Example usage for java.util Map keySet

List of usage examples for java.util Map keySet

Introduction

In this page you can find the example usage for java.util Map keySet.

Prototype

Set<K> keySet();

Source Link

Document

Returns a Set view of the keys contained in this map.

Usage

From source file:com.act.lcms.v2.MZCollisionCounter.java

public static void main(String[] args) throws Exception {
    CLIUtil cliUtil = new CLIUtil(MassChargeCalculator.class, HELP_MESSAGE, OPTION_BUILDERS);
    CommandLine cl = cliUtil.parseCommandLine(args);

    File inputFile = new File(cl.getOptionValue(OPTION_INPUT_INCHI_LIST));
    if (!inputFile.exists()) {
        cliUtil.failWithMessage("Input file at does not exist at %s", inputFile.getAbsolutePath());
    }/*from w  w  w. ja  va2s . co  m*/

    List<MassChargeCalculator.MZSource> sources = new ArrayList<>();
    try (BufferedReader reader = new BufferedReader(new FileReader(inputFile))) {
        String line;
        while ((line = reader.readLine()) != null) {
            line = line.trim();
            sources.add(new MassChargeCalculator.MZSource(line));
            if (sources.size() % 1000 == 0) {
                LOGGER.info("Loaded %d sources from input file", sources.size());
            }
        }
    }

    Set<String> considerIons = Collections.emptySet();
    if (cl.hasOption(OPTION_ONLY_CONSIDER_IONS)) {
        List<String> ions = Arrays.asList(cl.getOptionValues(OPTION_ONLY_CONSIDER_IONS));
        LOGGER.info("Only considering ions for m/z calculation: %s", StringUtils.join(ions, ", "));
        considerIons = new HashSet<>(ions);
    }

    TSVWriter<String, Long> tsvWriter = new TSVWriter<>(Arrays.asList("collisions", "count"));
    tsvWriter.open(new File(cl.getOptionValue(OPTION_OUTPUT_FILE)));

    try {
        LOGGER.info("Loaded %d sources in total from input file", sources.size());

        MassChargeCalculator.MassChargeMap mzMap = MassChargeCalculator.makeMassChargeMap(sources,
                considerIons);

        if (!cl.hasOption(OPTION_COUNT_WINDOW_INTERSECTIONS)) {
            // Do an exact analysis of the m/z collisions if windowing is not specified.

            LOGGER.info("Computing precise collision histogram.");
            Iterable<Double> mzs = mzMap.ionMZIter();
            Map<Integer, Long> collisionHistogram = histogram(
                    StreamSupport.stream(mzs.spliterator(), false).map(mz -> { // See comment about Iterable below.
                        try {
                            return mzMap.ionMZToMZSources(mz).size();
                        } catch (NoSuchElementException e) {
                            LOGGER.error("Caught no such element exception for mz %f: %s", mz, e.getMessage());
                            throw e;
                        }
                    }));
            List<Integer> sortedCollisions = new ArrayList<>(collisionHistogram.keySet());
            Collections.sort(sortedCollisions);
            for (Integer collision : sortedCollisions) {
                tsvWriter.append(new HashMap<String, Long>() {
                    {
                        put("collisions", collision.longValue());
                        put("count", collisionHistogram.get(collision));
                    }
                });
            }
        } else {
            /* After some deliberation (thanks Gil!), the windowed variant of this calculation counts the number of
             * structures whose 0.01 Da m/z windows (for some set of ions) overlap with each other.
             *
             * For example, let's assume we have five total input structures, and are only searching for one ion.  Let's
             * also assume that three of those structures have m/z A and the remaining two have m/z B.  The windows might
             * look like this in the m/z domain:
             * |----A----|
             *        |----B----|
             * Because A represents three structures and overlaps with B, which represents two, we assign A a count of 5--
             * this is the number of structures we believe could fall into the range of A given our current peak calling
             * approach.  Similarly, B is assigned a count of 5, as the possibility for collision/confusion is symmetric.
             *
             * Note that this is an over-approximation of collisions, as we could more precisely only consider intersections
             * when the exact m/z of B falls within the window around A and vice versa.  However, because we have observed
             * cases where the MS sensor doesn't report structures at exactly the m/z we predict, we employ this weaker
             * definition of intersection to give a slightly pessimistic view of what confusions might be possible. */
            // Compute windows for every m/z.  We don't care about the original mz values since we just want the count.
            List<Double> mzs = mzMap.ionMZsSorted();

            final Double windowHalfWidth;
            if (cl.hasOption(OPTION_WINDOW_HALFWIDTH)) {
                // Don't use get with default for this option, as we want the exact FP value of the default tolerance.
                windowHalfWidth = Double.valueOf(cl.getOptionValue(OPTION_WINDOW_HALFWIDTH));
            } else {
                windowHalfWidth = DEFAULT_WINDOW_TOLERANCE;
            }

            /* Window = (lower bound, upper bound), counter of represented m/z's that collide with this window, and number
             * of representative structures (which will be used in counting collisions). */
            LinkedList<CollisionWindow> allWindows = new LinkedList<CollisionWindow>() {
                {
                    for (Double mz : mzs) {
                        // CPU for memory trade-off: don't re-compute the window bounds over and over and over and over and over.
                        try {
                            add(new CollisionWindow(mz, windowHalfWidth, mzMap.ionMZToMZSources(mz).size()));
                        } catch (NoSuchElementException e) {
                            LOGGER.error("Caught no such element exception for mz %f: %s", mz, e.getMessage());
                            throw e;
                        }
                    }
                }
            };

            // Sweep line time!  The window ranges are the interesting points.  We just accumulate overlap counts as we go.
            LinkedList<CollisionWindow> workingSet = new LinkedList<>();
            List<CollisionWindow> finished = new LinkedList<>();

            while (allWindows.size() > 0) {
                CollisionWindow thisWindow = allWindows.pop();
                // Remove any windows from the working set that don't overlap with the next window.
                while (workingSet.size() > 0 && workingSet.peekFirst().getMaxMZ() < thisWindow.getMinMZ()) {
                    finished.add(workingSet.pop());
                }

                for (CollisionWindow w : workingSet) {
                    /* Add the size of the new overlapping window's structure count to each of the windows in the working set,
                     * which represents the number of possible confused structures that fall within the overlapping region.
                     * We exclude the window itself as it should already have counted the colliding structures it represents. */
                    w.getAccumulator().add(thisWindow.getStructureCount());

