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/**
Copyright (C) SYSTAP, LLC DBA Blazegraph 2006-2016. All rights reserved.
Contact:
SYSTAP, LLC DBA Blazegraph
2501 Calvert ST NW #106
Washington, DC 20008
[email protected]
This program is free software; you can redistribute it and/or modify
it under the terms of the GNU General Public License as published by
the Free Software Foundation; version 2 of the License.
This program is distributed in the hope that it will be useful,
but WITHOUT ANY WARRANTY; without even the implied warranty of
MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
GNU General Public License for more details.
You should have received a copy of the GNU General Public License
along with this program; if not, write to the Free Software
Foundation, Inc., 59 Temple Place, Suite 330, Boston, MA 02111-1307 USA
*/
/*
* Created on Oct 14, 2006
*/
package com.bigdata.rdf.store;
import java.io.File;
import java.util.Arrays;
import java.util.LinkedHashMap;
import java.util.LinkedHashSet;
import java.util.Map;
import java.util.Properties;
import java.util.Set;
import java.util.TreeMap;
import java.util.Vector;
import java.util.concurrent.atomic.AtomicInteger;
import java.util.concurrent.atomic.AtomicLong;
import junit.framework.AssertionFailedError;
import junit.framework.TestCase;
import junit.framework.TestCase2;
import org.openrdf.model.Statement;
import org.openrdf.model.Value;
import org.openrdf.rio.RDFHandler;
import org.openrdf.rio.helpers.RDFHandlerBase;
import com.bigdata.btree.IIndex;
import com.bigdata.btree.ITupleIterator;
import com.bigdata.btree.ITupleSerializer;
import com.bigdata.btree.UnisolatedReadWriteIndex;
import com.bigdata.btree.keys.IKeyBuilder;
import com.bigdata.btree.proc.AbstractKeyArrayIndexProcedure.ResultBitBuffer;
import com.bigdata.btree.proc.BatchContains.BatchContainsConstructor;
import com.bigdata.btree.proc.IResultHandler;
import com.bigdata.journal.BufferMode;
import com.bigdata.journal.Journal;
import com.bigdata.journal.Options;
import com.bigdata.journal.TestHelper;
import com.bigdata.rdf.internal.IV;
import com.bigdata.rdf.internal.IVUtility;
import com.bigdata.rdf.model.BigdataResource;
import com.bigdata.rdf.model.BigdataURI;
import com.bigdata.rdf.model.BigdataValue;
import com.bigdata.rdf.model.BigdataValueSerializer;
import com.bigdata.rdf.model.StatementEnum;
import com.bigdata.rdf.rio.BasicRioLoader;
import com.bigdata.rdf.spo.ISPO;
import com.bigdata.rdf.spo.SPO;
import com.bigdata.rdf.spo.SPOComparator;
import com.bigdata.rdf.spo.SPOKeyOrder;
import com.bigdata.rdf.spo.SPOTupleSerializer;
import com.bigdata.relation.accesspath.AbstractArrayBuffer;
import com.bigdata.relation.accesspath.IBuffer;
import com.bigdata.service.AbstractClient;
import com.bigdata.service.Split;
import com.bigdata.striterator.IChunkedOrderedIterator;
import com.bigdata.striterator.IKeyOrder;
import com.bigdata.util.BytesUtil;
/**
*
* Abstract harness for testing under a variety of configurations. In order to
* test a specific configuration, create a concrete instance of this class. The
* configuration can be described using a mixture of a .properties
* file of the same name as the test class and custom code.
*
*
* When debugging from an IDE, it is very helpful to be able to run a single
* test case. You can do this, but you MUST define the property
* testClass as the name test class that has the logic required
* to instantiate and configure an appropriate object manager instance for the
* test.
*
*/
abstract public class AbstractTestCase
extends TestCase2
{
/** A null {@link IV} reference (NOT a NullIV object). */
@SuppressWarnings("rawtypes")
protected final IV NULL = null;
//
// Constructors.
