com.google.common.collect.Lists#newArrayListWithExpectedSize ( )源码实例Demo

private String getCallStack(String methodIdTag, boolean isFilter) {
    List<String> methodIdStr = METHOD_ID_SPLITTER.splitToList(methodIdTag);
    List<Integer> methodIds = Lists.newArrayListWithExpectedSize(methodIdStr.size());
    for (String idStr : methodIdStr) {
        methodIds.add(Integer.valueOf(idStr));
    }

    StringBuilder builder = new StringBuilder();
    List<MethodInfo> methodInfos = isFilter ? getFilterMethodInfos(methodIds) : getMethodInfos(methodIds);
    if (methodInfos.size() <= 1) {
        return "";
    }
    for (MethodInfo methodInfo : methodInfos) {
        builder.append(methodInfo).append(";");
    }
    if (builder.length() != 0) {
        builder.delete(builder.length() - 1, builder.length());
    }

    return builder.toString();
}
 

@NonNull
@Override
public Iterable<ResolvedAnnotation> getAnnotations() {
    AnnotationBinding[] annotations = mBinding.getAnnotations();
    int count = annotations.length;
    if (count > 0) {
        List<ResolvedAnnotation> result = Lists.newArrayListWithExpectedSize(count);
        for (AnnotationBinding annotation : annotations) {
            if (annotation != null) {
                result.add(new EcjResolvedAnnotation(annotation));
            }
        }
        return result;
    }

    // No external annotations for variables

    return Collections.emptyList();
}
 

private List<Scan> addNewScan(List<List<Scan>> parallelScans, List<Scan> scans, Scan scan,
        byte[] startKey, boolean crossedRegionBoundary, HRegionLocation regionLocation) {
    boolean startNewScan = scanGrouper.shouldStartNewScan(plan, scans, startKey, crossedRegionBoundary);
    if (scan != null) {
        if (regionLocation.getServerName() != null) {
            scan.setAttribute(BaseScannerRegionObserver.SCAN_REGION_SERVER, regionLocation.getServerName().getVersionedBytes());
        }
        if (useStatsForParallelization || crossedRegionBoundary) {
            scans.add(scan);
        }
    }
    if (startNewScan && !scans.isEmpty()) {
        parallelScans.add(scans);
        scans = Lists.newArrayListWithExpectedSize(1);
    }
    return scans;
}
 

private static List<byte[]> getPointKeys(List<List<KeyRange>> ranges, int[] slotSpan, RowKeySchema schema, Integer bucketNum) {
    if (ranges == null || ranges.isEmpty()) {
        return Collections.emptyList();
    }
    boolean isSalted = bucketNum != null;
    int count = 1;
    int offset = isSalted ? 1 : 0;
    // Skip salt byte range in the first position if salted
    for (int i = offset; i < ranges.size(); i++) {
        count *= ranges.get(i).size();
    }
    List<byte[]> keys = Lists.newArrayListWithExpectedSize(count);
    int[] position = new int[ranges.size()];
    int maxKeyLength = SchemaUtil.getMaxKeyLength(schema, ranges);
    int length;
    byte[] key = new byte[maxKeyLength];
    do {
        length = ScanUtil.setKey(schema, ranges, slotSpan, position, Bound.LOWER, key, offset, offset, ranges.size(), offset);
        if (isSalted) {
            key[0] = SaltingUtil.getSaltingByte(key, offset, length, bucketNum);
        }
        keys.add(Arrays.copyOf(key, length + offset));
    } while (incrementKey(ranges, position));
    return keys;
}
 

/**
 * Returns all possible components for a compound word 
 * by combining its atomic components.
 * 
 * E.g. ab|cd|ef returns
 * 		abcdef,
 * 		ab, cdef,
 * 		abcd, ef,
 * 		cd
 * 
 * 
 * @param word the compound word
 * @return
 * 			the list of all possible component lemmas
 */
public static List<Component> allSizeComponents(Word word) {
	Set<Component> components = Sets.newHashSet();
	for(int nbComponents=word.getComponents().size();
			nbComponents > 0 ;
			nbComponents--) {
		
		for(int startIndex = 0;
				startIndex <= word.getComponents().size() - nbComponents;
				startIndex++) {
			List<Component> toMerge = Lists.newArrayListWithExpectedSize(nbComponents);
			