                    /* Reciprocally, add the structure counts of all windows with which the current window overlaps to it. */
                    thisWindow.getAccumulator().add(w.getStructureCount());
                }

                // Now that accumulation is complete, we can safely add the current window.
                workingSet.add(thisWindow);
            }

            // All the interesting events are done, so drop the remaining windows into the finished set.
            finished.addAll(workingSet);

            Map<Long, Long> collisionHistogram = histogram(
                    finished.stream().map(w -> w.getAccumulator().longValue()));
            List<Long> sortedCollisions = new ArrayList<>(collisionHistogram.keySet());
            Collections.sort(sortedCollisions);
            for (Long collision : sortedCollisions) {
                tsvWriter.append(new HashMap<String, Long>() {
                    {
                        put("collisions", collision);
                        put("count", collisionHistogram.get(collision));
                    }
                });
            }
        }
    } finally {
        if (tsvWriter != null) {
            tsvWriter.close();
        }
    }
}

From source file:com.act.lcms.db.analysis.IonDetectionAnalysis.java

public static void main(String[] args) throws Exception {

    Options opts = new Options();
    for (Option.Builder b : OPTION_BUILDERS) {
        opts.addOption(b.build());//from   w  w w .  ja  va 2 s  .c o  m
    }

    CommandLine cl = null;
    try {
        CommandLineParser parser = new DefaultParser();
        cl = parser.parse(opts, args);
    } catch (ParseException e) {
        System.err.format("Argument parsing failed: %s", e.getMessage());
        HELP_FORMATTER.printHelp(LoadPlateCompositionIntoDB.class.getCanonicalName(), HELP_MESSAGE, opts, null,
                true);
        System.exit(1);
    }

    if (cl.hasOption("help")) {
        HELP_FORMATTER.printHelp(LoadPlateCompositionIntoDB.class.getCanonicalName(), HELP_MESSAGE, opts, null,
                true);
        return;
    }

    File lcmsDir = new File(cl.getOptionValue(OPTION_LCMS_FILE_DIRECTORY));
    if (!lcmsDir.isDirectory()) {
        System.err.format("File at %s is not a directory", lcmsDir.getAbsolutePath());
        HELP_FORMATTER.printHelp(LoadPlateCompositionIntoDB.class.getCanonicalName(), HELP_MESSAGE, opts, null,
                true);
        System.exit(1);
    }

    String plottingDirectory = cl.getOptionValue(OPTION_PLOTTING_DIR);

    // Get include and excluse ions from command line
    Set<String> includeIons;
    if (cl.hasOption(OPTION_INCLUDE_IONS)) {
        includeIons = new HashSet<>(Arrays.asList(cl.getOptionValues(OPTION_INCLUDE_IONS)));
        LOGGER.info("Including ions in search: %s", StringUtils.join(includeIons, ", "));
    } else {
        includeIons = new HashSet<>();
        includeIons.add(DEFAULT_ION);
    }

    try (DB db = DB.openDBFromCLI(cl)) {
        ScanFile.insertOrUpdateScanFilesInDirectory(db, lcmsDir);

        File inputPredictionCorpus = new File(cl.getOptionValue(OPTION_INPUT_PREDICTION_CORPUS));

        Map<Double, Set<Pair<String, String>>> massChargeToChemicalAndIon = constructMassChargeToChemicalIonsFromInputFile(
                inputPredictionCorpus, includeIons, cl.hasOption(OPTION_LIST_OF_INCHIS_INPUT_FILE));

        Pair<Set<Pair<String, Double>>, Map<String, Double>> values = constructFakeNameToMassChargeAndSetOfMassChargePairs(
                massChargeToChemicalAndIon.keySet());
        Set<Pair<String, Double>> searchMZs = values.getLeft();
        Map<String, Double> chemIDToMassCharge = values.getRight();

        LOGGER.info("The number of mass charges are: %d", searchMZs.size());

        Map<ScanData.KIND, List<LCMSWell>> wellTypeToLCMSWells = readInputExperimentalSetup(db,
                new File(cl.getOptionValue(OPTION_INPUT_POSITIVE_AND_NEGATIVE_CONTROL_WELLS_FILE)));

        // Get experimental setup ie. positive and negative wells from config file
        List<LCMSWell> positiveWells = wellTypeToLCMSWells.get(ScanData.KIND.POS_SAMPLE);
        List<LCMSWell> negativeWells = wellTypeToLCMSWells.get(ScanData.KIND.NEG_CONTROL);

        LOGGER.info("Number of positive wells is: %d", positiveWells.size());
        LOGGER.info("Number of negative wells is: %d", negativeWells.size());

        HashMap<Integer, Plate> plateCache = new HashMap<>();
        String outputPrefix = cl.getOptionValue(OPTION_OUTPUT_PREFIX);

        IonDetectionAnalysis<LCMSWell> ionDetectionAnalysis = new IonDetectionAnalysis<LCMSWell>(lcmsDir,
                positiveWells, negativeWells, plottingDirectory, plateCache, searchMZs, db);

        ionDetectionAnalysis.runLCMSMiningAnalysisAndPlotResults(chemIDToMassCharge, massChargeToChemicalAndIon,
                outputPrefix, cl.hasOption(OPTION_NON_REPLICATE_ANALYSIS));
    }
}

From source file:com.genentech.chemistry.tool.mm.SDFMMMinimize.java

/**
 * Main function for running on the command line
 * @param args/*  w  ww  . j  a v a2  s.  c  o m*/
 */
public static void main(String... args) throws IOException {
    // Get the available options from the programs
    Map<String, List<String>> allowedProgramsAndForceFields = getAllowedProgramsAndForceFields();
    Map<String, List<String>> allowedProgramsAndSolvents = getAllowedProgramsAndSolvents();

