Author: [log in to unmask]
Date: Tue Sep 27 08:50:14 2016
New Revision: 4501
Log:
Adding working copy of a DAQConfigDriver that can read runtime settings from the database.
Added:
java/trunk/users/src/main/java/org/hps/users/kmccarty/DatabaseDAQConfigDriver.java (with props)
Modified:
java/trunk/users/src/main/java/org/hps/users/kmccarty/HPSEcalDataPlotsDriver.java
java/trunk/users/src/main/java/org/hps/users/kmccarty/TriggerProcessAnalysisDriver.java
java/trunk/users/src/main/java/org/hps/users/kmccarty/plots/FormattedPlot.java
java/trunk/users/src/main/java/org/hps/users/kmccarty/plots/FormattedPlot1D.java
java/trunk/users/src/main/java/org/hps/users/kmccarty/plots/FormattedPlot2D.java
java/trunk/users/src/main/java/org/hps/users/kmccarty/plots/PlotFormatModule.java
java/trunk/users/src/main/java/org/hps/users/kmccarty/plots/PlotsFormatter.java
java/trunk/users/src/main/java/org/hps/users/kmccarty/plots/formatter/InvariantMassPlotsFormatter.java
java/trunk/users/src/main/java/org/hps/users/kmccarty/plots/formatter/MTEPlotFormatter.java
java/trunk/users/src/main/java/org/hps/users/kmccarty/plots/formatter/MTETriggerPlotsFormatter.java
java/trunk/users/src/main/java/org/hps/users/kmccarty/plots/formatter/ParticleMCAnalysisPlotsFormatter.java
java/trunk/users/src/main/java/org/hps/users/kmccarty/plots/formatter/RafoTridentFormatter.java
java/trunk/users/src/main/java/org/hps/users/kmccarty/plots/formatter/SingleTriggerPlotsFormatter.java
java/trunk/users/src/main/java/org/hps/users/kmccarty/plots/formatter/TridentTrackFormatter.java
java/trunk/users/src/main/java/org/hps/users/kmccarty/plots/formatter/TriggerPlotsFormat.java
Added: java/trunk/users/src/main/java/org/hps/users/kmccarty/DatabaseDAQConfigDriver.java
=============================================================================
--- java/trunk/users/src/main/java/org/hps/users/kmccarty/DatabaseDAQConfigDriver.java (added)
+++ java/trunk/users/src/main/java/org/hps/users/kmccarty/DatabaseDAQConfigDriver.java Tue Sep 27 08:50:14 2016
@@ -0,0 +1,79 @@
+package org.hps.users.kmccarty;
+
+import org.hps.record.daqconfig.ConfigurationManager;
+import org.hps.record.daqconfig.DAQConfigDriver;
+import org.hps.record.daqconfig.EvioDAQParser;
+import org.hps.record.triggerbank.TriggerConfigData;
+import org.hps.record.triggerbank.TriggerConfigData.Crate;
+import org.hps.rundb.DaoProvider;
+import org.hps.rundb.RunManager;
+import org.lcsim.event.EventHeader;
+import org.lcsim.geometry.Detector;
+
+import java.io.BufferedReader;
+import java.io.IOException;
+import java.io.StringReader;
+
+public class DatabaseDAQConfigDriver extends DAQConfigDriver {
+ // Define the crate enumerables by crate number. Crates are
+ // in the order 46, 37, 39.
+ private static final Crate[] CRATES = { Crate.CONFIG3, Crate.CONFIG1, Crate.CONFIG2 };
+
+ @Override
+ public void detectorChanged(Detector detector) {
+ // Make sure that the run number is defined.
+ if(getRunNumber() == -1) { throw new IllegalArgumentException("Run number is undefined."); }
+
+ // Get the trigger configuration data.
+ RunManager manager = new RunManager();
+ manager.setRun(getRunNumber());
+ DaoProvider factory = new DaoProvider(manager.getConnection());
+ TriggerConfigData triggerConfig = factory.getTriggerConfigDao().getTriggerConfig(RunManager.getRunManager().getRun());
+
+ // Convert the trigger configuration text blocks into individual
+ // strings.
+ String[][] data = null;
+ try { data = getDataFileArrays(triggerConfig); }
+ catch(IOException e) {
+ throw new RuntimeException("An error occurred when processing the trigger data.");
+ }
+
+ // Instantiate an EvIO DAQ parser and feed it the data.
+ EvioDAQParser daqConfig = new EvioDAQParser();
+ for(int i = 0; i < 3; i++) {
+ daqConfig.parse(CRATES[i].getCrateNumber(), getRunNumber(), data[i]);
+ }
+
+ // Update the configuration manager.
+ ConfigurationManager.updateConfiguration(daqConfig);
+
+ // Close the manager.
+ manager.closeConnection();
+ }
+
+ @Override
+ public void process(EventHeader event) { }
+
+ private static final String[][] getDataFileArrays(TriggerConfigData triggerConfig) throws IOException {
+ // Create file readers to process the data files.
+ StringReader[] fr = new StringReader[3];
+ BufferedReader[] reader = new BufferedReader[3];
+ for(int i = 0; i < 3; i++) {
+ fr[i] = new StringReader(triggerConfig.getData().get(CRATES[i]));
+ reader[i] = new BufferedReader(fr[i]);
+ }
+
+ // Convert the crate data into an array of strings. These must
+ // be in the order of 46, 37, 39.
+ String[][] data = getDataFileArrays(reader);
+
+ // Close the readers.
+ for(int i = 0; i < 3; i++) {
+ reader[i].close();
+ fr[i].close();
+ }
+
+ // Return the converted data.
+ return data;
+ }
+}
Modified: java/trunk/users/src/main/java/org/hps/users/kmccarty/HPSEcalDataPlotsDriver.java
=============================================================================
--- java/trunk/users/src/main/java/org/hps/users/kmccarty/HPSEcalDataPlotsDriver.java (original)
+++ java/trunk/users/src/main/java/org/hps/users/kmccarty/HPSEcalDataPlotsDriver.java Tue Sep 27 08:50:14 2016
@@ -27,22 +27,23 @@
* @author Kyle McCarty <[log in to unmask]>
*/
public class HPSEcalDataPlotsDriver extends Driver {
- private String plotsGroupName= "Data Plots";
- private String bankCollectionName = "TriggerBank";
- private String clusterCollectionName = "EcalClusters";
-
- private static final int PULSER = 0;
- private static final int SINGLES0 = 1;
- private static final int SINGLES1 = 2;
- private static final int PAIR0 = 3;
- private static final int PAIR1 = 4;
-
- private static final int ALL = 0;
- private static final int EDGE = 1;
- private static final int FIDUCIAL = 2;
-
- private AIDA aida = AIDA.defaultInstance();
- private IHistogram1D[][] clusterTotalEnergy = new IHistogram1D[5][3];
+ private boolean useGoodSVT = false;
+ private String plotsGroupName= "Data Plots";
+ private String bankCollectionName = "TriggerBank";
+ private String clusterCollectionName = "EcalClusters";
+
+ private static final int PULSER = 0;
+ private static final int SINGLES0 = 1;
+ private static final int SINGLES1 = 2;
+ private static final int PAIR0 = 3;
+ private static final int PAIR1 = 4;
+
+ private static final int ALL = 0;
+ private static final int EDGE = 1;
+ private static final int FIDUCIAL = 2;
+
+ private AIDA aida = AIDA.defaultInstance();
+ private IHistogram1D[][] clusterTotalEnergy = new IHistogram1D[5][3];
private IHistogram1D[][] clusterTime = new IHistogram1D[5][3];
private IHistogram1D[][] clusterHitCount = new IHistogram1D[5][3];
private IHistogram1D[][] clusterSeedEnergy = new IHistogram1D[5][3];
@@ -101,204 +102,228 @@
pairCoplanarityEnergySum[i][j] = aida.histogram2D(plotsGroupName + "/" + triggerNames[i] + "/"
+ positionNames[j] + "/Pair Energy Sum vs. Coplanarity", 150, 0.000, 1.500, 180, 0, 180);
pairEnergySlope2D[i][j] = aida.histogram2D(plotsGroupName + "/" + triggerNames[i] + "/"
- + positionNames[j] + "/Pair Energy Slope 2D", 75, 0.000, 1.500, 100, 0.0, 400.0);
+ + positionNames[j] + "/Pair Energy Slope 2D", 75, 0.000, 1.500, 100, 0.0, 400.0);
+ }
+ }
+ }
+
+ /**
+ * Processes the event clusters and populates distribution charts
+ * from them for each trigger. Also creates separate plots for the
+ * edge and fiducial regions.
+ * @param event - The event containing LCIO collections to be used
+ * for plot population.
+ */
+ @Override
+ public void process(EventHeader event) {
+ // Check whether the SVT was active in this event.
+ final String[] flagNames = { "svt_bias_good", "svt_burstmode_noise_good", "svt_position_good" };
+ boolean svtGood = true;
+ for(int i = 0; i < flagNames.length; i++) {
+ int[] flag = event.getIntegerParameters().get(flagNames[i]);
+ if(flag == null || flag[0] == 0) {
+ svtGood = false;
}
}
- }
-
- /**
- * Processes the event clusters and populates distribution charts
- * from them for each trigger. Also creates separate plots for the
- * edge and fiducial regions.
- * @param event - The event containing LCIO collections to be used
- * for plot population.