			for(int i = 0; i<nbComponents; i++) 
				toMerge.add(word.getComponents().get(startIndex + i));
			
			components.add(merge(word, toMerge));
		}
	}
	return Lists.newArrayList(components);
}
 

private void mergeClass(Element item, String containingClass) {
    ClassInfo cls = createClass(containingClass);
    List<ResolvedAnnotation> annotations = createAnnotations(item);
    if (cls.annotations == null) {
        cls.annotations = Lists.newArrayListWithExpectedSize(annotations.size());
    }
    cls.annotations.addAll(annotations);
}
 

private static <T> List<T> visitFields(GroupType group, ParquetTypeVisitor<T> visitor)
{
    List<T> results = Lists.newArrayListWithExpectedSize(group.getFieldCount());
    for (Type field : group.getFields()) {
        results.add(visitField(field, visitor));
    }

    return results;
}
 

/**
 * We use a memory-efficient trick to keep reverseDeps memory usage low. Edges in Bazel are
 * dominant over the number of nodes.
 *
 * <p>Most of the nodes have zero or one reverse dep. That is why we use immutable versions of the
 * lists for those cases. In case of the size being > 1 we switch to an ArrayList. That is because
 * we also have a decent number of nodes for which the reverseDeps are huge (for example almost
 * everything depends on BuildInfo node).
 *
 * <p>We also optimize for the case where we have only one dependency. In that case we keep the
 * object directly instead of a wrapper list.
 */
@SuppressWarnings("unchecked") // Cast to SkyKey and List.
static void addReverseDeps(InMemoryNodeEntry entry, Collection<SkyKey> newReverseDeps) {
  if (newReverseDeps.isEmpty()) {
    return;
  }
  List<Object> dataToConsolidate = entry.getReverseDepsDataToConsolidateForReverseDepsUtil();
  if (dataToConsolidate != null) {
    maybeDelayReverseDepOp(entry, newReverseDeps, Op.ADD);
    return;
  }
  Object reverseDeps = entry.getReverseDepsRawForReverseDepsUtil();
  int reverseDepsSize = isSingleReverseDep(entry) ? 1 : ((List<SkyKey>) reverseDeps).size();
  int newSize = reverseDepsSize + newReverseDeps.size();
  if (newSize == 1) {
    entry.setSingleReverseDepForReverseDepsUtil(Iterables.getOnlyElement(newReverseDeps));
  } else if (reverseDepsSize == 0) {
    entry.setReverseDepsForReverseDepsUtil(Lists.newArrayList(newReverseDeps));
  } else if (reverseDepsSize == 1) {
    List<SkyKey> newList = Lists.newArrayListWithExpectedSize(newSize);
    newList.add((SkyKey) reverseDeps);
    newList.addAll(newReverseDeps);
    entry.setReverseDepsForReverseDepsUtil(newList);
  } else {
    ((List<SkyKey>) reverseDeps).addAll(newReverseDeps);
  }
}
 

@Override
public final BytecodeExpression invoke(final Location loc, List<BytecodeExpression> args) {
    final List<BytecodeExpression> argsCopy = Lists.newArrayListWithExpectedSize(args.size());
    for (BytecodeExpression arg : args) {
        Preconditions.checkNotNull(arg);
        argsCopy.add(arg);
    }
    return new BaseTypeExpression(returnType) {
        @Override
        public void generate(CodeEmitter code) {
            BytecodeInvocable.this.generate(loc, code, argsCopy);
        }
    };
}
 

/**
 * Creates a {@link ResourceVisibilityLookup} for the set of libraries.
 * <p>
 * NOTE: The {@link Provider} class can be used to share/cache {@link ResourceVisibilityLookup}
 * instances, e.g. when you have library1 and library2 each referencing libraryBase, the {@link
 * Provider} will ensure that a the libraryBase data is shared.
 *
 * @param libraries the list of libraries
 * @param provider  an optional manager instance for caching of individual libraries, if any
 * @return a corresponding {@link ResourceVisibilityLookup}
 */
@NonNull
public static ResourceVisibilityLookup create(@NonNull List<AndroidLibrary> libraries,
        @Nullable Provider provider) {
    List<ResourceVisibilityLookup> list = Lists.newArrayListWithExpectedSize(libraries.size());
    for (AndroidLibrary library : libraries) {
        ResourceVisibilityLookup v = provider != null ? provider.get(library) : create(library);
        if (!v.isEmpty()) {
            list.add(v);
        }
    }
    return new MultipleLibraryResourceVisibility(list);
}
 