    // create command line Options object
    Options options = new Options();
    Option opt = new Option(OPT_INFILE, true,
            "input file oe-supported Use .sdf|.smi to specify the file type.");
    opt.setRequired(true);
    options.addOption(opt);

    opt = new Option(OPT_OUTFILE, true, "output file oe-supported. Use .sdf|.smi to specify the file type.");
    opt.setRequired(true);
    options.addOption(opt);

    StringBuilder programOptions = new StringBuilder("Program to use for minimization.  Choices are\n");

    for (String program : allowedProgramsAndForceFields.keySet()) {
        programOptions.append("\n***   -program " + program + "   ***\n");
        String forcefields = "";
        for (String option : allowedProgramsAndForceFields.get(program)) {
            forcefields += option + " ";
        }
        programOptions.append("-forcefield " + forcefields + "\n");

        String solvents = "";
        for (String option : allowedProgramsAndSolvents.get(program)) {
            solvents += option + " ";
        }
        programOptions.append("-solvent " + solvents + "\n");
    }

    opt = new Option(OPT_PROGRAM, true, programOptions.toString());
    opt.setRequired(true);
    options.addOption(opt);

    opt = new Option(OPT_FORCEFIELD, true, "Forcefield options.  See -program for choices");
    opt.setRequired(false);
    options.addOption(opt);

    opt = new Option(OPT_SOLVENT, true, "Solvent options.  See -program for choices");
    opt.setRequired(false);
    options.addOption(opt);

    opt = new Option(OPT_FIXED_ATOM_TAG, true, "SD tag name which contains the atom numbers to be held fixed.");
    opt.setRequired(false);
    options.addOption(opt);

    opt = new Option(OPT_FIX_TORSION, true,
            "true/false. if true, the atoms in fixedAtomTag contains 4 indices of atoms defining a torsion angle to be held fixed");
    opt.setRequired(false);
    options.addOption(opt);

    opt = new Option(OPT_WORKING_DIR, true, "Working directory to put files.");
    opt.setRequired(false);
    options.addOption(opt);

    CommandLineParser parser = new PosixParser();
    CommandLine cmd = null;
    try {
        cmd = parser.parse(options, args);
    } catch (Exception e) {
        System.err.println(e.getMessage());
        exitWithHelp(options);
    }
    args = cmd.getArgs();

    if (args.length != 0) {
        System.err.println("Unknown arguments" + args);
        exitWithHelp(options);
    }

    if (cmd.hasOption("d")) {
        System.err.println("Start debugger and press return:");
        new BufferedReader(new InputStreamReader(System.in)).readLine();
    }

    String inFile = cmd.getOptionValue(OPT_INFILE);
    String outFile = cmd.getOptionValue(OPT_OUTFILE);
    String fixedAtomTag = cmd.getOptionValue(OPT_FIXED_ATOM_TAG);
    boolean fixTorsion = (cmd.getOptionValue(OPT_FIX_TORSION) != null
            && cmd.getOptionValue(OPT_FIX_TORSION).equalsIgnoreCase("true"));
    String programName = cmd.getOptionValue(OPT_PROGRAM);
    String forcefield = cmd.getOptionValue(OPT_FORCEFIELD);
    String solvent = cmd.getOptionValue(OPT_SOLVENT);
    String workDir = cmd.getOptionValue(OPT_WORKING_DIR);

    if (workDir == null || workDir.trim().length() == 0)
        workDir = ".";

    // Create a minimizer 
    SDFMMMinimize minimizer = new SDFMMMinimize();
    minimizer.setMethod(programName, forcefield, solvent);
    minimizer.run(inFile, outFile, fixedAtomTag, fixTorsion, workDir);
    minimizer.close();
    System.err.println("Minimization complete.");
}

From source file:net.ontopia.topicmaps.cmdlineutils.rdbms.RDBMSIndexTool.java

public static void main(String[] argv) throws Exception {

    // Initialize logging
    CmdlineUtils.initializeLogging();//from ww  w  . java2  s. c o  m

    // Register logging options
    CmdlineOptions options = new CmdlineOptions("RDBMSIndexTool", argv);
    CmdlineUtils.registerLoggingOptions(options);

    // Parse command line options
    try {
        options.parse();
    } catch (CmdlineOptions.OptionsException e) {
        System.err.println("Error: " + e.getMessage());
        System.exit(1);
    }

    // Get command line arguments
    String[] args = options.getArguments();

    if (args.length != 1) {
        usage();
        System.exit(3);
    }

    // load database schema project
    ClassLoader cloader = RDBMSIndexTool.class.getClassLoader();
    InputStream istream = cloader.getResourceAsStream("net/ontopia/topicmaps/impl/rdbms/config/schema.xml");
    Project dbp = DatabaseProjectReader.loadProject(istream);

    // open database connection
    String propfile = args[0];
    ConnectionFactoryIF cf = new DefaultConnectionFactory(PropertyUtils.loadProperties(new File(propfile)),
            true);

    Connection conn = cf.requestConnection();
    try {
        DatabaseMetaData dbm = conn.getMetaData();
        boolean downcase = dbm.storesLowerCaseIdentifiers();

        Map extra_indexes = new TreeMap();
        Map missing_indexes = new TreeMap();

        Iterator tables = dbp.getTables().iterator();
        while (tables.hasNext()) {
            Table table = (Table) tables.next();
            String table_name = (downcase ? table.getName().toLowerCase() : table.getName());
            //! System.out.println("T :"  + table_name);

            // get primary keys from database
            Map pkeys = getPrimaryKeys(table_name, dbm);

            // get indexes from database
            Map indexes = getIndexes(table_name, dbm);

            Map dindexes = new HashMap();
            if (table.getPrimaryKeys() != null) {
                String pkey = table_name + '(' + StringUtils.join(table.getPrimaryKeys(), ',') + ')';
                if (!pkeys.containsKey(pkey))
                    System.out.println("PKM: " + pkey);
            }

            Iterator iter = table.getIndexes().iterator();
            while (iter.hasNext()) {
                Index index = (Index) iter.next();
                String i = table_name + '(' + StringUtils.join(index.getColumns(), ',') + ')';
                String index_name = (downcase ? index.getName().toLowerCase() : index.getName());
                dindexes.put(i, index_name);
            }