- */
- @Override
- public void process(EventHeader event) {
- // Get the TI and SSP banks.
- TIData tiBank = null;
- SSPData sspBank = null;
- if(event.hasCollection(GenericObject.class, bankCollectionName)) {
- // Get the bank list.
- List<GenericObject> bankList = event.get(GenericObject.class, bankCollectionName);
-
- // Search through the banks and get the SSP and TI banks.
- for(GenericObject obj : bankList) {
- // If this is an SSP bank, parse it.
- if(AbstractIntData.getTag(obj) == SSPData.BANK_TAG) {
- sspBank = new SSPData(obj);
- }
-
- // Otherwise, if this is a TI bank, parse it.
- else if(AbstractIntData.getTag(obj) == TIData.BANK_TAG) {
- tiBank = new TIData(obj);
- }
- }
- }
+
+ // If the SVT is not properly running, skip the event.
+ if(!svtGood && useGoodSVT) { return; }
- // Get the list of clusters.
- List<Cluster> clusters = null;
- if(event.hasCollection(Cluster.class, clusterCollectionName)) {
- clusters = event.get(Cluster.class, clusterCollectionName);
- }
-
- // Require that all collections be initialized.
- if(sspBank == null || tiBank == null || clusters == null) {
- return;
- }
-
- // Track which triggers are active.
- boolean[] activeTrigger = new boolean[5];
- activeTrigger[PULSER] = tiBank.isPulserTrigger();
- activeTrigger[SINGLES0] = tiBank.isSingle0Trigger();
- activeTrigger[SINGLES1] = tiBank.isSingle1Trigger();
- activeTrigger[PAIR0] = tiBank.isPair0Trigger();
- activeTrigger[PAIR1] = tiBank.isPair1Trigger();
-
- // Plot all cluster properties for each trigger.
- for(Cluster cluster : clusters) {
- // Check whether the cluster is a fiducial or edge cluster.
- int positional = inFiducialRegion(cluster) ? FIDUCIAL : EDGE;
-
- // Fill the appropriate plots for each trigger with an
- // active trigger bit for single clusters.
- for(int i = 0; i < 5; i++) {
- if(activeTrigger[i]) {
- // Populate the ALL plots.
- clusterSeedEnergy[i][ALL].fill(TriggerModule.getValueClusterSeedEnergy(cluster));
- clusterTotalEnergy[i][ALL].fill(cluster.getEnergy());
- clusterHitCount[i][ALL].fill(TriggerModule.getClusterHitCount(cluster));
- clusterTime[i][ALL].fill(TriggerModule.getClusterTime(cluster));
- clusterSeedPosition[i][ALL].fill(TriggerModule.getClusterXIndex(cluster),
- TriggerModule.getClusterYIndex(cluster));
-
- // Populate the positional plots.
- clusterSeedEnergy[i][positional].fill(TriggerModule.getValueClusterSeedEnergy(cluster));
- clusterTotalEnergy[i][positional].fill(cluster.getEnergy());
- clusterHitCount[i][positional].fill(TriggerModule.getClusterHitCount(cluster));
- clusterTime[i][positional].fill(TriggerModule.getClusterTime(cluster));
- clusterSeedPosition[i][positional].fill(TriggerModule.getClusterXIndex(cluster),
- TriggerModule.getClusterYIndex(cluster));
- }
- }
- }
-
- // Plot all pair properties for each trigger.
- List<Cluster[]> pairs = TriggerModule.getTopBottomPairs(clusters, Cluster.class);
- for(Cluster[] pair : pairs) {
- // Check whether the cluster is a fiducial or edge cluster.
- boolean[] isFiducial = {
- inFiducialRegion(pair[0]),
- inFiducialRegion(pair[1])
- };
- int positional = (isFiducial[0] && isFiducial[1]) ? FIDUCIAL : EDGE;
-
- // Fill the appropriate plots for each trigger with an
- // active trigger bit for single clusters.
- for(int i = 0; i < 5; i++) {
- if(activeTrigger[i]) {
- // Calculate the values.
- double energySum = TriggerModule.getValueEnergySum(pair);
- double energyDiff = TriggerModule.getValueEnergyDifference(pair);
- double energySlope = TriggerModule.getValueEnergySlope(pair, 0.00550);
- double coplanarity = TriggerModule.getValueCoplanarity(pair);
- double timeCoincidence = TriggerModule.getValueTimeCoincidence(pair);
-
- // Get the energy slope values.
- Cluster lowCluster = pair[0].getEnergy() < pair[1].getEnergy() ? pair[0] : pair[1];
- double clusterDistance = TriggerModule.getClusterDistance(lowCluster);
-
- // Populate the ALL plots.
- pairEnergySum[i][ALL].fill(energySum);
- pairEnergyDifference[i][ALL].fill(energyDiff);
- pairEnergySlope[i][ALL].fill(energySlope);
- pairCoplanarity[i][ALL].fill(coplanarity);
- pairTimeCoincidence[i][ALL].fill(timeCoincidence);
- pairEnergySum2D[i][ALL].fill(pair[0].getEnergy(), pair[1].getEnergy());
- pairCoplanarityEnergySum[i][ALL].fill(energySum, coplanarity);
- pairEnergySlope2D[i][ALL].fill(lowCluster.getEnergy(), clusterDistance);
-
- // Populate the positional plots.
- pairEnergySum[i][positional].fill(energySum);
- pairEnergyDifference[i][positional].fill(energyDiff);
- pairEnergySlope[i][positional].fill(energySlope);
- pairCoplanarity[i][positional].fill(coplanarity);
- pairTimeCoincidence[i][positional].fill(timeCoincidence);
- pairEnergySum2D[i][positional].fill(pair[0].getEnergy(), pair[1].getEnergy());
- pairCoplanarityEnergySum[i][positional].fill(energySum, coplanarity);
- pairEnergySlope2D[i][positional].fill(lowCluster.getEnergy(), clusterDistance);
- }
- }
- }
- }
-
- /**
- * Indicates whether the argument cluster is located in the fiducial
- * region or not.
- * @param cluster - The cluster to check.
- * @return Returns <code>true</code> if the cluster is located in
- * the fiducial region and <code>false</code> otherwise.
- */
- private static final boolean inFiducialRegion(Cluster cluster) {
- // Get the x and y indices for the cluster.
- int ix = TriggerModule.getClusterXIndex(cluster);
- int absx = Math.abs(TriggerModule.getClusterXIndex(cluster));
- int absy = Math.abs(TriggerModule.getClusterYIndex(cluster));
-
- // Check if the cluster is on the top or the bottom of the
- // calorimeter, as defined by |y| == 5. This is an edge cluster
- // and is not in the fiducial region.
- if(absy == 5) {
- return false;
- }
-
- // Check if the cluster is on the extreme left or right side
- // of the calorimeter, as defined by |x| == 23. This is also
- // and edge cluster is not in the fiducial region.
- if(absx == 23) {
- return false;
- }
-
- // Check if the cluster is along the beam gap, as defined by
- // |y| == 1. This is an internal edge cluster and is not in the
- // fiducial region.
- if(absy == 1) {
- return false;
- }
-
- // Lastly, check if the cluster falls along the beam hole, as
- // defined by clusters with -11 <= x <= -1 and |y| == 2. This
- // is not the fiducial region.
- if(absy == 2 && ix <= -1 && ix >= -11) {
- return false;
- }
-
- // If all checks fail, the cluster is in the fiducial region.
- return true;
- }
-
- /**
- * Sets the name of the LCIO collection containing the clusters
- * that are to be plotted.
- * @param collection - The LCIO collection name.
- */
- public void setClusterCollectionName(String collection) {
- clusterCollectionName = collection;
- }
-
- /**
- * Defines the name of the LCIO collection containing the TI bank.
- * @param collection - The LCIO collection name.
- */
- public void setBankCollectionName(String collection) {
- bankCollectionName = collection;
- }
-
- /**
- * Sets the name of the super-group folder containing all plots.
- * @param name - The name of the plots folder.
- */
- public void setPlotsGroupName(String name) {
- plotsGroupName = name;
- }
+ // Get the TI and SSP banks.
+ TIData tiBank = null;
+ SSPData sspBank = null;
+ if(event.hasCollection(GenericObject.class, bankCollectionName)) {
+ // Get the bank list.
+ List<GenericObject> bankList = event.get(GenericObject.class, bankCollectionName);
+
+ // Search through the banks and get the SSP and TI banks.
+ for(GenericObject obj : bankList) {
+ // If this is an SSP bank, parse it.
+ if(AbstractIntData.getTag(obj) == SSPData.BANK_TAG) {
+ sspBank = new SSPData(obj);
+ }
+
+ // Otherwise, if this is a TI bank, parse it.
+ else if(AbstractIntData.getTag(obj) == TIData.BANK_TAG) {
+ tiBank = new TIData(obj);
+ }
+ }
+ }
+
+ // Get the list of clusters.
+ List<Cluster> clusters = null;
+ if(event.hasCollection(Cluster.class, clusterCollectionName)) {
+ clusters = event.get(Cluster.class, clusterCollectionName);
+ }
+
+ // Require that all collections be initialized.
+ if(sspBank == null || tiBank == null || clusters == null) {
+ return;
+ }
+
+ // Track which triggers are active.