private static DirectoryStructure computeRootDirectoryStructure(
    Project project,
    WorkspaceRoot workspaceRoot,
    ProjectViewSet projectViewSet,
    AtomicBoolean cancelled)
    throws ExecutionException, InterruptedException {
  FileOperationProvider fileOperationProvider = FileOperationProvider.getInstance();
  ImportRoots importRoots =
      ImportRoots.builder(workspaceRoot, Blaze.getBuildSystem(project))
          .add(projectViewSet)
          .build();
  Collection<WorkspacePath> rootDirectories = importRoots.rootDirectories();
  Set<WorkspacePath> excludeDirectories = importRoots.excludeDirectories();
  List<ListenableFuture<PathStructurePair>> futures =
      Lists.newArrayListWithExpectedSize(rootDirectories.size());
  for (WorkspacePath rootDirectory : rootDirectories) {
    futures.add(
        walkDirectoryStructure(
            workspaceRoot,
            excludeDirectories,
            fileOperationProvider,
            FetchExecutor.EXECUTOR,
            rootDirectory,
            cancelled));
  }
  ImmutableMap.Builder<WorkspacePath, DirectoryStructure> result = ImmutableMap.builder();
  for (PathStructurePair pair : Futures.allAsList(futures).get()) {
    if (pair != null) {
      result.put(pair.path, pair.directoryStructure);
    }
  }
  return new DirectoryStructure(result.build());
}
 

private void registerCustomDetectors(Collection<Project> projects) {
    // Look at the various projects, and if any of them provide a custom
    // lint jar, "add" them (this will replace the issue registry with
    // a CompositeIssueRegistry containing the original issue registry
    // plus JarFileIssueRegistry instances for each lint jar
    Set<File> jarFiles = Sets.newHashSet();
    for (Project project : projects) {
        jarFiles.addAll(mClient.findRuleJars(project));
        for (Project library : project.getAllLibraries()) {
            jarFiles.addAll(mClient.findRuleJars(library));
        }
    }

    jarFiles.addAll(mClient.findGlobalRuleJars());

    if (!jarFiles.isEmpty()) {
        List<IssueRegistry> registries = Lists.newArrayListWithExpectedSize(jarFiles.size());
        registries.add(mRegistry);
        for (File jarFile : jarFiles) {
            try {
                IssueRegistry registry = JarFileIssueRegistry.get(mClient, jarFile);
                if (myCustomIssues == null) {
                    myCustomIssues = Sets.newHashSet();
                }
                myCustomIssues.addAll(registry.getIssues());
                registries.add(registry);
            } catch (Throwable e) {
                mClient.log(e, "Could not load custom rule jar file %1$s", jarFile);
            }
        }
        if (registries.size() > 1) { // the first item is mRegistry itself
            mRegistry = new CompositeIssueRegistry(registries);
        }
    }
}
 

private RexCallTupleExpression getRexCallTupleExpression(RexCall call) {
    List<TupleExpression> children = Lists.newArrayListWithExpectedSize(call.getOperands().size());
    for (RexNode rexNode : call.operands) {
        children.add(rexNode.accept(this));
    }

    DataType dataType = DataType.getType(OLAPTable.DATATYPE_MAPPING.get(call.type.getSqlTypeName()));
    RexCallTupleExpression tuple = new RexCallTupleExpression(dataType, children);
    tuple.setDigest(call.toString());
    return tuple;
}
 

/**
 * Actual abstract value type that is definitive model for the value type.
 * @return abstract value type name forms
 */
@Value.Lazy
public NameForms typeAbstract() {
  if (protoclass().kind().isConstructor()) {
    return typeValue();
  }

  List<String> classSegments = Lists.newArrayListWithExpectedSize(2);
  Element e = SourceNames.collectClassSegments(protoclass().sourceElement(), classSegments);
  verify(e instanceof PackageElement);