//
public AbstractTestCase() {}
public AbstractTestCase(String name) {super(name);}
//************************************************************
//************************************************************
//************************************************************
/**
* Invoked from {@link TestCase#setUp()} for each test in the suite.
*/
protected void setUp(final ProxyTestCase testCase) throws Exception {
begin = System.currentTimeMillis();
if (log.isInfoEnabled())
log.info("\n\n================:BEGIN:" + testCase.getName()
+ ":BEGIN:====================");
// @see BLZG-1501 (remove LRUNexus)
// if (LRUNexus.INSTANCE != null) {
// // flush everything before/after a unit test.
// LRUNexus.INSTANCE.discardAllCaches();
// }
}
/**
* Invoked from {@link TestCase#tearDown()} for each test in the suite.
*/
protected void tearDown(final ProxyTestCase testCase) throws Exception {
// @see BLZG-1501 (remove LRUNexus)
// if (LRUNexus.INSTANCE != null) {
// // flush everything before/after a unit test.
// LRUNexus.INSTANCE.discardAllCaches();
// }
final long elapsed = System.currentTimeMillis() - begin;
if (log.isInfoEnabled())
log.info("\n================:END:" + testCase.getName()
+ " ("+elapsed+"ms):END:====================\n");
TestHelper.checkJournalsClosed(testCase, this);
}
private long begin;
//
// Properties
//
private Properties m_properties;
/**
*
* Returns properties read from a hierarchy of sources. The underlying
* properties read from those sources are cached, but a new properties
* object is returned on each invocation (to prevent side effects by the
* caller).
*
*
* In general, a test configuration critically relies on both the properties
* returned by this method and the appropriate properties must be provided
* either through the command line or in a properties file.
*
*
* @return A new properties object.
*/
public Properties getProperties() {
if( m_properties == null ) {
/*
* Read properties from a hierarchy of sources and cache a
* reference.
*/
m_properties = super.getProperties();
// disregard the inherited properties.
// m_properties = new Properties();
// m_properties = new Properties( m_properties );
// disable statistics collection (federation)
m_properties
.setProperty(
AbstractClient.Options.COLLECT_PLATFORM_STATISTICS,
"false");
m_properties.setProperty(
AbstractClient.Options.COLLECT_QUEUE_STATISTICS, "false");
m_properties.setProperty(AbstractClient.Options.HTTPD_PORT, "-1");
// disable statistics collection (journal)
m_properties.setProperty(
Journal.Options.COLLECT_PLATFORM_STATISTICS, "false");
m_properties.setProperty(Journal.Options.COLLECT_QUEUE_STATISTICS,
"false");
m_properties
.setProperty(Journal.Options.HTTPD_PORT, "-1"/* none */);
m_properties.setProperty(Options.BUFFER_MODE,BufferMode.Disk.toString());
// m_properties.setProperty(Options.BUFFER_MODE,BufferMode.Transient.toString());
/*
* If an explicit filename is not specified...
*/
if(m_properties.get(Options.FILE)==null) {
/*
* Use a temporary file for the test. Such files are always deleted when
* the journal is closed or the VM exits.
*/
m_properties.setProperty(Options.CREATE_TEMP_FILE,"true");
m_properties.setProperty(Options.DELETE_ON_EXIT,"true");
}
}
return new Properties(m_properties);
}
/**
* This method is invoked from methods that MUST be proxied to this class.
* {@link GenericProxyTestCase} extends this class, as do the concrete
* classes that drive the test suite for specific GOM integration test
* configuration. Many method on this class must be proxied from
* {@link GenericProxyTestCase} to the delegate. Invoking this method from
* the implementations of those methods in this class provides a means of
* catching omissions where the corresponding method is NOT being delegated.
* Failure to delegate these methods means that you are not able to share
* properties or object manager instances across tests, which means that you
* can not do configuration-based testing of integrations and can also wind
* up with mutually inconsistent test fixtures between the delegate and each
* proxy test.