+ boolean[] activeTrigger = new boolean[5];
+ activeTrigger[PULSER] = tiBank.isPulserTrigger();
+ activeTrigger[SINGLES0] = tiBank.isSingle0Trigger();
+ activeTrigger[SINGLES1] = tiBank.isSingle1Trigger();
+ activeTrigger[PAIR0] = tiBank.isPair0Trigger();
+ activeTrigger[PAIR1] = tiBank.isPair1Trigger();
+
+ // Plot all cluster properties for each trigger.
+ for(Cluster cluster : clusters) {
+ // Check whether the cluster is a fiducial or edge cluster.
+ int positional = inFiducialRegion(cluster) ? FIDUCIAL : EDGE;
+
+ // Fill the appropriate plots for each trigger with an
+ // active trigger bit for single clusters.
+ for(int i = 0; i < 5; i++) {
+ if(activeTrigger[i]) {
+ // Populate the ALL plots.
+ clusterSeedEnergy[i][ALL].fill(TriggerModule.getValueClusterSeedEnergy(cluster));
+ clusterTotalEnergy[i][ALL].fill(cluster.getEnergy());
+ clusterHitCount[i][ALL].fill(TriggerModule.getClusterHitCount(cluster));
+ clusterTime[i][ALL].fill(TriggerModule.getClusterTime(cluster));
+ clusterSeedPosition[i][ALL].fill(TriggerModule.getClusterXIndex(cluster),
+ TriggerModule.getClusterYIndex(cluster));
+
+ // Populate the positional plots.
+ clusterSeedEnergy[i][positional].fill(TriggerModule.getValueClusterSeedEnergy(cluster));
+ clusterTotalEnergy[i][positional].fill(cluster.getEnergy());
+ clusterHitCount[i][positional].fill(TriggerModule.getClusterHitCount(cluster));
+ clusterTime[i][positional].fill(TriggerModule.getClusterTime(cluster));
+ clusterSeedPosition[i][positional].fill(TriggerModule.getClusterXIndex(cluster),
+ TriggerModule.getClusterYIndex(cluster));
+ }
+ }
+ }
+
+ // Plot all pair properties for each trigger.
+ List<Cluster[]> pairs = TriggerModule.getTopBottomPairs(clusters, Cluster.class);
+ for(Cluster[] pair : pairs) {
+ // Check whether the cluster is a fiducial or edge cluster.
+ boolean[] isFiducial = {
+ inFiducialRegion(pair[0]),
+ inFiducialRegion(pair[1])
+ };
+ int positional = (isFiducial[0] && isFiducial[1]) ? FIDUCIAL : EDGE;
+
+ // Fill the appropriate plots for each trigger with an
+ // active trigger bit for single clusters.
+ for(int i = 0; i < 5; i++) {
+ if(activeTrigger[i]) {
+ // Calculate the values.
+ double energySum = TriggerModule.getValueEnergySum(pair);
+ double energyDiff = TriggerModule.getValueEnergyDifference(pair);
+ double energySlope = TriggerModule.getValueEnergySlope(pair, 0.00550);
+ double coplanarity = TriggerModule.getValueCoplanarity(pair);
+ double timeCoincidence = TriggerModule.getValueTimeCoincidence(pair);
+
+ // Get the energy slope values.
+ Cluster lowCluster = pair[0].getEnergy() < pair[1].getEnergy() ? pair[0] : pair[1];
+ double clusterDistance = TriggerModule.getClusterDistance(lowCluster);
+
+ // Populate the ALL plots.
+ pairEnergySum[i][ALL].fill(energySum);
+ pairEnergyDifference[i][ALL].fill(energyDiff);
+ pairEnergySlope[i][ALL].fill(energySlope);
+ pairCoplanarity[i][ALL].fill(coplanarity);
+ pairTimeCoincidence[i][ALL].fill(timeCoincidence);
+ pairEnergySum2D[i][ALL].fill(pair[0].getEnergy(), pair[1].getEnergy());
+ pairCoplanarityEnergySum[i][ALL].fill(energySum, coplanarity);
+ pairEnergySlope2D[i][ALL].fill(lowCluster.getEnergy(), clusterDistance);
+
+ // Populate the positional plots.
+ pairEnergySum[i][positional].fill(energySum);
+ pairEnergyDifference[i][positional].fill(energyDiff);
+ pairEnergySlope[i][positional].fill(energySlope);
+ pairCoplanarity[i][positional].fill(coplanarity);
+ pairTimeCoincidence[i][positional].fill(timeCoincidence);
+ pairEnergySum2D[i][positional].fill(pair[0].getEnergy(), pair[1].getEnergy());
+ pairCoplanarityEnergySum[i][positional].fill(energySum, coplanarity);
+ pairEnergySlope2D[i][positional].fill(lowCluster.getEnergy(), clusterDistance);
+ }
+ }
+ }
+ }
+
+ /**
+ * Indicates whether the argument cluster is located in the fiducial
+ * region or not.
+ * @param cluster - The cluster to check.
+ * @return Returns <code>true</code> if the cluster is located in
+ * the fiducial region and <code>false</code> otherwise.
+ */
+ private static final boolean inFiducialRegion(Cluster cluster) {
+ // Get the x and y indices for the cluster.
+ int ix = TriggerModule.getClusterXIndex(cluster);
+ int absx = Math.abs(TriggerModule.getClusterXIndex(cluster));
+ int absy = Math.abs(TriggerModule.getClusterYIndex(cluster));
+
+ // Check if the cluster is on the top or the bottom of the
+ // calorimeter, as defined by |y| == 5. This is an edge cluster
+ // and is not in the fiducial region.
+ if(absy == 5) {
+ return false;
+ }
+
+ // Check if the cluster is on the extreme left or right side
+ // of the calorimeter, as defined by |x| == 23. This is also
+ // and edge cluster is not in the fiducial region.
+ if(absx == 23) {
+ return false;
+ }
+
+ // Check if the cluster is along the beam gap, as defined by
+ // |y| == 1. This is an internal edge cluster and is not in the
+ // fiducial region.
+ if(absy == 1) {
+ return false;
+ }
+
+ // Lastly, check if the cluster falls along the beam hole, as
+ // defined by clusters with -11 <= x <= -1 and |y| == 2. This
+ // is not the fiducial region.
+ if(absy == 2 && ix <= -1 && ix >= -11) {
+ return false;
+ }
+
+ // If all checks fail, the cluster is in the fiducial region.
+ return true;
+ }
+
+ /**
+ * Sets the name of the LCIO collection containing the clusters
+ * that are to be plotted.
+ * @param collection - The LCIO collection name.
+ */
+ public void setClusterCollectionName(String collection) {
+ clusterCollectionName = collection;
+ }
+
+ /**
+ * Defines the name of the LCIO collection containing the TI bank.
+ * @param collection - The LCIO collection name.
+ */
+ public void setBankCollectionName(String collection) {
+ bankCollectionName = collection;
+ }
+
+ /**
+ * Sets the name of the super-group folder containing all plots.
+ * @param name - The name of the plots folder.
+ */
+ public void setPlotsGroupName(String name) {
+ plotsGroupName = name;
+ }
+
+ /**
+ * Sets whether or not to skip events where the SVT was not in
+ * position and active.
+ * @param state - <code>true</code> indicates that only events
+ * with an active, properly positioned SVT should be analyzed, and
+ * <code>false</code> that all events will be included.
+ */
+ public void setUseGoodSVT(boolean state) {
+ useGoodSVT = state;
+ }
}
Modified: java/trunk/users/src/main/java/org/hps/users/kmccarty/TriggerProcessAnalysisDriver.java
=============================================================================
--- java/trunk/users/src/main/java/org/hps/users/kmccarty/TriggerProcessAnalysisDriver.java (original)
+++ java/trunk/users/src/main/java/org/hps/users/kmccarty/TriggerProcessAnalysisDriver.java Tue Sep 27 08:50:14 2016
@@ -9,11 +9,18 @@
import java.util.List;
import java.util.Set;
+import org.hps.analysis.trigger.SimTriggerData;
+import org.hps.analysis.trigger.data.TriggerDiagStats;
+import org.hps.analysis.trigger.util.OutputLogger;
import org.hps.recon.tracking.TrackType;
import org.hps.recon.tracking.TrackUtils;
+import org.hps.record.triggerbank.AbstractIntData;
+import org.hps.record.triggerbank.SSPData;
+import org.hps.record.triggerbank.TIData;
import org.hps.record.triggerbank.TriggerModule;
import org.lcsim.event.Cluster;
import org.lcsim.event.EventHeader;
+import org.lcsim.event.GenericObject;
import org.lcsim.event.ReconstructedParticle;
import org.lcsim.event.RelationalTable;
import org.lcsim.event.Track;
@@ -21,78 +28,245 @@
import org.lcsim.util.aida.AIDA;
public class TriggerProcessAnalysisDriver extends Driver {
- private int eventsProcessed = 0;
- private int mollersProcessed = 0;
- private boolean checkSVT = false;
- private int tridentsProcessed = 0;
- private int gblMollersProcessed = 0;
- private int gblTridentsProcessed = 0;
- private double timeCoincidence = 2.5;
- private double elasticThreshold = 0.800;
- private double mollerLowerRange = 0.900;
- private double mollerUpperRange = 1.200;
- private AIDA aida = AIDA.defaultInstance();
- private boolean checkTriggerTimeWindow = false;
- private String clusterCollectionName = "EcalClustersCorr";
- private String particleCollectionName = "FinalStateParticles";
-
- // Define trident cluster-track matched condition plots.