  String packageOf = ((PackageElement) e).getQualifiedName().toString();
  String relative = DOT_JOINER.join(classSegments);
  boolean relativeAlreadyQualified = false;

  if (!implementationPackage().equals(packageOf)) {
    relative = DOT_JOINER.join(packageOf, relative);
    relativeAlreadyQualified = true;
  }

  return ImmutableConstitution.NameForms.builder()
      .simple(names().typeAbstract)
      .relativeRaw(relative)
      .packageOf(packageOf)
      .genericArgs(generics().args())
      .relativeAlreadyQualified(relativeAlreadyQualified)
      .visibility(protoclass().visibility())
      .build();
}
 

private SelectStatement applyOrderBy(SelectStatement statement, List<OrderByNode> orderBy) throws SQLException {
    List<OrderByNode> orderByRewrite = Lists.<OrderByNode> newArrayListWithExpectedSize(orderBy.size());
    for (OrderByNode orderByNode : orderBy) {
        ParseNode node = orderByNode.getNode();
        orderByRewrite.add(NODE_FACTORY.orderBy(node.accept(this), orderByNode.isNullsLast(), orderByNode.isAscending()));
    }
    
    return NODE_FACTORY.select(statement, orderByRewrite);
}
 

@NonNull
private static List<Node> getElementChildren(@NonNull NodeList children) {
    List<Node> results = Lists.newArrayListWithExpectedSize(children.getLength());

    final int len = children.getLength();
    for (int i = 0; i < len; i++) {
        Node child = children.item(i);
        if (child.getNodeType() == Node.ELEMENT_NODE) {
            results.add(child);
        }
    }

    return results;
}
 

@Override
public void readFields(DataInput input) throws IOException {
    byte[] schemaNameBytes = Bytes.readByteArray(input);
    byte[] tableNameBytes = Bytes.readByteArray(input);
    PName schemaName = PNameFactory.newName(schemaNameBytes);
    PName tableName = PNameFactory.newName(tableNameBytes);
    PTableType tableType = PTableType.values()[WritableUtils.readVInt(input)];
    PIndexState indexState = null;
    if (tableType == PTableType.INDEX) {
        int ordinal = WritableUtils.readVInt(input);
        if (ordinal >= 0) {
            indexState = PIndexState.values()[ordinal];
        }
    }
    long sequenceNumber = WritableUtils.readVLong(input);
    long timeStamp = input.readLong();
    byte[] pkNameBytes = Bytes.readByteArray(input);
    PName pkName = pkNameBytes.length == 0 ? null : PNameFactory.newName(pkNameBytes);
    Integer bucketNum = WritableUtils.readVInt(input);
    int nColumns = WritableUtils.readVInt(input);
    List<PColumn> columns = Lists.newArrayListWithExpectedSize(nColumns);
    for (int i = 0; i < nColumns; i++) {
        PColumn column = new PColumnImpl();
        column.readFields(input);
        columns.add(column);
    }
    int nIndexes = WritableUtils.readVInt(input);
    List<PTable> indexes = Lists.newArrayListWithExpectedSize(nIndexes);
    for (int i = 0; i < nIndexes; i++) {
        PTable index = new PTableImpl();
        index.readFields(input);
        indexes.add(index);
    }
    boolean isImmutableRows = input.readBoolean();
    Map<String, byte[][]> guidePosts = new HashMap<String, byte[][]>();
    int size = WritableUtils.readVInt(input);
    for (int i=0; i<size; i++) {
        String key = WritableUtils.readString(input);
        int valueSize = WritableUtils.readVInt(input);
        byte[][] value = new byte[valueSize][];
        for (int j=0; j<valueSize; j++) {
            value[j] = Bytes.readByteArray(input);
        }
        guidePosts.put(key, value);
    }
    byte[] dataTableNameBytes = Bytes.readByteArray(input);
    PName dataTableName = dataTableNameBytes.length == 0 ? null : PNameFactory.newName(dataTableNameBytes);
    byte[] defaultFamilyNameBytes = Bytes.readByteArray(input);
    PName defaultFamilyName = defaultFamilyNameBytes.length == 0 ? null : PNameFactory.newName(defaultFamilyNameBytes);
    boolean disableWAL = input.readBoolean();
    boolean multiTenant = input.readBoolean();
    ViewType viewType = null;
    String viewExpression = null;
    PName baseSchemaName = null;
    PName baseTableName = null;
    if (tableType == PTableType.VIEW) {
        viewType = ViewType.fromSerializedValue(input.readByte());
        byte[] viewExpressionBytes = Bytes.readByteArray(input);
        viewExpression = viewExpressionBytes.length == 0 ? null : (String)PDataType.VARCHAR.toObject(viewExpressionBytes);
        byte[] baseSchemaNameBytes = Bytes.readByteArray(input);
        baseSchemaName = baseSchemaNameBytes.length == 0 ? null : PNameFactory.newName(baseSchemaNameBytes);
        byte[] baseTableNameBytes = Bytes.readByteArray(input);
        baseTableName = baseTableNameBytes.length == 0 ? null : PNameFactory.newName(baseTableNameBytes);
    }
    PTableStats stats = new PTableStatsImpl(guidePosts);
    try {
        init(schemaName, tableName, tableType, indexState, timeStamp, sequenceNumber, pkName,
             bucketNum.equals(NO_SALTING) ? null : bucketNum, columns, stats, dataTableName,
             indexes, isImmutableRows, baseSchemaName, baseTableName, defaultFamilyName,
             viewExpression, disableWAL, multiTenant, viewType);
    } catch (SQLException e) {
        throw new RuntimeException(e); // Impossible
    }
}
 