*/
protected void checkIfProxy() {
if( this instanceof ProxyTestCase ) {
throw new AssertionError();
}
}
//************************************************************
//************************************************************
//************************************************************
//
// Test helpers.
//
// protected static final long N = IRawTripleStore.N;
abstract protected AbstractTripleStore getStore(Properties properties);
abstract protected AbstractTripleStore reopenStore(AbstractTripleStore store);
public void assertEquals(SPO expected, SPO actual) {
assertEquals(null,expected,actual);
}
public void assertEquals(String msg, SPO expected, SPO actual) {
if(!expected.equals(actual)) {
if( msg == null ) {
msg = "";
} else {
msg = msg + " : ";
}
fail(msg+"Expecting: "+expected+" not "+actual);
}
}
public void assertEquals(SPO[] expected, SPO[] actual) {
assertEquals(null,expected,actual);
}
public void assertEquals(String msg, SPO[] expected, SPO[] actual) {
if( msg == null ) {
msg = "";
} else {
msg = msg + " : ";
}
if( expected == null && actual == null ) {
return;
}
if( expected == null && actual != null ) {
fail( msg+"Expected a null array." );
}
if( expected != null && actual == null ) {
fail( msg+"Not expecting a null array." );
}
if (expected.length != actual.length) {
/*
* Only do message construction if we know that the assert will
* fail.
*/
assertEquals(msg + "length differs.", expected.length,
actual.length);
}
for( int i=0; iactual) {
assertSameSPOs("", expected, actual);
}
static public void assertSameSPOs(String msg, ISPO[] expected, IChunkedOrderedIterator actual) {
/*
* clone expected[] and put into the same order as the iterator.
*/
expected = expected.clone();
final IKeyOrder keyOrder = actual.getKeyOrder();
if (keyOrder != null) {
Arrays.sort(expected, keyOrder.getComparator());
}
int i = 0;
while (actual.hasNext()) {
if (i >= expected.length) {
// buffer up to N 'extra' values from the itr for the err msg.
final Vector v = new Vector();
while (actual.hasNext() && v.size() < 10) {
v.add(actual.next());
}
fail(msg + ": The iterator is willing to visit more than "
+ expected.length + " objects. The next " + v.size()
+ " objects would be: " + Arrays.toString(v.toArray()));
}
final ISPO g = actual.next();
if (!expected[i].equals(g)) {
/*
* Only do message construction if we know that the assert will
* fail.
*/
fail(msg + ": Different objects at index=" + i + ": expected="
+ expected[i] + ", actual=" + g);
}
i++;
}
if (i < expected.length) {
fail(msg + ": The iterator SHOULD have visited " + expected.length
+ " objects, but only visited " + i + " objects.");
}
}
/**
* Verify that the iterator visits the expected {@link ISPO}s in any order
* without duplicates.
*
* @param store
* Used to resolve term identifiers for messages.
* @param expected
* @param actual
*/
static public void assertSameSPOsAnyOrder(AbstractTripleStore store,
ISPO[] expected, IChunkedOrderedIterator actual) {
assertSameSPOsAnyOrder(store, expected, actual, false);
}
/**
* Verify that the iterator visits the expected {@link ISPO}s in any order
* without duplicates, optionally ignoring axioms.
*
* @param store
* Used to resolve term identifiers for messages.
* @param expected
* @param actual (The iterator will be closed).
* @param ignoreAxioms
*/
static public void assertSameSPOsAnyOrder(AbstractTripleStore store,
ISPO[] expected, IChunkedOrderedIterator actual,
boolean ignoreAxioms) {
try {
Map map = new TreeMap(SPOComparator.INSTANCE);
for (ISPO tmp : expected) {
map.put(tmp, tmp);
}
int i = 0;
while (actual.hasNext()) {
final ISPO actualSPO = actual.next();
if (ignoreAxioms && actualSPO.isAxiom()) {
continue;
}
if (log.isInfoEnabled())
log.info("actual: " + actualSPO.toString(store));
final ISPO expectedSPO = map.remove(actualSPO);
if (expectedSPO == null) {
fail("Not expecting: " + actualSPO.toString(store)
+ " at index=" + i);
}
// log.info("expected: "+expectedSPO.toString(store));
StatementEnum expectedType =
expectedSPO.hasStatementType() ? expectedSPO.getStatementType()
: null;
StatementEnum actualType =
actualSPO.hasStatementType() ? actualSPO.getStatementType()
: null;
if (expectedType != actualType) {
// defer message generation until assert fails.