- private IHistogram1D trctmInvariantMass = aida.histogram1D("Tridents CTMatched/Invariant Mass", 140, 0.0, 0.070);
- private IHistogram1D trctmInstancesInEvent = aida.histogram1D("Tridents CTMatched/Instances in Event", 9, 0.5, 9.5);
- private IHistogram1D trctmEnergySum1D = aida.histogram1D("Tridents CTMatched/Cluster Energy Sum", 150, 0.000, 1.500);
- private IHistogram1D trctmMomentumSum1D = aida.histogram1D("Tridents CTMatched/Track Momentum Sum", 150, 0.000, 1.500);
- private IHistogram1D trctmElectronEnergy = aida.histogram1D("Tridents CTMatched/Electron Cluster Energy", 150, 0.000, 1.500);
- private IHistogram1D trctmElectronMomentum = aida.histogram1D("Tridents CTMatched/Electron Track Momentum", 150, 0.000, 1.500);
- private IHistogram1D trctmPositronEnergy = aida.histogram1D("Tridents CTMatched/Positron Cluster Energy", 150, 0.000, 1.500);
- private IHistogram1D trctmPositronMomentum = aida.histogram1D("Tridents CTMatched/Positron Track Momentum", 150, 0.000, 1.500);
- private IHistogram1D trctmTimeCoincidence = aida.histogram1D("Tridents CTMatched/Time Coincidence", 100, -4, 4);
- private IHistogram2D trctmClusterPosition = aida.histogram2D("Tridents CTMatched/Cluster Seed Position", 46, -23, 23, 11, -5.5, 5.5);
- private IHistogram2D trctmEnergySum2D = aida.histogram2D("Tridents CTMatched/Cluster Energy Sum 2D", 300, 0.000, 1.500, 300, 0.000, 1.500);
- private IHistogram2D trctmTrackPosition = aida.histogram2D("Tridents CTMatched/Extrapolated Track Position", 200, -400, 400, 55, -110, 110);
- private IHistogram2D trctmMomentumSum2D = aida.histogram2D("Tridents CTMatched/Track Momentum Sum 2D", 300, 0.000, 1.500, 300, 0.000, 1.500);
- private IHistogram2D trctmESumCoplanarity = aida.histogram2D("Tridents CTMatched/Cluster Energy Sum vs. Coplanarity", 300, 0.000, 1.500, 360, 0, 360);
- private IHistogram2D trctmPSumCoplanarity = aida.histogram2D("Tridents CTMatched/Track Momentum Sum vs. Coplanarity", 300, 0.000, 1.500, 360, 0, 360);
-
- // Define the Moller cluster-track matched condition plots.
- private IHistogram1D moctmInvariantMass = aida.histogram1D("Moller CTMatched/Invariant Mass", 140, 0.0, 0.070);
- private IHistogram1D moctmInstancesInEvent = aida.histogram1D("Moller CTMatched/Instances in Event", 9, 0.5, 9.5);
- private IHistogram1D moctmEnergySum1D = aida.histogram1D("Moller CTMatched/Cluster Energy Sum", 150, 0.000, 1.500);
- private IHistogram1D moctmMomentumSum1D = aida.histogram1D("Moller CTMatched/Track Momentum Sum", 150, 0.000, 1.500);
- private IHistogram1D moctmElectronEnergy = aida.histogram1D("Moller CTMatched/Electron Cluster Energy", 150, 0.000, 1.500);
- private IHistogram1D moctmElectronMomentum = aida.histogram1D("Moller CTMatched/Electron Track Momentum", 150, 0.000, 1.500);
- private IHistogram1D moctmTimeCoincidence = aida.histogram1D("Moller CTMatched/Time Coincidence", 100, -4, 4);
- private IHistogram2D moctmClusterPosition = aida.histogram2D("Moller CTMatched/Cluster Seed Position", 46, -23, 23, 11, -5.5, 5.5);
- private IHistogram2D moctmEnergySum2D = aida.histogram2D("Moller CTMatched/Cluster Energy Sum 2D", 300, 0.000, 1.500, 300, 0.000, 1.500);
- private IHistogram2D moctmTrackPosition = aida.histogram2D("Moller CTMatched/Extrapolated Track Position", 200, -400, 400, 55, -110, 110);
- private IHistogram2D moctmMomentumSum2D = aida.histogram2D("Moller CTMatched/Track Momentum Sum 2D", 300, 0.000, 1.500, 300, 0.000, 1.500);
- private IHistogram2D moctmESumCoplanarity = aida.histogram2D("Moller CTMatched/Cluster Energy Sum vs. Coplanarity", 300, 0.000, 1.500, 360, 0, 360);
- private IHistogram2D moctmPSumCoplanarity = aida.histogram2D("Moller CTMatched/Track Momentum Sum vs. Coplanarity", 300, 0.000, 1.500, 360, 0, 360);
-
- // Define the Moller track-only condition plots.
- private IHistogram1D mogblTimeCoincidence = aida.histogram1D("Moller Track-Only/Time Coincidence", 100, -4, 4);
- private IHistogram1D mogblInvariantMass = aida.histogram1D("Moller Track-Only/Invariant Mass", 140, 0.0, 0.070);
- private IHistogram1D mogblInstancesInEvent = aida.histogram1D("Moller Track-Only/Instances in Event", 9, 0.5, 9.5);
- private IHistogram1D mogblMomentumSum1D = aida.histogram1D("Moller Track-Only/Track Momentum Sum", 150, 0.000, 1.500);
- private IHistogram1D mogblElectronMomentum = aida.histogram1D("Moller Track-Only/Electron Track Momentum", 150, 0.000, 1.500);
- private IHistogram2D mogblTrackPosition = aida.histogram2D("Moller Track-Only/Extrapolated Track Position", 200, -400, 400, 55, -110, 110);
- private IHistogram2D mogblMomentumSum2D = aida.histogram2D("Moller Track-Only/Track Momentum Sum 2D", 300, 0.000, 1.500, 300, 0.000, 1.500);
- private IHistogram2D mogblPSumCoplanarity = aida.histogram2D("Moller Track-Only/Track Momentum Sum vs. Coplanarity", 300, 0.000, 1.500, 360, 0, 360);
-
- // Define the GBL trident condition plots.
- private IHistogram1D trgblInvariantMass = aida.histogram1D("Tridents Track-Only/Invariant Mass", 140, 0.0, 0.070);
- private IHistogram1D trgblInstancesInEvent = aida.histogram1D("Tridents Track-Only/Instances in Event", 9, 0.5, 9.5);
- private IHistogram1D trgblMomentumSum1D = aida.histogram1D("Tridents Track-Only/Track Momentum Sum", 150, 0.000, 1.500);
- private IHistogram1D trgblElectronMomentum = aida.histogram1D("Tridents Track-Only/Electron Track Momentum", 150, 0.000, 1.500);
- private IHistogram1D trgblPositronMomentum = aida.histogram1D("Tridents Track-Only/Positron Track Momentum", 150, 0.000, 1.500);
- private IHistogram1D trgblTimeCoincidence = aida.histogram1D("Tridents Track-Only/Time Coincidence", 100, -4, 4);
- private IHistogram2D trgblTrackPosition = aida.histogram2D("Tridents Track-Only/Extrapolated Track Position", 200, -400, 400, 55, -110, 110);
- private IHistogram2D trgblMomentumSum2D = aida.histogram2D("Tridents Track-Only/Track Momentum Sum 2D", 300, 0.000, 1.500, 300, 0.000, 1.500);
- private IHistogram2D trgblPSumCoplanarity = aida.histogram2D("Tridents Track-Only/Track Momentum Sum vs. Coplanarity", 300, 0.000, 1.500, 360, 0, 360);
-
- @Override
- public void endOfData() {
- // Calculate the scaling factor for Hertz.
- double scale = 19000.0 / eventsProcessed;
+ private int eventsProcessed = 0;
+ private int møllersProcessed = 0;
+ private boolean checkSVT = false;
+ private int tridentsProcessed = 0;
+ private int gblMøllersProcessed = 0;
+ private int gblTridentsProcessed = 0;
+ private int vertexedMøllersProcessed = 0;
+ private int vertexedTridentsProcessed = 0;
+ private double timeCoincidence = 2.5;
+ private double elasticThreshold = 0.900;
+ private double møllerLowerRange = 0.800;
+ private double møllerUpperRange = 1.300;
+ private AIDA aida = AIDA.defaultInstance();
+ private boolean checkTriggerTimeWindow = false;
+ private String bankCollectionName = "TriggerBank";
+ private String clusterCollectionName = "EcalClustersCorr";
+ private String particleCollectionName = "FinalStateParticles";
+ private String møllerCollectionName = "UnconstrainedMollerCandidates";
+ private String tridentCollectionName = "TargetConstrainedV0Candidates";
+
+ // Track how many events pass each trigger configuration.
+ private int triggerActiveEvents = 0;
+ private int[][][][][] ctmTriggerMøllers = new int[2][2][2][2][2];
+ private int[][][][][] vtxTriggerMøllers = new int[2][2][2][2][2];
+ private int[][][][][] ctmTriggerTridents = new int[2][2][2][2][2];
+ private int[][][][][] vtxTriggerTridents = new int[2][2][2][2][2];
+
+ // Define Møller cut constants.