/**
 * Finds for each JoinedArgs set the best fitting name.
 * <p>
 * First it is tried to find a name from the explicitParameterNames list, by comparing the argument values
 * with the explicit case argument values. If no matching value can be found, the name of the argument is taken.
 */
private List<String> findArgumentNames( List<List<JoinedArgs>> joinedArgs, List<List<String>> explicitParameterValues,
        List<String> explicitParameterNames ) {
    List<String> argumentNames = Lists.newArrayListWithExpectedSize( joinedArgs.get( 0 ).size() );
    Multiset<String> paramNames = TreeMultiset.create();

    arguments:
    for( int iArg = 0; iArg < joinedArgs.get( 0 ).size(); iArg++ ) {
        parameters:
        for( int iParam = 0; iParam < explicitParameterNames.size(); iParam++ ) {
            String paramName = explicitParameterNames.get( iParam );

            boolean formattedValueMatches = true;
            boolean valueMatches = true;
            for( int iCase = 0; iCase < joinedArgs.size(); iCase++ ) {
                JoinedArgs args = joinedArgs.get( iCase ).get( iArg );

                String parameterValue = explicitParameterValues.get( iCase ).get( iParam );

                String formattedValue = args.words.get( 0 ).getFormattedValue();
                if( !formattedValue.equals( parameterValue ) ) {
                    formattedValueMatches = false;
                }

                String value = args.words.get( 0 ).getValue();
                if( !value.equals( parameterValue ) ) {
                    valueMatches = false;
                }

                if( !formattedValueMatches && !valueMatches ) {
                    continue parameters;
                }
            }

            // on this point either all formatted values match or all values match (or both)
            argumentNames.add( paramName );
            paramNames.add( paramName );
            continue arguments;
        }

        argumentNames.add( null );
    }

    Set<String> usedNames = Sets.newHashSet();
    for( int iArg = 0; iArg < joinedArgs.get( 0 ).size(); iArg++ ) {
        String name = argumentNames.get( iArg );
        if( name == null || paramNames.count( name ) > 1 ) {
            String origName = getArgumentName( joinedArgs, iArg );
            name = findFreeName( usedNames, origName );
            argumentNames.set( iArg, name );
        }
        usedNames.add( name );

    }

    return argumentNames;
}
 

@Test
@Description("Tests the correct order of targets with applied overdue filter based on selected distribution set. The system expects to have an order based on installed, assigned DS.")
public void targetSearchWithOverdueFilterAndOrderByDistributionSet() {

    final Long lastTargetQueryAlwaysOverdue = 0L;
    final Long lastTargetQueryNotOverdue = Instant.now().toEpochMilli();
    final Long lastTargetNull = null;

    final Long[] overdueMix = { lastTargetQueryAlwaysOverdue, lastTargetQueryNotOverdue,
            lastTargetQueryAlwaysOverdue, lastTargetNull, lastTargetQueryAlwaysOverdue };

    final List<Target> notAssigned = Lists.newArrayListWithExpectedSize(overdueMix.length);
    List<Target> targAssigned = Lists.newArrayListWithExpectedSize(overdueMix.length);
    List<Target> targInstalled = Lists.newArrayListWithExpectedSize(overdueMix.length);