assertEquals("expected=" + expectedSPO + ",actual="
+ actualSPO, expectedType, actualType);
}
i++;
}
if (!map.isEmpty()) {
// @todo convert term identifiers before rendering.
if (log.isInfoEnabled())
log.info("Iterator empty but still expecting: "
+ map.values());
fail("Expecting: " + map.size() + " more statements: "
+ map.values());
}
} finally {
actual.close();
}
}
static public void assertSameStatements(Statement[] expected,
BigdataStatementIterator actual) {
assertSameStatements("", expected, actual);
}
/**
* @todo since there is no way to know the natural order for the statement
* iterator we can not sort expected into the same order. therefore
* this should test for the same statements in any order
*/
static public void assertSameStatements(final String msg,
final Statement[] expected, final BigdataStatementIterator actual) {
int i = 0;
while (actual.hasNext()) {
if (i >= expected.length) {
fail(msg + ": The iterator is willing to visit more than "
+ expected.length + " objects.");
}
Statement g = actual.next();
if (!expected[i].equals(g)) {
/*
* Only do message construction if we know that the assert will
* fail.
*/
fail(msg + ": Different objects at index=" + i + ": expected="
+ expected[i] + ", actual=" + g);
}
i++;
}
if (i < expected.length) {
fail(msg + ": The iterator SHOULD have visited " + expected.length
+ " objects, but only visited " + i + " objects.");
}
}
/**
* Verify that TERM2ID and ID2TERM have the same range count and that
* all ID2TERM entries resolve a TERM2ID entry and that each TERM2ID
* entry leads to an ID2TERM entry.
*
* @param store2
*/
static public void assertLexiconIndicesConsistent(
final AbstractTripleStore store) {
final IIndex t2id = store.getLexiconRelation().getTerm2IdIndex();
final IIndex id2t = store.getLexiconRelation().getId2TermIndex();
final BigdataValueSerializer valSer = store
.getValueFactory().getValueSerializer();
/*
* First, scan the TERMS index and verify that each IV maps to an entry
* in the ID2TERMS index which maps back to the original entry in the
* TERMS index.
*/
{
final ITupleSerializer t2idTupleSer = t2id.getIndexMetadata()
.getTupleSerializer();
final IKeyBuilder keyBuilder = id2t.getIndexMetadata()
.getTupleSerializer().getKeyBuilder();
final ITupleIterator itr = t2id.rangeIterator();
while (itr.hasNext()) {
final IV iv = (IV) itr.next().getObject();
keyBuilder.reset();
final byte[] ivAsKey = iv.encode(keyBuilder).getKey();
// TODO inefficient point lookup.
final byte[] encodedValue = id2t.lookup(ivAsKey);
assertNotNull(encodedValue);
// Decode the Value.
final BigdataValue decodedValue = valSer
.deserialize(encodedValue);
// Generate key for T2ID index.
final byte[] term2IdKey = t2idTupleSer
.serializeKey(decodedValue);
// TODO inefficient point lookup.
final byte[] encodedIV = t2id.lookup(term2IdKey);
if (encodedIV == null) {
fail("No entry in TERMS index: v=" + decodedValue + ", iv="
+ iv);
}
if (!BytesUtil.bytesEqual(ivAsKey, encodedIV)) {
/*
* The IV that we got back by round tripping back through
* the TERMS2ID index does not agree with the IV we obtained
* from the iterator scanning the TERMS2ID index.