+ /*
+ private static final int LOW = 0;
+ private static final int HIGH = 1;
+ private static final double[] MÃLLER_ANGLE_THRESHOLD = {
+ (1 - 0.40) * 0.5109989 / (2 * 1056),
+ (1 + 0.40) * 0.5109989 / (2 * 1056)
+ };
+ private static final double[] MÃLLER_ENERGY_THRESHOLD = {
+ (1 - 0.15) * 1.056,
+ (1 + 0.15) * 1.056
+ };
+ private static final double BEAM_ROTATION = -0.0305;
+ private static final double ELECTRON_MASS_2 = 0.0005109989 * 0.0005109989;
+ */
+
+ // Define trident cluster-track matched condition plots.
+ private IHistogram1D trctmInvariantMass = aida.histogram1D("Tridents CTMatched/Invariant Mass", 140, 0.0, 0.070);
+ private IHistogram1D trctmInstancesInEvent = aida.histogram1D("Tridents CTMatched/Instances in Event", 9, 0.5, 9.5);
+ private IHistogram1D trctmEnergySum1D = aida.histogram1D("Tridents CTMatched/Cluster Energy Sum", 150, 0.000, 1.500);
+ private IHistogram1D trctmMomentumSum1D = aida.histogram1D("Tridents CTMatched/Track Momentum Sum", 150, 0.000, 1.500);
+ private IHistogram1D trctmElectronEnergy = aida.histogram1D("Tridents CTMatched/Electron Cluster Energy", 150, 0.000, 1.500);
+ private IHistogram1D trctmElectronMomentum = aida.histogram1D("Tridents CTMatched/Electron Track Momentum", 150, 0.000, 1.500);
+ private IHistogram1D trctmPositronEnergy = aida.histogram1D("Tridents CTMatched/Positron Cluster Energy", 150, 0.000, 1.500);
+ private IHistogram1D trctmPositronMomentum = aida.histogram1D("Tridents CTMatched/Positron Track Momentum", 150, 0.000, 1.500);
+ private IHistogram1D trctmTimeCoincidence = aida.histogram1D("Tridents CTMatched/Time Coincidence", 100, -4, 4);
+ private IHistogram2D trctmClusterPosition = aida.histogram2D("Tridents CTMatched/Cluster Seed Position", 46, -23, 23, 11, -5.5, 5.5);
+ private IHistogram2D trctmEnergySum2D = aida.histogram2D("Tridents CTMatched/Cluster Energy Sum 2D", 300, 0.000, 1.500, 300, 0.000, 1.500);
+ private IHistogram2D trctmTrackPosition = aida.histogram2D("Tridents CTMatched/Extrapolated Track Position", 200, -400, 400, 55, -110, 110);
+ private IHistogram2D trctmMomentumSum2D = aida.histogram2D("Tridents CTMatched/Track Momentum Sum 2D", 300, 0.000, 1.500, 300, 0.000, 1.500);
+ private IHistogram2D trctmESumCoplanarity = aida.histogram2D("Tridents CTMatched/Cluster Energy Sum vs. Coplanarity", 300, 0.000, 1.500, 360, 0, 360);
+ private IHistogram2D trctmPSumCoplanarity = aida.histogram2D("Tridents CTMatched/Track Momentum Sum vs. Coplanarity", 300, 0.000, 1.500, 360, 0, 360);
+
+ // Define trident vertexed condition plots.
+ private IHistogram1D trvtxInvariantMass = aida.histogram1D("Tridents Vertexed/Invariant Mass", 140, 0.0, 0.070);
+ private IHistogram1D trvtxInstancesInEvent = aida.histogram1D("Tridents Vertexed/Instances in Event", 9, 0.5, 9.5);
+ private IHistogram1D trvtxEnergySum1D = aida.histogram1D("Tridents Vertexed/Cluster Energy Sum", 150, 0.000, 1.500);
+ private IHistogram1D trvtxMomentumSum1D = aida.histogram1D("Tridents Vertexed/Track Momentum Sum", 150, 0.000, 1.500);
+ private IHistogram1D trvtxElectronEnergy = aida.histogram1D("Tridents Vertexed/Electron Cluster Energy", 150, 0.000, 1.500);
+ private IHistogram1D trvtxElectronMomentum = aida.histogram1D("Tridents Vertexed/Electron Track Momentum", 150, 0.000, 1.500);
+ private IHistogram1D trvtxPositronEnergy = aida.histogram1D("Tridents Vertexed/Positron Cluster Energy", 150, 0.000, 1.500);
+ private IHistogram1D trvtxPositronMomentum = aida.histogram1D("Tridents Vertexed/Positron Track Momentum", 150, 0.000, 1.500);
+ private IHistogram1D trvtxTimeCoincidence = aida.histogram1D("Tridents Vertexed/Time Coincidence", 100, -4, 4);
+ private IHistogram2D trvtxClusterPosition = aida.histogram2D("Tridents Vertexed/Cluster Seed Position", 46, -23, 23, 11, -5.5, 5.5);
+ private IHistogram2D trvtxEnergySum2D = aida.histogram2D("Tridents Vertexed/Cluster Energy Sum 2D", 300, 0.000, 1.500, 300, 0.000, 1.500);
+ private IHistogram2D trvtxTrackPosition = aida.histogram2D("Tridents Vertexed/Extrapolated Track Position", 200, -400, 400, 55, -110, 110);
+ private IHistogram2D trvtxMomentumSum2D = aida.histogram2D("Tridents Vertexed/Track Momentum Sum 2D", 300, 0.000, 1.500, 300, 0.000, 1.500);
+ private IHistogram2D trvtxESumCoplanarity = aida.histogram2D("Tridents Vertexed/Cluster Energy Sum vs. Coplanarity", 300, 0.000, 1.500, 360, 0, 360);
+ private IHistogram2D trvtxPSumCoplanarity = aida.histogram2D("Tridents Vertexed/Track Momentum Sum vs. Coplanarity", 300, 0.000, 1.500, 360, 0, 360);
+ private IHistogram1D trvtxChiSquared = aida.histogram1D("Tridents Vertexed/Chi Squared", 1000, 0.0, 1000.0);
+
+ // Define the Møller cluster-track matched condition plots.
+ private IHistogram1D møctmInvariantMass = aida.histogram1D("Møller CTMatched/Invariant Mass", 140, 0.0, 0.070);
+ private IHistogram1D møctmInstancesInEvent = aida.histogram1D("Møller CTMatched/Instances in Event", 9, 0.5, 9.5);
+ private IHistogram1D møctmEnergySum1D = aida.histogram1D("Møller CTMatched/Cluster Energy Sum", 150, 0.000, 1.500);
+ private IHistogram1D møctmMomentumSum1D = aida.histogram1D("Møller CTMatched/Track Momentum Sum", 150, 0.000, 1.500);
+ private IHistogram1D møctmElectronEnergy = aida.histogram1D("Møller CTMatched/Electron Cluster Energy", 150, 0.000, 1.500);
+ private IHistogram1D møctmElectronMomentum = aida.histogram1D("Møller CTMatched/Electron Track Momentum", 150, 0.000, 1.500);
+ private IHistogram1D møctmTimeCoincidence = aida.histogram1D("Møller CTMatched/Time Coincidence", 100, -4, 4);
+ private IHistogram2D møctmClusterPosition = aida.histogram2D("Møller CTMatched/Cluster Seed Position", 46, -23, 23, 11, -5.5, 5.5);
+ private IHistogram2D møctmEnergySum2D = aida.histogram2D("Møller CTMatched/Cluster Energy Sum 2D", 300, 0.000, 1.500, 300, 0.000, 1.500);
+ private IHistogram2D møctmTrackPosition = aida.histogram2D("Møller CTMatched/Extrapolated Track Position", 200, -400, 400, 55, -110, 110);
+ private IHistogram2D møctmMomentumSum2D = aida.histogram2D("Møller CTMatched/Track Momentum Sum 2D", 300, 0.000, 1.500, 300, 0.000, 1.500);
+ private IHistogram2D møctmESumCoplanarity = aida.histogram2D("Møller CTMatched/Cluster Energy Sum vs. Coplanarity", 300, 0.000, 1.500, 360, 0, 360);
+ private IHistogram2D møctmPSumCoplanarity = aida.histogram2D("Møller CTMatched/Track Momentum Sum vs. Coplanarity", 300, 0.000, 1.500, 360, 0, 360);
+
+ // Define the Møller track-only condition plots.
+ private IHistogram1D møgblTimeCoincidence = aida.histogram1D("Møller Track-Only/Time Coincidence", 100, -4, 4);
+ private IHistogram1D møgblInvariantMass = aida.histogram1D("Møller Track-Only/Invariant Mass", 140, 0.0, 0.070);
+ private IHistogram1D møgblInstancesInEvent = aida.histogram1D("Møller Track-Only/Instances in Event", 9, 0.5, 9.5);
+ private IHistogram1D møgblMomentumSum1D = aida.histogram1D("Møller Track-Only/Track Momentum Sum", 150, 0.000, 1.500);
+ private IHistogram1D møgblElectronMomentum = aida.histogram1D("Møller Track-Only/Electron Track Momentum", 150, 0.000, 1.500);
+ private IHistogram2D møgblTrackPosition = aida.histogram2D("Møller Track-Only/Extrapolated Track Position", 200, -400, 400, 55, -110, 110);
+ private IHistogram2D møgblMomentumSum2D = aida.histogram2D("Møller Track-Only/Track Momentum Sum 2D", 300, 0.000, 1.500, 300, 0.000, 1.500);
+ private IHistogram2D møgblPSumCoplanarity = aida.histogram2D("Møller Track-Only/Track Momentum Sum vs. Coplanarity", 300, 0.000, 1.500, 360, 0, 360);
+
+ // Define the Møller vertexed condition plots.