            Set extra = new HashSet(indexes.keySet());
            extra.removeAll(dindexes.keySet());
            extra.removeAll(pkeys.keySet());
            if (!extra.isEmpty()) {
                Iterator i = extra.iterator();
                while (i.hasNext()) {
                    Object k = i.next();
                    extra_indexes.put(k, indexes.get(k));
                }
            }

            Set missing = new HashSet(dindexes.keySet());
            missing.addAll(pkeys.keySet());
            missing.removeAll(indexes.keySet());
            if (!missing.isEmpty()) {
                Iterator i = missing.iterator();
                while (i.hasNext()) {
                    Object k = i.next();
                    missing_indexes.put(k, dindexes.get(k));
                }
            }

        }
        if (!extra_indexes.isEmpty())
            System.out.println("/* --- Extra indexes ----------------------------------------- */");
        Iterator eiter = extra_indexes.keySet().iterator();
        while (eiter.hasNext()) {
            Object k = eiter.next();
            System.out.println("drop index " + extra_indexes.get(k) + "; /* " + k + " */");
        }

        if (!missing_indexes.isEmpty())
            System.out.println("/* --- Missing indexes---------------------------------------- */");
        Iterator miter = missing_indexes.keySet().iterator();
        while (miter.hasNext()) {
            Object k = miter.next();
            System.out.println("create index " + missing_indexes.get(k) + " on " + k + ";");
        }

    } finally {
        conn.rollback();
        conn.close();
    }

}

From source file:br.com.autonomiccs.cloudTraces.main.CloudTracesSimulator.java

public static void main(String[] args) {
    validateInputFile(args);/*w w w.jav  a 2  s .  c  o  m*/

    String cloudTracesFile = args[0];
    Collection<VirtualMachine> virtualMachines = getAllVirtualMachinesFromCloudTraces(cloudTracesFile);
    logger.info(String.format("#VirtualMachines [%d] found on [%s].", virtualMachines.size(), cloudTracesFile));

    Map<Integer, List<VirtualMachine>> mapVirtualMachinesTaskExecutionByTime = createMapVirtualMachinesTaskExecutionByTime(
            virtualMachines);
    logger.info(String.format("#Times [%d] that have tasks being executed by VMs ",
            mapVirtualMachinesTaskExecutionByTime.size()));

    Cloud cloud = createCloudEnvirtonmentToStartsimulation();
    logger.info("Cloud configuration: " + cloud);

    List<Integer> timesToExecuteTasks = new ArrayList<>(mapVirtualMachinesTaskExecutionByTime.keySet());
    Collections.sort(timesToExecuteTasks);

    Integer firstTimeInTimeUnitOfUsedCloudData = timesToExecuteTasks.get(0);
    Integer lastTimeInTimeUnitOfUserCloudData = timesToExecuteTasks.get(timesToExecuteTasks.size() - 1);

    logger.info("First time: " + firstTimeInTimeUnitOfUsedCloudData);
    logger.info("Last time: " + lastTimeInTimeUnitOfUserCloudData);

    double timeUnitPerLoopIteration = getTimeUnitPerLoopIteration(firstTimeInTimeUnitOfUsedCloudData,
            lastTimeInTimeUnitOfUserCloudData);
    logger.info("The time unit converted to trace time: " + timeUnitPerLoopIteration);

    double currentTime = firstTimeInTimeUnitOfUsedCloudData;

    long highetResourceAllocation = Long.MIN_VALUE;
    String cloudStateHighestMemoryAllocation = "";

    while (currentTime < lastTimeInTimeUnitOfUserCloudData + 2 * timeUnitPerLoopIteration) {
        logger.debug("Current time of iteration: " + currentTime);
        if (cloud.getMemoryAllocatedInBytes() > highetResourceAllocation) {
            highetResourceAllocation = cloud.getMemoryAllocatedInBytes();
            cloudStateHighestMemoryAllocation = cloud.toString();
        }
        applyLoadOnCloudForCurrentTime(mapVirtualMachinesTaskExecutionByTime, cloud, currentTime);
        destroyVirtualMachinesIfNeeded(cloud, currentTime);

        logger.info(String.format("Time [%.3f], cloud state [%s] ", currentTime, cloud));

        executeManagement(cloud, currentTime);
        logClustersConfigurationsAndStdAtTime(cloud.getClusters(), currentTime);

        currentTime += timeUnitPerLoopIteration;
    }
    logger.info("Cloud configuration after simulation: " + cloud);
    logger.info("Cloud highestResourceUsage: " + cloudStateHighestMemoryAllocation);
}

From source file:net.dontdrinkandroot.lastfm.api.CheckImplementationStatus.java

public static void main(final String[] args) throws DocumentException, IOException {

    CheckImplementationStatus.xmlReader = new Parser();
    CheckImplementationStatus.saxReader = new SAXReader(CheckImplementationStatus.xmlReader);

    final String packagePrefix = "net.dontdrinkandroot.lastfm.api.model.";

    final Map<String, Map<String, URL>> packages = CheckImplementationStatus.parseOverview();

    final StringBuffer html = new StringBuffer();
    html.append("<html>\n");
    html.append("<head>\n");
    html.append("<title>Implementation Status</title>\n");
    html.append("</head>\n");
    html.append("<body>\n");
    html.append("<h1>Implementation Status</h1>\n");

    final StringBuffer wiki = new StringBuffer();

    int numImplemented = 0;
    int numTested = 0;
    int numMethods = 0;

    final List<String> packageList = new ArrayList<String>(packages.keySet());
    Collections.sort(packageList);

    for (final String pkg : packageList) {

        System.out.println("Parsing " + pkg);
        html.append("<h2>" + pkg + "</h2>\n");
        wiki.append("\n===== " + pkg + " =====\n\n");

        Class<?> modelClass = null;
        final String className = packagePrefix + pkg;
        try {/*from w  w w. jav a2  s.c  o  m*/
            modelClass = Class.forName(className);
            System.out.println("\tClass " + modelClass.getName() + " exists");
        } catch (final ClassNotFoundException e) {
            // e.printStackTrace();
            System.out.println("\t" + className + ": DOES NOT exist");
        }