*/
fail("IV: original=" + BytesUtil.toString(ivAsKey)
+ ", afterRoundTrip="
+ BytesUtil.toString(encodedIV));
}
}
}
/*
* Scan the ID2TERM index, verifying that each entry maps to an entry in
* the TERMS2ID index which is associated with the same IV.
*/
{
final ITupleSerializer t2idTupleSer = t2id.getIndexMetadata()
.getTupleSerializer();
final IKeyBuilder keyBuilder = id2t.getIndexMetadata()
.getTupleSerializer().getKeyBuilder();
final ITupleIterator itr = id2t.rangeIterator();
while (itr.hasNext()) {
final BigdataValue v = itr.next().getObject();
final IV iv = v.getIV();
assertNotNull(v.stringValue(), iv);
// Generate key for T2ID index.
final byte[] term2IdKey = t2idTupleSer.serializeKey(v);
// TODO inefficient point lookup.
final byte[] encodedIV = t2id.lookup(term2IdKey);
if (encodedIV == null) {
fail("No entry in TERMS index: v=" + v + ", iv=" + iv);
}
final IV decodedIV = IVUtility.decodeFromOffset(
encodedIV, 0/* offset */);
if (!iv.equals(decodedIV)) {
/*
* The IV that we got back by round tripping back through
* the TERMS2ID index does not agree with the IV we obtained
* from the iterator scanning the ID2TERMS index.
*/
fail("IV: original=" + iv + ", afterRoundTrip=" + decodedIV
+ " for value=" + v);
}
}
}
/*
* Verify that the range counts on TERM2ID and ID2TERM are the same.
*/
{
final long rc1 = t2id.rangeCount();
final long rc2 = id2t.rangeCount();
assertEquals("lexicon range counts: t2id=" + rc1 + ", id2t=" + rc2,
rc1, rc2);
}
}
/**
* Validates that the same statements are found in each of the statement
* indices.
*/
static public void assertStatementIndicesConsistent(
final AbstractTripleStore db, final int maxerrors) {
if (log.isInfoEnabled())
log.info("Verifying statement indices");
final AtomicInteger nerrs = new AtomicInteger(0);
final int from, to;
if (db.getSPOKeyArity() == 3) {
from = SPOKeyOrder.FIRST_TRIPLE_INDEX;
to = SPOKeyOrder.LAST_TRIPLE_INDEX;
} else {
from = SPOKeyOrder.FIRST_QUAD_INDEX;
to = SPOKeyOrder.LAST_QUAD_INDEX;
}
for (int i = from; i <= to; i++) {
for (int j = from; j <= to; j++) {
if (i <= j) {
// Just compare the upper diagonal.
continue;
}
assertSameStatements(db, SPOKeyOrder.valueOf(i),
SPOKeyOrder.valueOf(j), nerrs, maxerrors);
}
}
assertEquals(0, nerrs.get());
}
/**
* Verify all statements reported by one access path are found on another
* access path.
*
* Note: This is basically a JOIN. If there is an expected tuple that is not
* found then it is an error. Like a JOIN, we need to process a chunk at a
* time for efficiency and unroll the inner loop (this is necessary for
* efficiency not only when using scale-out, but also to avoid doing a whole
* bunch of point tests against an {@link UnisolatedReadWriteIndex}).
* Unlike a normal JOIN, the join order is fixed - we visit the expected
* access path and then join against the actual access path.
*
* @param db
* The database.
* @param keyOrderExpected
* Scan this statement index.
* @param keyOrderActual
* Verifying that each statement is also present in this index.
* @param nerrs
* Used to report the #of errors.