+ private IHistogram1D møvtxTimeCoincidence = aida.histogram1D("Møller Vertexed/Time Coincidence", 100, -4, 4);
+ private IHistogram1D møvtxInvariantMass = aida.histogram1D("Møller Vertexed/Invariant Mass", 140, 0.0, 0.070);
+ private IHistogram1D møvtxInstancesInEvent = aida.histogram1D("Møller Vertexed/Instances in Event", 9, 0.5, 9.5);
+ private IHistogram1D møvtxMomentumSum1D = aida.histogram1D("Møller Vertexed/Track Momentum Sum", 150, 0.000, 1.500);
+ private IHistogram1D møvtxElectronMomentum = aida.histogram1D("Møller Vertexed/Electron Track Momentum", 150, 0.000, 1.500);
+ private IHistogram2D møvtxTrackPosition = aida.histogram2D("Møller Vertexed/Extrapolated Track Position", 200, -400, 400, 55, -110, 110);
+ private IHistogram2D møvtxMomentumSum2D = aida.histogram2D("Møller Vertexed/Track Momentum Sum 2D", 300, 0.000, 1.500, 300, 0.000, 1.500);
+ private IHistogram2D møvtxPSumCoplanarity = aida.histogram2D("Møller Vertexed/Track Momentum Sum vs. Coplanarity", 300, 0.000, 1.500, 360, 0, 360);
+
+ // Define the GBL trident condition plots.
+ private IHistogram1D trgblInvariantMass = aida.histogram1D("Tridents Track-Only/Invariant Mass", 140, 0.0, 0.070);
+ private IHistogram1D trgblInstancesInEvent = aida.histogram1D("Tridents Track-Only/Instances in Event", 9, 0.5, 9.5);
+ private IHistogram1D trgblMomentumSum1D = aida.histogram1D("Tridents Track-Only/Track Momentum Sum", 150, 0.000, 1.500);
+ private IHistogram1D trgblElectronMomentum = aida.histogram1D("Tridents Track-Only/Electron Track Momentum", 150, 0.000, 1.500);
+ private IHistogram1D trgblPositronMomentum = aida.histogram1D("Tridents Track-Only/Positron Track Momentum", 150, 0.000, 1.500);
+ private IHistogram1D trgblTimeCoincidence = aida.histogram1D("Tridents Track-Only/Time Coincidence", 100, -4, 4);
+ private IHistogram2D trgblTrackPosition = aida.histogram2D("Tridents Track-Only/Extrapolated Track Position", 200, -400, 400, 55, -110, 110);
+ private IHistogram2D trgblMomentumSum2D = aida.histogram2D("Tridents Track-Only/Track Momentum Sum 2D", 300, 0.000, 1.500, 300, 0.000, 1.500);
+ private IHistogram2D trgblPSumCoplanarity = aida.histogram2D("Tridents Track-Only/Track Momentum Sum vs. Coplanarity", 300, 0.000, 1.500, 360, 0, 360);
+
+ @Override
+ public void endOfData() {
+ // Calculate the scaling factor for Hertz.
+ double scale = 19000.0 / eventsProcessed;
+
+ System.out.println("Processed " + eventsProcessed + " events.");
+ System.out.println("Processed " + møllersProcessed + " Møller events");
+ System.out.println("\tAcceptance :: " + (100.0 * møllersProcessed / eventsProcessed) + "%");
+ System.out.println("\tRate :: " + (møllersProcessed * scale) + " Hz");
+
+ System.out.println("Processed " + tridentsProcessed + " trident events");
+ System.out.println("\tAcceptance :: " + (100.0 * tridentsProcessed / eventsProcessed) + "%");
+ System.out.println("\tRate :: " + (tridentsProcessed * scale) + " Hz");
+
+ /*
+ System.out.println("Processed " + gblMøllersProcessed + " track-only Møller events");
+ System.out.println("\tAcceptance :: " + (100.0 * gblMøllersProcessed / eventsProcessed) + "%");
+ System.out.println("\tRate :: " + (gblMøllersProcessed * scale) + " Hz");
+
+ System.out.println("Processed " + gblTridentsProcessed + " track-only trident events");
+ System.out.println("\tAcceptance :: " + (100.0 * gblTridentsProcessed / eventsProcessed) + "%");
+ System.out.println("\tRate :: " + (gblTridentsProcessed * scale) + " Hz");
+ */
+
+ System.out.println("Processed " + vertexedMøllersProcessed + " vertexed Møller events");
+ System.out.println("\tAcceptance :: " + (100.0 * vertexedMøllersProcessed / eventsProcessed) + "%");
+ System.out.println("\tRate :: " + (vertexedMøllersProcessed * scale) + " Hz");
+
+ System.out.println("Processed " + vertexedTridentsProcessed + " vertexed trident events");
+ System.out.println("\tAcceptance :: " + (100.0 * vertexedTridentsProcessed / eventsProcessed) + "%");
+ System.out.println("\tRate :: " + (vertexedTridentsProcessed * scale) + " Hz");
+
+
+ System.out.println("CTM Møllers:");
+ for(int pulser = 0; pulser < 2; pulser++) {
+ for(int singles0 = 0; singles0 < 2; singles0++) {
+ for(int singles1 = 0; singles1 < 2; singles1++) {
+ for(int pair0 = 0; pair0 < 2; pair0++) {
+ for(int pair1 = 0; pair1 < 2; pair1++) {
+ System.out.printf("\t%5b %5b %5b %5b %5b %d%n",
+ pulser == 1 ? true : false, singles0 == 1 ? true : false,
+ singles1 == 1 ? true : false, pair0 == 1 ? true : false,
+ pair1 == 1 ? true : false, ctmTriggerMøllers[pulser][singles0][singles1][pair0][pair1]);
+ }
+ }
+ }
+ }
+ }
+
+ System.out.println("CTM Tridents:");
+ for(int pulser = 0; pulser < 2; pulser++) {
+ for(int singles0 = 0; singles0 < 2; singles0++) {
+ for(int singles1 = 0; singles1 < 2; singles1++) {
+ for(int pair0 = 0; pair0 < 2; pair0++) {
+ for(int pair1 = 0; pair1 < 2; pair1++) {
+ System.out.printf("\t%5b %5b %5b %5b %5b %d%n",
+ pulser == 1 ? true : false, singles0 == 1 ? true : false,
+ singles1 == 1 ? true : false, pair0 == 1 ? true : false,
+ pair1 == 1 ? true : false, ctmTriggerTridents[pulser][singles0][singles1][pair0][pair1]);
+ }
+ }
+ }
+ }
+ }
+
+ System.out.println("VTX Møllers:");
+ for(int pulser = 0; pulser < 2; pulser++) {
+ for(int singles0 = 0; singles0 < 2; singles0++) {
+ for(int singles1 = 0; singles1 < 2; singles1++) {
+ for(int pair0 = 0; pair0 < 2; pair0++) {
+ for(int pair1 = 0; pair1 < 2; pair1++) {
+ System.out.printf("\t%5b %5b %5b %5b %5b %d%n",
+ pulser == 1 ? true : false, singles0 == 1 ? true : false,
+ singles1 == 1 ? true : false, pair0 == 1 ? true : false,
+ pair1 == 1 ? true : false, vtxTriggerMøllers[pulser][singles0][singles1][pair0][pair1]);
+ }
+ }
+ }
+ }
+ }
+
+ System.out.println("VTX Tridents:");
+ for(int pulser = 0; pulser < 2; pulser++) {
+ for(int singles0 = 0; singles0 < 2; singles0++) {
+ for(int singles1 = 0; singles1 < 2; singles1++) {
+ for(int pair0 = 0; pair0 < 2; pair0++) {
+ for(int pair1 = 0; pair1 < 2; pair1++) {
+ System.out.printf("\t%5b %5b %5b %5b %5b %d%n",
+ pulser == 1 ? true : false, singles0 == 1 ? true : false,
+ singles1 == 1 ? true : false, pair0 == 1 ? true : false,
+ pair1 == 1 ? true : false, vtxTriggerTridents[pulser][singles0][singles1][pair0][pair1]);
+ }
+ }
+ }
+ }
+ }
+ }
+
+ /**
+ @Override
+ public void process(EventHeader event) {
+ // Check whether the SVT was active in this event and, if so,
+ // skip it. This can be disabled through the steering file for
+ // Monte Carlo data, where the "SVT" is always active.
+ if(checkSVT) {
+ final String[] flagNames = { "svt_bias_good", "svt_burstmode_noise_good", "svt_position_good" };
+ boolean svtGood = true;
+ for(int i = 0; i < flagNames.length; i++) {
+ int[] flag = event.getIntegerParameters().get(flagNames[i]);
+ if(flag == null || flag[0] == 0) {
+ svtGood = false;
+ }
+ }
+ if(!svtGood) { return; }
+ }
System.out.println("Processed " + eventsProcessed + " events.");
System.out.println("Processed " + mollersProcessed + " Moller events");
@@ -110,7 +284,7 @@
System.out.println("Processed " + gblTridentsProcessed + " Rafo trident events");
System.out.println("\tAcceptance :: " + (100.0 * gblTridentsProcessed / eventsProcessed) + "%");
System.out.println("\tRate :: " + (gblTridentsProcessed * scale) + " Hz");
- }
+ }**/
/*
@Override
@@ -171,583 +345,870 @@
// Check if the event has a collection of tracks. If it exists,
// extract it. Otherwise, skip the event.