        Class<?> testClass = null;
        final String testClassName = packagePrefix + pkg + "Test";
        try {
            testClass = Class.forName(testClassName);
            System.out.println("\tTestClass " + testClass.getName() + " exists");
        } catch (final ClassNotFoundException e) {
            // e.printStackTrace();
            System.out.println("\t" + testClassName + ": TestClass for DOES NOT exist");
        }

        final List<String> methods = new ArrayList<String>(packages.get(pkg).keySet());
        Collections.sort(methods);

        final Method[] classMethods = modelClass.getMethods();
        final Method[] testMethods = testClass.getMethods();

        html.append("<table>\n");
        html.append("<tr><th>Method</th><th>Implemented</th><th>Tested</th></tr>\n");
        wiki.append("^ Method  ^ Implemented  ^ Tested  ^\n");

        numMethods += methods.size();

        for (final String method : methods) {

            System.out.println("\t\t parsing " + method);

            html.append("<tr>\n");
            html.append("<td>" + method + "</td>\n");
            wiki.append("| " + method + "  ");

            boolean classMethodFound = false;
            for (final Method classMethod : classMethods) {
                if (classMethod.getName().equals(method)) {
                    classMethodFound = true;
                    break;
                }
            }

            if (classMethodFound) {
                System.out.println("\t\t\tMethod " + method + " found");
                html.append("<td style=\"background-color: green\">true</td>\n");
                wiki.append("| yes  ");
                numImplemented++;
            } else {
                System.out.println("\t\t\t" + method + " NOT found");
                html.append("<td style=\"background-color: red\">false</td>\n");
                wiki.append("| **no**  ");
            }

            boolean testMethodFound = false;
            final String testMethodName = "test" + StringUtils.capitalize(method);
            for (final Method testMethod : testMethods) {
                if (testMethod.getName().equals(testMethodName)) {
                    testMethodFound = true;
                    break;
                }
            }

            if (testMethodFound) {
                System.out.println("\t\t\tTestMethod " + method + " found");
                html.append("<td style=\"background-color: green\">true</td>\n");
                wiki.append("| yes  |\n");
                numTested++;
            } else {
                System.out.println("\t\t\t" + testMethodName + " NOT found");
                html.append("<td style=\"background-color: red\">false</td>\n");
                wiki.append("| **no**  |\n");
            }

            html.append("</tr>\n");

        }

        html.append("</table>\n");

        // for (String methodName : methods) {
        // URL url = pkg.getValue().get(methodName);
        // System.out.println("PARSING: " + pkg.getKey() + "." + methodName + ": " + url);
        // String html = loadIntoString(url);
        // String description = null;
        // Matcher descMatcher = descriptionPattern.matcher(html);
        // if (descMatcher.find()) {
        // description = descMatcher.group(1).trim();
        // }
        // boolean post = false;
        // Matcher postMatcher = postPattern.matcher(html);
        // if (postMatcher.find()) {
        // post = true;
        // }
        // Matcher paramsMatcher = paramsPattern.matcher(html);
        // List<String[]> params = new ArrayList<String[]>();
        // boolean authenticated = false;
        // if (paramsMatcher.find()) {
        // String paramsString = paramsMatcher.group(1);
        // Matcher paramMatcher = paramPattern.matcher(paramsString);
        // while (paramMatcher.find()) {
        // String[] param = new String[3];
        // param[0] = paramMatcher.group(1);
        // param[1] = paramMatcher.group(3);
        // param[2] = paramMatcher.group(5);
        // // System.out.println(paramMatcher.group(1) + "|" + paramMatcher.group(3) + "|" +
        // paramMatcher.group(5));
        // if (param[0].equals("")) {
        // /* DO NOTHING */
        // } else if (param[0].equals("api_key")) {
        // /* DO NOTHING */
        // } else if (param[0].equals("api_sig")) {
        // authenticated = true;
        // } else {
        // params.add(param);
        // }
        // }
        // }
        // }
        // count++;
        //
    }

    html.append("<hr />");
    html.append("<p>" + numImplemented + "/" + numMethods + " implemented (" + numImplemented * 100 / numMethods
            + "%)</p>");
    html.append("<p>" + numTested + "/" + numMethods + " tested (" + numTested * 100 / numMethods + "%)</p>");

    html.append("</body>\n");
    html.append("</html>\n");

    FileOutputStream out = new FileOutputStream(new File(FileUtils.getTempDirectory(), "apistatus.html"));
    IOUtils.write(html, out);
    IOUtils.closeQuietly(out);

    out = new FileOutputStream(new File(FileUtils.getTempDirectory(), "apistatus.wiki.txt"));
    IOUtils.write(wiki, out);
    IOUtils.closeQuietly(out);
}

From source file:MyMap.java

public static void main(String[] argv) {

    // Construct and load the hash. This simulates loading a
    // database or reading from a file, or wherever the data is.

    Map map = new MyMap();

    // The hash maps from company name to address.
    // In real life this might map to an Address object...
    map.put("Adobe", "Mountain View, CA");
    map.put("Learning Tree", "Los Angeles, CA");
    map.put("IBM", "White Plains, NY");
    map.put("Netscape", "Mountain View, CA");
    map.put("Microsoft", "Redmond, WA");
    map.put("Sun", "Mountain View, CA");
    map.put("O'Reilly", "Sebastopol, CA");

    // Two versions of the "retrieval" phase.
    // Version 1: get one pair's value given its key
    // (presumably the key would really come from user input):
    String queryString = "O'Reilly";
    System.out.println("You asked about " + queryString + ".");
    String resultString = (String) map.get(queryString);
    System.out.println("They are located in: " + resultString);
    System.out.println();/*from ww w  .j  a v a 2s  .c om*/

    // Version 2: get ALL the keys and pairs 
    // (maybe to print a report, or to save to disk)
    Iterator k = map.keySet().iterator();
    while (k.hasNext()) {
        String key = (String) k.next();
        System.out.println("Key " + key + "; Value " + (String) map.get(key));
    }

    // Step 3 - try out the entrySet() method.
    Set es = map.entrySet();
    System.out.println("entrySet() returns " + es.size() + " Map.Entry's");
}

From source file:com.thed.zapi.cloud.sample.FetchExecuteUpdate.java

public static void main(String[] args) throws JSONException, URISyntaxException, ParseException, IOException {
    final String issueSearchUri = API_SEARCH_ISSUES.replace("{SERVER}", jiraBaseURL);