    for (int i = 0; i < overdueMix.length; i++) {
        notAssigned.add(targetManagement
                .create(entityFactory.target().create().controllerId("not" + i).lastTargetQuery(overdueMix[i])));
        targAssigned.add(targetManagement.create(
                entityFactory.target().create().controllerId("assigned" + i).lastTargetQuery(overdueMix[i])));
        targInstalled.add(targetManagement.create(
                entityFactory.target().create().controllerId("installed" + i).lastTargetQuery(overdueMix[i])));
    }

    final DistributionSet ds = testdataFactory.createDistributionSet("a");

    targAssigned = assignDistributionSet(ds, targAssigned).getAssignedEntity().stream().map(Action::getTarget)
            .collect(Collectors.toList());
    targInstalled = assignDistributionSet(ds, targInstalled).getAssignedEntity().stream().map(Action::getTarget)
            .collect(Collectors.toList());
    targInstalled = testdataFactory
            .sendUpdateActionStatusToTargets(targInstalled, Status.FINISHED, Collections.singletonList("installed"))
            .stream().map(Action::getTarget).collect(Collectors.toList());

    final Slice<Target> result = targetManagement.findByFilterOrderByLinkedDistributionSet(PAGE, ds.getId(),
            new FilterParams(null, Boolean.TRUE, null, null, Boolean.FALSE, new String[0]));

    final Comparator<TenantAwareBaseEntity> byId = (e1, e2) -> Long.compare(e2.getId(), e1.getId());

    assertThat(result.getNumberOfElements()).isEqualTo(9);
    final List<Target> expected = new ArrayList<>();
    expected.addAll(targInstalled.stream().sorted(byId)
            .filter(item -> lastTargetQueryAlwaysOverdue.equals(item.getLastTargetQuery()))
            .collect(Collectors.toList()));
    expected.addAll(targAssigned.stream().sorted(byId)
            .filter(item -> lastTargetQueryAlwaysOverdue.equals(item.getLastTargetQuery()))
            .collect(Collectors.toList()));
    expected.addAll(notAssigned.stream().sorted(byId)
            .filter(item -> lastTargetQueryAlwaysOverdue.equals(item.getLastTargetQuery()))
            .collect(Collectors.toList()));

    assertThat(result.getContent()).usingElementComparator(controllerIdComparator())
            .containsExactly(expected.toArray(new Target[0]));

}
 

private void generateExpectedGeneCounts(final EnsemblGeneData geneData)
{
    GcRatioCounts gcRatioCounts = new GcRatioCounts();
    int readLength = mConfig.ReadLength;

    if(geneData.length() - 1 < readLength)
    {
        final String bases = mConfig.RefGenome.getBaseString(geneData.Chromosome, geneData.GeneStart, geneData.GeneEnd);
        gcRatioCounts.addGcRatio(calcGcRatio(bases));
    }
    else
    {
        // rather than measure GC content for each shifting read, just apply diffs to from the base lost and added
        List<int[]> readRegions = Lists.newArrayListWithExpectedSize(1);
        int[] geneRegion = new int[] { 0, 0 };
        readRegions.add(geneRegion);

        final String geneBases = mConfig.RefGenome.getBaseString(geneData.Chromosome, geneData.GeneStart, geneData.GeneEnd);

        final String initialBases = geneBases.substring(0, readLength);
        int gcCount = calcGcCount(initialBases);
        double baseLength = mConfig.ReadLength;
        double gcRatio = gcCount / baseLength;
        gcRatioCounts.addGcRatio(gcRatio);

        for (int startPos = 1; startPos <= geneBases.length() - readLength; ++startPos)
        {
            int prevStartPos = startPos - 1;
            int endPos = startPos + readLength - 1;
            int countAdjust = (isGC(geneBases.charAt(prevStartPos)) ? -1 : 0) + (isGC(geneBases.charAt(endPos)) ? 1 : 0);

            if (gcCount > readLength || gcCount < 0)
            {
                ISF_LOGGER.error("gene({}) gcCount error", geneData.GeneId);
                return;
            }

            gcCount += countAdjust;
            gcRatio = gcCount / baseLength;
            gcRatioCounts.addGcRatio(gcRatio);
        }
    }

    sumVectors(gcRatioCounts.getCounts(), mTotalExpectedCounts);

    writeExpectedGcRatios(mWriter, geneData.GeneId, gcRatioCounts.getCounts());
}