- if(!event.hasCollection(ReconstructedParticle.class, particleCollectionName)) {
- return;
- }
- List<ReconstructedParticle> trackList = event.get(ReconstructedParticle.class, particleCollectionName);
-
- // Check if the event has a collection of clusters. If it
- // exists, extract it. Otherwise, skip the event.
- if(!event.hasCollection(Cluster.class, clusterCollectionName)) {
- return;
- }
- List<Cluster> clusterList = event.get(Cluster.class, clusterCollectionName);
-
- // Get cluster-track matched top/bottom pairs.
- List<ReconstructedParticle[]> gblMatchedPairs = getTopBottomTracksGBL(trackList);
- List<ReconstructedParticle[]> ctMatchedPairs = getTopBottomTracksCTMatched(trackList);
-
- System.out.println("CTM Pairs :: " + ctMatchedPairs.size());
- System.out.println("GBL Pairs :: " + gblMatchedPairs.size());
-
- // Get the trident and Moller tracks for the matched track
- // and cluster pair condition sets.
- List<ReconstructedParticle[]> mollers = getMollerTracksCTMatched(ctMatchedPairs);
- List<ReconstructedParticle[]> mollersGBL = getMollerTracksGBL(gblMatchedPairs, event);
- List<ReconstructedParticle[]> tridents = getTridentTracksCTMatched(ctMatchedPairs);
- List<ReconstructedParticle[]> tridentsGBL = getTridentClustersGBL(gblMatchedPairs, TriggerModule.getTopBottomPairs(clusterList, Cluster.class), event);
-
- // Track how many events had tridents and Mollers.
- if(!mollers.isEmpty()) { mollersProcessed++; }
- if(!tridents.isEmpty()) { tridentsProcessed++; }
- if(!mollersGBL.isEmpty()) { gblMollersProcessed++; }
- if(!tridentsGBL.isEmpty()) { gblTridentsProcessed++; }
-
- // Produce Moller cluster-track matched plots.
- moctmInstancesInEvent.fill(mollers.size());
- for(ReconstructedParticle[] pair : mollers) {
- // Get the track clusters.
- Track[] tracks = { pair[0].getTracks().get(0), pair[1].getTracks().get(0) };
- Cluster[] trackClusters = { pair[0].getClusters().get(0), pair[1].getClusters().get(0) };
-
- // Populate the cluster plots.
- moctmElectronEnergy.fill(trackClusters[0].getEnergy());
- moctmElectronEnergy.fill(trackClusters[1].getEnergy());
- moctmEnergySum1D.fill(TriggerModule.getValueEnergySum(trackClusters));
- moctmEnergySum2D.fill(trackClusters[0].getEnergy(), trackClusters[1].getEnergy());
- moctmESumCoplanarity.fill(TriggerModule.getValueEnergySum(trackClusters), getCalculatedCoplanarity(trackClusters));
- moctmTimeCoincidence.fill(TriggerModule.getClusterTime(trackClusters[0]) - TriggerModule.getClusterTime(trackClusters[1]));
- moctmClusterPosition.fill(TriggerModule.getClusterXIndex(trackClusters[0]), TriggerModule.getClusterYIndex(trackClusters[0]));
- moctmClusterPosition.fill(TriggerModule.getClusterXIndex(trackClusters[1]), TriggerModule.getClusterYIndex(trackClusters[1]));
-
- // Populate the momentum plots.
- moctmInvariantMass.fill(getInvariantMass(pair));
- moctmElectronMomentum.fill(pair[0].getMomentum().magnitude());
- moctmElectronMomentum.fill(pair[1].getMomentum().magnitude());
- moctmMomentumSum1D.fill(VecOp.add(pair[0].getMomentum(), pair[1].getMomentum()).magnitude());
- moctmMomentumSum2D.fill(pair[0].getMomentum().magnitude(), pair[1].getMomentum().magnitude());
- moctmTrackPosition.fill(TrackUtils.getTrackPositionAtEcal(tracks[0]).x(), TrackUtils.getTrackPositionAtEcal(tracks[0]).y());
- moctmTrackPosition.fill(TrackUtils.getTrackPositionAtEcal(tracks[1]).x(), TrackUtils.getTrackPositionAtEcal(tracks[1]).y());
- moctmPSumCoplanarity.fill(VecOp.add(pair[0].getMomentum(), pair[1].getMomentum()).magnitude(),
- getCalculatedCoplanarity(new Track[] { pair[0].getTracks().get(0), pair[1].getTracks().get(0) }));
- }
-
- // Produce trident cluster-track matched plots.
- trctmInstancesInEvent.fill(tridents.size());
- for(ReconstructedParticle[] pair : tridents) {
- // Get the electron and positron tracks.
- ReconstructedParticle electronTrack = pair[pair[0].getCharge() < 0 ? 0 : 1];
- ReconstructedParticle positronTrack = pair[pair[0].getCharge() > 0 ? 0 : 1];
-
- // Get the track clusters.
- Cluster electronCluster = electronTrack.getClusters().get(0);
- Cluster positronCluster = positronTrack.getClusters().get(0);
- Track[] tracks = { pair[0].getTracks().get(0), pair[1].getTracks().get(0) };
- Cluster[] trackClusters = { pair[0].getClusters().get(0), pair[1].getClusters().get(0) };
-
- // Populate the cluster plots.
- trctmElectronEnergy.fill(electronCluster.getEnergy());
- trctmPositronEnergy.fill(positronCluster.getEnergy());
- trctmEnergySum2D.fill(pair[0].getEnergy(), pair[1].getEnergy());
- trctmEnergySum1D.fill(TriggerModule.getValueEnergySum(trackClusters));
- trctmESumCoplanarity.fill(TriggerModule.getValueEnergySum(trackClusters), getCalculatedCoplanarity(trackClusters));
- trctmTimeCoincidence.fill(TriggerModule.getClusterTime(trackClusters[0]) - TriggerModule.getClusterTime(trackClusters[1]));
- trctmClusterPosition.fill(TriggerModule.getClusterXIndex(trackClusters[0]), TriggerModule.getClusterYIndex(trackClusters[0]));
- trctmClusterPosition.fill(TriggerModule.getClusterXIndex(trackClusters[1]), TriggerModule.getClusterYIndex(trackClusters[1]));
-
- // Populate the momentum plots.
- trctmInvariantMass.fill(getInvariantMass(pair));
- trctmElectronMomentum.fill(electronTrack.getMomentum().magnitude());
- trctmPositronMomentum.fill(positronTrack.getMomentum().magnitude());
- trctmMomentumSum1D.fill(VecOp.add(pair[0].getMomentum(), pair[1].getMomentum()).magnitude());
- trctmMomentumSum2D.fill(pair[0].getMomentum().magnitude(), pair[1].getMomentum().magnitude());
- trctmTrackPosition.fill(TrackUtils.getTrackPositionAtEcal(tracks[0]).x(), TrackUtils.getTrackPositionAtEcal(tracks[0]).y());
- trctmTrackPosition.fill(TrackUtils.getTrackPositionAtEcal(tracks[1]).x(), TrackUtils.getTrackPositionAtEcal(tracks[1]).y());
- trctmPSumCoplanarity.fill(VecOp.add(pair[0].getMomentum(), pair[1].getMomentum()).magnitude(),
- getCalculatedCoplanarity(new Track[] { pair[0].getTracks().get(0), pair[1].getTracks().get(0) }));
- }
-
- // Produce the Moller track-only plots.
- mogblInstancesInEvent.fill(mollersGBL.size());
- RelationalTable<?, ?> hitToStrips = TrackUtils.getHitToStripsTable(event);
- RelationalTable<?, ?> hitToRotated = TrackUtils.getHitToRotatedTable(event);
- for(ReconstructedParticle pair[] : mollersGBL) {
- // Get the tracks and track times.
- Track[] tracks = { pair[0].getTracks().get(0), pair[1].getTracks().get(0) };
- double times[] = {
- TrackUtils.getTrackTime(tracks[0], hitToStrips, hitToRotated),
- TrackUtils.getTrackTime(tracks[1], hitToStrips, hitToRotated)
- };
-
- // Fill the plots.
- mogblTimeCoincidence.fill(times[0] - times[1]);
- mogblInvariantMass.fill(getInvariantMass(pair));
- mogblElectronMomentum.fill(pair[0].getMomentum().magnitude());
- mogblElectronMomentum.fill(pair[1].getMomentum().magnitude());
- mogblMomentumSum1D.fill(VecOp.add(pair[0].getMomentum(), pair[1].getMomentum()).magnitude());
- mogblMomentumSum2D.fill(pair[0].getMomentum().magnitude(), pair[1].getMomentum().magnitude());
- mogblTrackPosition.fill(TrackUtils.getTrackPositionAtEcal(tracks[0]).x(), TrackUtils.getTrackPositionAtEcal(tracks[0]).y());
- mogblTrackPosition.fill(TrackUtils.getTrackPositionAtEcal(tracks[1]).x(), TrackUtils.getTrackPositionAtEcal(tracks[1]).y());
- mogblPSumCoplanarity.fill(VecOp.add(pair[0].getMomentum(), pair[1].getMomentum()).magnitude(),
- getCalculatedCoplanarity(new Track[] { pair[0].getTracks().get(0), pair[1].getTracks().get(0) }));
- }
-
- // Produce track-only trident plots.