    /**//from   w ww.  j a v  a2  s. c  o m
     * Get Test Issues by JQL
     * 
     */

    //Json object for JQL search
    JSONObject jqlJsonObj = new JSONObject();
    jqlJsonObj.put("jql", "project = SUP"); // Replace the value with Valid JQL
    jqlJsonObj.put("startAt", 0);
    jqlJsonObj.put("maxResults", 21); // maxResults to be returned by search
    jqlJsonObj.put("fieldsByKeys", false);

    String[] IssueIds = getIssuesByJQL(issueSearchUri, userName, password, jqlJsonObj);
    // System.out.println(ArrayUtils.toString(IssueIds));

    /**
     * Add tests to Cycle
     * 
     */

    final String addTestsUri = API_ADD_TESTS.replace("{SERVER}", zephyrBaseUrl) + cycleId;

    /** Create JSON object by providing input values */
    String[] IssueIds = new String[25];
    JSONObject addTestsObj = new JSONObject();
    addTestsObj.put("issues", IssueIds);
    addTestsObj.put("method", "1");
    addTestsObj.put("projectId", projectId);
    addTestsObj.put("versionId", versionId);

    StringEntity addTestsJSON = null;
    try {
        addTestsJSON = new StringEntity(addTestsObj.toString());
    } catch (UnsupportedEncodingException e1) {
        e1.printStackTrace();
    }
    addTestsToCycle(addTestsUri, client, accessKey, addTestsJSON);

    /**
     * Get Execution Id's by CycleId and Add them to Ad Hoc cycle of
     * UnScheduled Version
     * 
     */
    Map<String, String> executionIds = new HashMap<String, String>();
    final String getExecutionsUri = API_GET_EXECUTIONS.replace("{SERVER}", zephyrBaseUrl) + cycleId
            + "?projectId=" + projectId + "&versionId=" + versionId;

    executionIds = getExecutionsByCycleId(getExecutionsUri, client, accessKey);

    /**
     * Bulk Update Executions with Status by Execution Id
     * 
     */

    JSONObject statusObj = new JSONObject();
    statusObj.put("id", "1");

    JSONObject executeTestsObj = new JSONObject();
    executeTestsObj.put("status", statusObj);
    executeTestsObj.put("cycleId", cycleId);
    executeTestsObj.put("projectId", projectId);
    executeTestsObj.put("versionId", versionId);
    executeTestsObj.put("comment", "Executed by ZAPI Cloud");

    for (String key : executionIds.keySet()) {
        final String updateExecutionUri = API_UPDATE_EXECUTION.replace("{SERVER}", zephyrBaseUrl) + key;
        // System.out.println(updateExecutionUri);
        // System.out.println(executionIds.get(key));
        executeTestsObj.put("issueId", executionIds.get(key));
        // System.out.println(executeTestsObj.toString());
        StringEntity executeTestsJSON = null;
        try {
            executeTestsJSON = new StringEntity(executeTestsObj.toString());
        } catch (UnsupportedEncodingException e1) {
            e1.printStackTrace();
        }
        updateExecutions(updateExecutionUri, client, accessKey, executeTestsJSON);
    }

}

From source file:com.act.lcms.db.analysis.StandardIonAnalysis.java

public static void main(String[] args) throws Exception {
    Options opts = new Options();
    for (Option.Builder b : OPTION_BUILDERS) {
        opts.addOption(b.build());/*w ww .  ja v a2s .co m*/
    }

    CommandLine cl = null;
    try {
        CommandLineParser parser = new DefaultParser();
        cl = parser.parse(opts, args);
    } catch (ParseException e) {
        System.err.format("Argument parsing failed: %s\n", e.getMessage());
        HELP_FORMATTER.printHelp(LoadPlateCompositionIntoDB.class.getCanonicalName(), HELP_MESSAGE, opts, null,
                true);
        System.exit(1);
    }

    if (cl.hasOption("help")) {
        HELP_FORMATTER.printHelp(LoadPlateCompositionIntoDB.class.getCanonicalName(), HELP_MESSAGE, opts, null,
                true);
        return;
    }

    File lcmsDir = new File(cl.getOptionValue(OPTION_DIRECTORY));
    if (!lcmsDir.isDirectory()) {
        System.err.format("File at %s is not a directory\n", lcmsDir.getAbsolutePath());
        HELP_FORMATTER.printHelp(LoadPlateCompositionIntoDB.class.getCanonicalName(), HELP_MESSAGE, opts, null,
                true);
        System.exit(1);
    }

    try (DB db = DB.openDBFromCLI(cl)) {
        ScanFile.insertOrUpdateScanFilesInDirectory(db, lcmsDir);
        StandardIonAnalysis analysis = new StandardIonAnalysis();
        HashMap<Integer, Plate> plateCache = new HashMap<>();

        String plateBarcode = cl.getOptionValue(OPTION_STANDARD_PLATE_BARCODE);
        String inputChemicals = cl.getOptionValue(OPTION_STANDARD_CHEMICAL);
        String medium = cl.getOptionValue(OPTION_MEDIUM);

        // If standard chemical is specified, do standard LCMS ion selection analysis
        if (inputChemicals != null && !inputChemicals.equals("")) {
            String[] chemicals;
            if (!inputChemicals.contains(",")) {
                chemicals = new String[1];
                chemicals[0] = inputChemicals;
            } else {
                chemicals = inputChemicals.split(",");
            }

            String outAnalysis = cl.getOptionValue(OPTION_OUTPUT_PREFIX) + "." + CSV_FORMAT;
            String plottingDirectory = cl.getOptionValue(OPTION_PLOTTING_DIR);
            String[] headerStrings = { "Molecule", "Plate Bar Code", "LCMS Detection Results" };
            CSVPrinter printer = new CSVPrinter(new FileWriter(outAnalysis),
                    CSVFormat.DEFAULT.withHeader(headerStrings));

            for (String inputChemical : chemicals) {
                List<StandardWell> standardWells;