*/
static private void assertSameStatements(//
final AbstractTripleStore db,//
final SPOKeyOrder keyOrderExpected,//
final SPOKeyOrder keyOrderActual,//
final AtomicInteger nerrs,//
final int maxerrors
) {
if (log.isInfoEnabled())
log.info("Verifying " + keyOrderExpected + " against "
+ keyOrderActual);
// the access path that is being tested.
final IIndex actualIndex = db.getSPORelation().getIndex(keyOrderActual);
// the serializer for the access path that is being tested.
final SPOTupleSerializer tupleSer = (SPOTupleSerializer) actualIndex
.getIndexMetadata().getTupleSerializer();
/*
* An iterator over the access path whose statements are being treated
* as ground truth for this pass over the data.
*/
final IChunkedOrderedIterator itre = db.getAccessPath(
keyOrderExpected).iterator();
try {
while (itre.hasNext()) {
if (nerrs.get() > 10)
throw new RuntimeException("Too many errors");
/*
* This is a chunk of expected statements in the natural order
* for the "actual" access path.
*/
final ISPO[] expectedChunk = itre.nextChunk(keyOrderActual);
/*
* Construct a batch contains test for those statements and
* submit it to the actual index. The aggregator will verify
* that each expected statement exists in the actual index and
* report an error for those that were not found.
*/
final int fromIndex = 0;
final int toIndex = expectedChunk.length;
final byte[][] keys = new byte[expectedChunk.length][];
final byte[][] vals = null;
for (int i = 0; i < expectedChunk.length; i++) {
keys[i] = tupleSer.serializeKey(expectedChunk[i]);
}
final AtomicLong nfound = new AtomicLong();
final IResultHandler resultHandler = new IResultHandler() {
@Override
public void aggregate(final ResultBitBuffer result, final Split split) {
// #of elements in this split.
final int n = result.getResultCount();
// flag indicating found/not found for each tuple.
final boolean[] a = result.getResult();
int delta = 0;
for (int i = 0; i < n; i++) {
if (a[i]) {
// found.
delta++;
} else {
/*
* This happens when the statement is not in the
* index AND there is no successor of the
* statement in the index.
*/
final ISPO expectedSPO = expectedChunk[i];
log.error("Statement not found" + ": index="
+ keyOrderActual + ", stmt="
+ expectedSPO);
nerrs.incrementAndGet();
}
}
nfound.addAndGet(delta);
}
/**
* The #of statements found.
*/
@Override
public Long getResult() {
return nfound.get();
}
};
actualIndex.submit(fromIndex, toIndex, keys, vals,
BatchContainsConstructor.INSTANCE, resultHandler);
}
} finally {
itre.close();
}
}
/**
* Helper class verifies that all statements identified by a re-parse of
* some RDF/XML file are present in the KB.
*
* @author Bryan Thompson
*/
static protected class StatementVerifier extends BasicRioLoader {
final private AbstractTripleStore db;
final private AtomicInteger nerrs;
final private int maxerrors;
final IBuffer buffer;
/**
*
* @param db
* The database.
* @param capacity
* The buffer capacity (the maximum #of statements to be
* processed in a batch).
* @param nerrs
* Used to track and report the #of errors as a side-effect.
* @param maxerrors
* The maximum #of errors before the test will abort.
*/
public StatementVerifier(final AbstractTripleStore db, final int capacity,
final AtomicInteger nerrs, final int maxerrors) {
super(db.getValueFactory());
this.db = db;
this.nerrs = nerrs;
this.maxerrors = maxerrors;
this.buffer = new AbstractArrayBuffer(capacity,
Statement.class, null/* filter */) {
@Override
protected long flush(final int n, final Statement[] a) {
verifyStatements( n , a );
return n;
}
};
}
/**
* Report an error.
*
* @param msg
* The error message.
*/
private void error(final String msg) {
log.error(msg);
if (nerrs.incrementAndGet() > maxerrors) {
throw new RuntimeException("Too many errors");
}
}
/**
* Extended to flush the {@link #buffer}.
