
135
136
137
138
139
140
141
142
143
144
145
146
        final PackedLongValues.Builder valuesBuilder = PackedLongValues.monotonicBuilder(PackedInts.COMPACT);

        final float acceptableTransientOverheadRatio = fieldDataType.getSettings().getAsFloat("acceptable_transient_overhead_ratio", OrdinalsBuilder.DEFAULT_ACCEPTABLE_OVERHEAD_RATIO);
        TermsEnum termsEnum = estimator.beforeLoad(terms);
        boolean success = false;
        try (OrdinalsBuilder builder = new OrdinalsBuilder(-1, reader.maxDoc(), acceptableTransientOverheadRatio)) {
            BytesRefIterator iter = builder.buildFromTerms(termsEnum);
            BytesRef term;
            assert !getNumericType().isFloatingPoint();
            final boolean indexedAsLong = getNumericType().requiredBits() > 32;
            while ((term = iter.next()) != null) {
                final long value = indexedAsLong
                        ? NumericUtils.prefixCodedToLong(term)
                        : NumericUtils.prefixCodedToInt(term);
                valuesBuilder.add(value);
            }
            final PackedLongValues values = valuesBuilder.build();
            final Ordinals build = builder.build(fieldDataType.getSettings());
            CommonSettings.MemoryStorageFormat formatHint = CommonSettings.getMemoryStorageHint(fieldDataType);

            RandomAccessOrds ordinals = build.ordinals();
            if (FieldData.isMultiValued(ordinals) || formatHint == CommonSettings.MemoryStorageFormat.ORDINALS) {
                final long ramBytesUsed = build.ramBytesUsed() + values.ramBytesUsed();
                data = new AtomicLongFieldData(ramBytesUsed) {

                    @Override
                    public SortedNumericDocValues getLongValues() {
                        return withOrdinals(build, values, reader.maxDoc());
                    }

                    @Override
                    public Iterable<? extends Accountable> getChildResources() {
                        List<Accountable> resources = new ArrayList<>();
                        resources.add(Accountables.namedAccountable("ordinals", build));
                        resources.add(Accountables.namedAccountable("values", values));
                        return Collections.unmodifiableList(resources);
                    }
                };
            } else {
                final BitSet docsWithValues = builder.buildDocsWithValuesSet();

                long minV, maxV;
                minV = maxV = 0;
                if (values.size() > 0) {
                    minV = values.get(0);
View Full Code Here
87
88
89
90
91
92
93
94
95
96
97
98
99
100
101
102
103
104
105
106
107
108
109
        // per-term

        TermsEnum termsEnum = estimator.beforeLoad(terms);
        boolean success = false;

        try (OrdinalsBuilder builder = new OrdinalsBuilder(numTerms, reader.maxDoc(), acceptableTransientOverheadRatio)) {
            DocsEnum docsEnum = null;
            for (BytesRef term = termsEnum.next(); term != null; term = termsEnum.next()) {
                final long termOrd = builder.nextOrdinal();
                assert termOrd == termOrdToBytesOffset.size();
                termOrdToBytesOffset.add(bytes.copyUsingLengthPrefix(term));
                docsEnum = termsEnum.docs(null, docsEnum, DocsEnum.FLAG_NONE);
                for (int docId = docsEnum.nextDoc(); docId != DocsEnum.NO_MORE_DOCS; docId = docsEnum.nextDoc()) {
                    builder.addDoc(docId);
                }
            }
            PagedBytes.Reader bytesReader = bytes.freeze(true);
            final Ordinals ordinals = builder.build(fieldDataType.getSettings());

            data = new PagedBytesAtomicFieldData(bytesReader, termOrdToBytesOffset.build(), ordinals);
            success = true;
            return data;
        } finally {
View Full Code Here
TOP

Related Classes of org.elasticsearch.index.fielddata.ordinals.OrdinalsBuilder$OrdinalsStore

  • org.apache.lucene.index.FilteredTermsEnum
  • org.apache.lucene.util.packed.GrowableWriter
  • org.apache.lucene.util.packed.PagedGrowableWriter
  • org.elasticsearch.index.fielddata.plain.DoubleArrayIndexFieldData
  • org.elasticsearch.index.fielddata.plain.FloatArrayIndexFieldData
  • org.elasticsearch.index.fielddata.plain.FSTBytesIndexFieldData
  • org.elasticsearch.index.fielddata.plain.GeoPointCompressedIndexFieldData
  • org.elasticsearch.index.fielddata.plain.GeoPointDoubleArrayIndexFieldData
  • org.elasticsearch.index.fielddata.plain.PackedArrayIndexFieldData
  • org.elasticsearch.index.fielddata.plain.PagedBytesIndexFieldData
    • Copyright © 2018 www.massapicom. All rights reserved.
    All source code are property of their respective owners. Java is a trademark of Sun Microsystems, Inc and owned by ORACLE Inc. Contact coftware#gmail.com.