                Plate queryPlate = Plate.getPlateByBarcode(db,
                        cl.getOptionValue(OPTION_STANDARD_PLATE_BARCODE));
                if (plateBarcode != null && medium != null) {
                    standardWells = analysis.getStandardWellsForChemicalInSpecificPlateAndMedium(db,
                            inputChemical, queryPlate.getId(), medium);
                } else if (plateBarcode != null) {
                    standardWells = analysis.getStandardWellsForChemicalInSpecificPlate(db, inputChemical,
                            queryPlate.getId());
                } else {
                    standardWells = analysis.getStandardWellsForChemical(db, inputChemical);
                }

                if (standardWells.size() == 0) {
                    throw new RuntimeException("Found no LCMS wells for " + inputChemical);
                }

                // Sort in descending order of media where MeOH and Water related media are promoted to the top and
                // anything derived from yeast media are demoted.
                Collections.sort(standardWells, new Comparator<StandardWell>() {
                    @Override
                    public int compare(StandardWell o1, StandardWell o2) {
                        if (StandardWell.doesMediaContainYeastExtract(o1.getMedia())
                                && !StandardWell.doesMediaContainYeastExtract(o2.getMedia())) {
                            return 1;
                        } else {
                            return 0;
                        }
                    }
                });

                Map<StandardWell, StandardIonResult> wellToIonRanking = StandardIonAnalysis
                        .getBestMetlinIonsForChemical(inputChemical, lcmsDir, db, standardWells,
                                plottingDirectory);

                if (wellToIonRanking.size() != standardWells.size()
                        && !cl.hasOption(OPTION_OVERRIDE_NO_SCAN_FILE_FOUND)) {
                    throw new Exception("Could not find a scan file associated with one of the standard wells");
                }

                for (StandardWell well : wellToIonRanking.keySet()) {
                    LinkedHashMap<String, XZ> snrResults = wellToIonRanking.get(well).getAnalysisResults();

                    String snrRankingResults = "";
                    int numResultsToShow = 0;

                    Plate plateForWellToAnalyze = Plate.getPlateById(db, well.getPlateId());

                    for (Map.Entry<String, XZ> ionToSnrAndTime : snrResults.entrySet()) {
                        if (numResultsToShow > 3) {
                            break;
                        }

                        String ion = ionToSnrAndTime.getKey();
                        XZ snrAndTime = ionToSnrAndTime.getValue();

                        snrRankingResults += String.format(ion + " (%.2f SNR at %.2fs); ",
                                snrAndTime.getIntensity(), snrAndTime.getTime());
                        numResultsToShow++;
                    }

                    String[] resultSet = { inputChemical,
                            plateForWellToAnalyze.getBarcode() + " " + well.getCoordinatesString() + " "
                                    + well.getMedia() + " " + well.getConcentration(),
                            snrRankingResults };

                    printer.printRecord(resultSet);
                }
            }

            try {
                printer.flush();
                printer.close();
            } catch (IOException e) {
                System.err.println("Error while flushing/closing csv writer.");
                e.printStackTrace();
            }
        } else {
            // Get the set of chemicals that includes the construct and all it's intermediates
            Pair<ConstructEntry, List<ChemicalAssociatedWithPathway>> constructAndPathwayChems = analysis
                    .getChemicalsForConstruct(db, cl.getOptionValue(OPTION_CONSTRUCT));
            System.out.format("Construct: %s\n", constructAndPathwayChems.getLeft().getCompositionId());

            for (ChemicalAssociatedWithPathway pathwayChem : constructAndPathwayChems.getRight()) {
                System.out.format("  Pathway chem %s\n", pathwayChem.getChemical());

                // Get all the standard wells for the pathway chemicals. These wells contain only the
                // the chemical added with controlled solutions (ie no organism or other chemicals in the
                // solution)

                List<StandardWell> standardWells;

                if (plateBarcode != null) {
                    Plate queryPlate = Plate.getPlateByBarcode(db,
                            cl.getOptionValue(OPTION_STANDARD_PLATE_BARCODE));
                    standardWells = analysis.getStandardWellsForChemicalInSpecificPlate(db,
                            pathwayChem.getChemical(), queryPlate.getId());
                } else {
                    standardWells = analysis.getStandardWellsForChemical(db, pathwayChem.getChemical());
                }

                for (StandardWell wellToAnalyze : standardWells) {
                    List<StandardWell> negativeControls = analysis.getViableNegativeControlsForStandardWell(db,
                            wellToAnalyze);
                    Map<StandardWell, List<ScanFile>> allViableScanFiles = analysis
                            .getViableScanFilesForStandardWells(db, wellToAnalyze, negativeControls);

                    List<String> primaryStandardScanFileNames = new ArrayList<>();
                    for (ScanFile scanFile : allViableScanFiles.get(wellToAnalyze)) {
                        primaryStandardScanFileNames.add(scanFile.getFilename());
                    }
                    Plate plate = plateCache.get(wellToAnalyze.getPlateId());
                    if (plate == null) {
                        plate = Plate.getPlateById(db, wellToAnalyze.getPlateId());
                        plateCache.put(plate.getId(), plate);
                    }

                    System.out.format("    Standard well: %s @ %s, '%s'%s%s\n", plate.getBarcode(),
                            wellToAnalyze.getCoordinatesString(), wellToAnalyze.getChemical(),
                            wellToAnalyze.getMedia() == null ? ""
                                    : String.format(" in %s", wellToAnalyze.getMedia()),
                            wellToAnalyze.getConcentration() == null ? ""
                                    : String.format(" @ %s", wellToAnalyze.getConcentration()));
                    System.out.format("      Scan files: %s\n",
                            StringUtils.join(primaryStandardScanFileNames, ", "));

                    for (StandardWell negCtrlWell : negativeControls) {
                        plate = plateCache.get(negCtrlWell.getPlateId());
                        if (plate == null) {
                            plate = Plate.getPlateById(db, negCtrlWell.getPlateId());
                            plateCache.put(plate.getId(), plate);
                        }
                        List<String> negativeControlScanFileNames = new ArrayList<>();
                        for (ScanFile scanFile : allViableScanFiles.get(negCtrlWell)) {
                            negativeControlScanFileNames.add(scanFile.getFilename());
                        }