*/
protected void success() {
super.success();
buffer.flush();
}
public RDFHandler newRDFHandler() {
return new RDFHandlerBase() {
public void handleStatement(final Statement stmt) {
buffer.add(stmt);
}
};
}
private void verifyStatements(final int n, final Statement[] a) {
final Map termSet = new LinkedHashMap(
n);
{
for (int i = 0; i < n; i++) {
final Statement stmt = a[i];
termSet.put(stmt.getSubject(), db.getValueFactory()
.asValue(stmt.getSubject()));
termSet.put(stmt.getPredicate(), db.getValueFactory()
.asValue(stmt.getPredicate()));
termSet.put(stmt.getObject(), db.getValueFactory()
.asValue(stmt.getObject()));
}
final int nterms = termSet.size();
final BigdataValue[] terms = new BigdataValue[nterms];
int i = 0;
for (BigdataValue term : termSet.values()) {
terms[i++] = term;
}
db.getLexiconRelation()
.addTerms(terms, nterms, true/* readOnly */);
int nunknown = 0;
for (BigdataValue term : terms) {
if (term.getIV() == null) {
error("Unknown term: " + term);
nunknown++;
}
}
if (nunknown > 0) {
log.warn("" + nunknown + " out of " + nterms
+ " terms were not found.");
}
}
if (log.isInfoEnabled())
log.info("There are " + termSet.size()
+ " distinct terms in the parsed statements.");
/*
* Now verify reverse lookup for those terms.
*/
{
final Set> ivs = new LinkedHashSet>(termSet.size());
for(BigdataValue term : termSet.values()) {
final IV iv = term.getIV();
if (iv == null || iv.isNullIV()) {
// ignore terms that we know were not found.
continue;
}
ivs.add(iv);
}
// batch resolve ids to terms.
final Map, BigdataValue> reverseMap = db
.getLexiconRelation().getTerms(ivs);
for(BigdataValue expectedTerm : termSet.values()) {
final IV iv = expectedTerm.getIV();
if (iv == null) {
// ignore terms that we know were not found.
continue;
}
final BigdataValue actualTerm = reverseMap.get(iv);
if (actualTerm == null || !actualTerm.equals(expectedTerm)) {
error("expectedTerm=" + expectedTerm
+ ", assigned termId=" + iv
+ ", but reverse lookup reports: "
+ actualTerm);
}
}
}
/*
* Now verify the statements using the assigned term identifiers.
*
* @todo not handling the context position - it is either unbound or
* a statement identifier.
*/
{
final SPO[] b = new SPO[n];
int n2 = 0;
for (int i = 0; i < n; i++) {
final Statement stmt = a[i];
final BigdataResource s = (BigdataResource) db
.asValue(termSet.get(stmt.getSubject()));
final BigdataURI p = (BigdataURI) db.asValue(termSet
.get(stmt.getPredicate()));
final BigdataValue o = (BigdataValue) db.asValue(termSet
.get(stmt.getObject()));
boolean ok = true;
if (s == null) {
log.error("Subject not found: "+stmt.getSubject());
ok = false;
}
if(p == null) {
log.error("Predicate not found: "+stmt.getPredicate());
ok = false;
}
if(o == null) {
log.error("Object not found: "+stmt.getObject());
ok = false;
}
if(!ok) {
log.error("Unable to resolve statement with unresolvable terms: "+stmt);
} else {
// Leave the StatementType blank for bulk complete.
b[n2++] = new SPO(s.getIV(), p.getIV(), o
.getIV() /*, StatementType */);
}
}
final IChunkedOrderedIterator itr = db
.bulkCompleteStatements(b, n2);
try {
int i = 0;
while (itr.hasNext()) {
final ISPO spo = itr.next();
if (!spo.hasStatementType()) {
error("Statement not found: " + spo.toString(db));
}
i++;
}
if (log.isInfoEnabled())
log.info("Verified " + i
+ " statements parsed from file.");
} finally {
itr.close();
}
}
}
}
/**
* Recursively removes any files and subdirectories and then removes the
* file (or directory) itself.
*
* @param f
* A file or directory.
*/
protected void recursiveDelete(File f) {
if(f.isDirectory()) {
File[] children = f.listFiles();
for(int i=0; i