                        System.out.format("      Viable negative: %s @ %s, '%s'%s%s\n", plate.getBarcode(),
                                negCtrlWell.getCoordinatesString(), negCtrlWell.getChemical(),
                                negCtrlWell.getMedia() == null ? ""
                                        : String.format(" in %s", negCtrlWell.getMedia()),
                                negCtrlWell.getConcentration() == null ? ""
                                        : String.format(" @ %s", negCtrlWell.getConcentration()));
                        System.out.format("        Scan files: %s\n",
                                StringUtils.join(negativeControlScanFileNames, ", "));
                        // TODO: do something useful with the standard wells and their scan files, and then stop all the printing.
                    }
                }
            }
        }
    }
}

From source file:com.thed.zapi.cloud.sample.CycleExecutionReportByVersion.java

public static void main(String[] args) throws JSONException, URISyntaxException, ParseException, IOException {

    String API_GET_EXECUTIONS = "{SERVER}/public/rest/api/1.0/executions/search/cycle/";
    String API_GET_CYCLES = "{SERVER}/public/rest/api/1.0/cycles/search?";
    // Delimiter used in CSV file
    final String NEW_LINE_SEPARATOR = "\n";
    final String fileName = "F:\\cycleExecutionReport.csv";

    /** Declare JIRA,Zephyr URL,access and secret Keys */
    // JIRA Cloud URL of the instance
    String jiraBaseURL = "https://demo.atlassian.net";
    // Replace zephyr baseurl <ZAPI_Cloud_URL> shared with the user for ZAPI Cloud Installation
    String zephyrBaseUrl = "<ZAPI_Cloud_URL>";
    // zephyr accessKey , we can get from Addons >> zapi section
    String accessKey = "YjE2MjdjMGEtNzExNy0zYjY1LWFkMzQtNjcwMDM3OTljFkbWluIGFkbWlu";
    // zephyr secretKey , we can get from Addons >> zapi section
    String secretKey = "qufnbimi96Ob2hq3ISF08yZ8Qw4c1eHGeGlk";

    /** Declare parameter values here */
    String userName = "admin";
    String versionId = "-1";
    String projectId = "10100";
    String projectName = "Support";
    String versionName = "Unscheduled";

    ZFJCloudRestClient client = ZFJCloudRestClient.restBuilder(zephyrBaseUrl, accessKey, secretKey, userName)
            .build();/*  w ww  .ja  v a2 s.  c om*/
    /**
     * Get List of Cycles by Project and Version
     */

    final String getCyclesUri = API_GET_CYCLES.replace("{SERVER}", zephyrBaseUrl) + "projectId=" + projectId
            + "&versionId=" + versionId;

    Map<String, String> cycles = getCyclesByProjectVersion(getCyclesUri, client, accessKey);
    // System.out.println("cycles :"+ cycles.toString());

    /**
     * Iterating over the Cycles and writing the report to CSV
     * 
     */

    FileWriter fileWriter = null;
    System.out.println("Writing CSV file.....");
    try {
        fileWriter = new FileWriter(fileName);

        // Write the CSV file header

        fileWriter.append("Cycle Execution Report By Version and Project");
        fileWriter.append(NEW_LINE_SEPARATOR);
        fileWriter.append("PROJECT:" + "," + projectName);
        fileWriter.append(NEW_LINE_SEPARATOR);
        fileWriter.append("VERSION:" + "," + versionName);
        fileWriter.append(NEW_LINE_SEPARATOR);

        JSONArray executions;
        int totalUnexecutedCount = 0;
        int totalExecutionCount = 0;

        for (String key : cycles.keySet()) {
            int executionCount = 0;
            int unexecutedCount = 0;
            final String getExecutionsUri = API_GET_EXECUTIONS.replace("{SERVER}", zephyrBaseUrl) + key
                    + "?projectId=" + projectId + "&versionId=" + versionId;
            fileWriter.append("Cycle:" + "," + cycles.get(key));
            fileWriter.append(NEW_LINE_SEPARATOR);
            executions = getExecutionsByCycleId(getExecutionsUri, client, accessKey);
            // System.out.println("executions :" + executions.toString());

            HashMap<String, Integer> counter = new HashMap<String, Integer>();

            String[] statusName = new String[executions.length()];
            for (int i = 0; i < executions.length(); i++) {
                JSONObject executionObj = executions.getJSONObject(i).getJSONObject("execution");
                // System.out.println("executionObj
                // "+executionObj.toString());
                JSONObject statusObj = executionObj.getJSONObject("status");
                // System.out.println("statusObj :"+statusObj.toString());
                statusName[i] = statusObj.getString("name");
            }

            if (statusName.length != 0) {
                // System.out.println(statusName.toString());
                for (String a : statusName) {
                    if (counter.containsKey(a)) {
                        int oldValue = counter.get(a);
                        counter.put(a, oldValue + 1);
                    } else {
                        counter.put(a, 1);
                    }
                }
                for (String status : counter.keySet()) {
                    fileWriter.append(" " + "," + " " + "," + status + "," + counter.get(status));
                    fileWriter.append(NEW_LINE_SEPARATOR);
                    if (status.equalsIgnoreCase("UNEXECUTED")) {
                        unexecutedCount += counter.get(status);
                    } else {
                        executionCount += counter.get(status);
                    }

                }
            }
            totalExecutionCount += executionCount;
            totalUnexecutedCount += unexecutedCount;

            fileWriter.append(NEW_LINE_SEPARATOR);
        }

        fileWriter.append(NEW_LINE_SEPARATOR);
        fileWriter.append("TOTAL CYCLES:" + "," + cycles.size());
        fileWriter.append(NEW_LINE_SEPARATOR);
        fileWriter.append("TOTAL EXECUTIONS:" + "," + totalExecutionCount);
        fileWriter.append(NEW_LINE_SEPARATOR);
        fileWriter.append("TOTAL ASSIGNED:" + "," + (totalUnexecutedCount + totalExecutionCount));

        System.out.println("CSV file was created successfully !!!");
    } catch (Exception e) {
        System.out.println("Error in CsvFileWriter !!!");
        e.printStackTrace();
    } finally {
        try {
            fileWriter.flush();
            fileWriter.close();
        } catch (IOException e) {
            System.out.println("Error while flushing/closing fileWriter !!!");
            e.printStackTrace();
        }
    }

}