- trgblInstancesInEvent.fill(tridentsGBL.size());
- for(ReconstructedParticle[] pair : tridentsGBL) {
- // Get the tracks and track times.
- Track[] tracks = { pair[0].getTracks().get(0), pair[1].getTracks().get(0) };
- double times[] = {
- TrackUtils.getTrackTime(tracks[0], hitToStrips, hitToRotated),
- TrackUtils.getTrackTime(tracks[1], hitToStrips, hitToRotated)
- };
-
- // Get the positron and the electron.
- ReconstructedParticle positron = pair[0].getCharge() > 0 ? pair[0] : pair[1];
- ReconstructedParticle electron = pair[0].getCharge() < 0 ? pair[0] : pair[1];
-
- // Fill the plots.
- trgblTimeCoincidence.fill(times[0] - times[1]);
- trgblInvariantMass.fill(getInvariantMass(pair));
- trgblElectronMomentum.fill(electron.getMomentum().magnitude());
- trgblPositronMomentum.fill(positron.getMomentum().magnitude());
- trgblMomentumSum1D.fill(VecOp.add(pair[0].getMomentum(), pair[1].getMomentum()).magnitude());
- trgblMomentumSum2D.fill(pair[0].getMomentum().magnitude(), pair[1].getMomentum().magnitude());
- trgblTrackPosition.fill(TrackUtils.getTrackPositionAtEcal(tracks[0]).x(), TrackUtils.getTrackPositionAtEcal(tracks[0]).y());
- trgblTrackPosition.fill(TrackUtils.getTrackPositionAtEcal(tracks[1]).x(), TrackUtils.getTrackPositionAtEcal(tracks[1]).y());
- trgblPSumCoplanarity.fill(VecOp.add(pair[0].getMomentum(), pair[1].getMomentum()).magnitude(),
- getCalculatedCoplanarity(new Track[] { pair[0].getTracks().get(0), pair[1].getTracks().get(0) }));
- }
- }
-
- public void setCheckSVT(boolean state) {
- checkSVT = state;
- }
-
- public void setCheckTriggerTimeWindow(boolean state) {
- checkTriggerTimeWindow = state;
- }
-
- /**
- * Gets a list of all possible GBL top/bottom track pairs. These
- * tracks are not guaranteed to have a matched cluster.
- * @param trackList - A list of all possible tracks.
- * @return Returns a list of track pairs.
- */
- private static final List<ReconstructedParticle[]> getTopBottomTracksGBL(List<ReconstructedParticle> trackList) {
- // Separate the tracks into top and bottom tracks based on
- // the value of tan(Î). Use only GBL tracks to avoid track
- // duplication.
- List<ReconstructedParticle> topTracks = new ArrayList<ReconstructedParticle>();
- List<ReconstructedParticle> botTracks = new ArrayList<ReconstructedParticle>();
- trackLoop:
- for(ReconstructedParticle track : trackList) {
- // Require that the ReconstructedParticle contain an actual
- // Track object.
- if(track.getTracks().isEmpty()) {
- continue trackLoop;
- }
-
- // Ignore tracks that are not GBL tracks.
- if(!TrackType.isGBL(track.getType())) {
- continue trackLoop;
- }
-
- // If the above tests pass, the ReconstructedParticle has
- // a track and is also a GBL track. Separate it into either
- // a top or a bottom track based on its tan(Î) value.
- if(track.getTracks().get(0).getTrackStates().get(0).getTanLambda() > 0) {
- topTracks.add(track);
- } else {
- botTracks.add(track);
- }
- }
-
- // Form all top/bottom pairs with the unique tracks.
- List<ReconstructedParticle[]> pairList = new ArrayList<ReconstructedParticle[]>();
- for(ReconstructedParticle topTrack : topTracks) {
- for(ReconstructedParticle botTrack : botTracks) {
- pairList.add(new ReconstructedParticle[] { topTrack, botTrack });
- }
- }
-
- // Return the result.
- return pairList;
- }
-
- /**
- * Produces pairs of tracks. The track pairs are required to be
- * matched to a cluster and the associated clusters must form a
- * top/bottom pair. If more than one track points to the same
- * cluster, only the first track is retained.
- * @param trackList - A list of all tracks.
- * @return Returns a list of track pairs meeting the aforementioned
- * conditions.
- */
- private static final List<ReconstructedParticle[]> getTopBottomTracksCTMatched(List<ReconstructedParticle> trackList) {
- // Track clusters that have already been seen to prevent clusters
- // that have duplicate tracks from reappearing.
- Set<Cluster> clusterSet = new HashSet<Cluster>();
-
- // Separate the tracks into top and bottom tracks based on
- // the track cluster. Filter out tracks with no clusters.
- List<ReconstructedParticle> topTracks = new ArrayList<ReconstructedParticle>();
- List<ReconstructedParticle> botTracks = new ArrayList<ReconstructedParticle>();
- trackLoop:
- for(ReconstructedParticle track : trackList) {
- // Check if the track has a cluster. If not, skip it.
- if(track.getClusters().isEmpty()) {
- continue trackLoop;
- }
-
- // If the track doesn't have actual tracks, skip it.
- if(track.getTracks().isEmpty()) {
- continue trackLoop;
- }
-
- // Check if the track cluster has already seen.
- Cluster trackCluster = track.getClusters().get(0);
- if(clusterSet.contains(trackCluster)) {
- continue trackLoop;
- }
-
- // If the track has a unique cluster, add it to the proper
- // list based on the cluster y-index.
- clusterSet.add(trackCluster);
- if(TriggerModule.getClusterYIndex(trackCluster) > 0) {
- topTracks.add(track);
- } else {
- botTracks.add(track);
- }
- }
-
- // Form all top/bottom pairs with the unique tracks.
- List<ReconstructedParticle[]> pairList = new ArrayList<ReconstructedParticle[]>();
- for(ReconstructedParticle topTrack : topTracks) {
- for(ReconstructedParticle botTrack : botTracks) {
- pairList.add(new ReconstructedParticle[] { topTrack, botTrack });
- }
- }
-
- // Return the result.
- return pairList;
- }
-
- private final List<ReconstructedParticle[]> getTridentClustersGBL(List<ReconstructedParticle[]> pairList, List<Cluster[]> clusterList, EventHeader event) {
- // Store the set of track pairs that meet the trident condition.
- List<ReconstructedParticle[]> tridentTracks = new ArrayList<ReconstructedParticle[]>();
-
- // Extract track relational tables from the event object.
- RelationalTable<?, ?> hitToStrips = TrackUtils.getHitToStripsTable(event);
- RelationalTable<?, ?> hitToRotated = TrackUtils.getHitToRotatedTable(event);
-
- // Tracks will not be considered for trident analysis unless there
- // is at least one top/bottom cluster pair within the time window.
- boolean passesClusterCondition = false;
- tridentClusterLoop:
- for(Cluster[] pair : clusterList) {
- // Ignore clusters that are too far apart temporally.
- if(TriggerModule.getValueTimeCoincidence(pair) > timeCoincidence) {
- continue tridentClusterLoop;
- }
-
- // Require that the cluster pair be top/bottom.
- boolean hasTop = TriggerModule.getClusterYIndex(pair[0]) > 0 || TriggerModule.getClusterYIndex(pair[1]) > 0;
- boolean hasBot = TriggerModule.getClusterYIndex(pair[0]) < 0 || TriggerModule.getClusterYIndex(pair[1]) < 0;
- if(!hasTop || !hasBot) {
- continue tridentClusterLoop;
- }
-
- // If the cluster passes, mark that it has done so and skip
- // the rest. Only one pair need pass.
- passesClusterCondition = true;
- break tridentClusterLoop;
- }
-
- // If no cluster pair passed the cluster condition, no tracks
- // are allowed to pass either.
- if(!passesClusterCondition) {
- return tridentTracks;
- }
-
- // Next, check the track pair list. A track pair must have a
- // positive and a negative track and must also be within the
- // time coincidence window.
- tridentTrackLoop:
- for(ReconstructedParticle[] pair : pairList) {
- // Check that there is at least one positive and one negative
- // track in the pair.
- boolean hasPositive = pair[0].getCharge() > 0 || pair[1].getCharge() > 0;
- boolean hasNegative = pair[0].getCharge() < 0 || pair[1].getCharge() < 0;
- if(!hasPositive || !hasNegative) {
- break tridentTrackLoop;
- }
-
- // Check that the track pair passes the time cut.
- double times[] = {
- TrackUtils.getTrackTime(pair[0].getTracks().get(0), hitToStrips, hitToRotated),
- TrackUtils.getTrackTime(pair[1].getTracks().get(0), hitToStrips, hitToRotated)
- };
-
- if(Math.abs(times[0] - times[1]) > timeCoincidence) {
- continue tridentTrackLoop;
- }
-
- // Require that the negative track have less than the
- // elastic threshold momentum to exclude elastic electrons.
- if(pair[0].getCharge() < 0 && pair[0].getMomentum().magnitude() > elasticThreshold
- || pair[1].getCharge() < 0 && pair[1].getMomentum().magnitude() > elasticThreshold) {
- continue tridentTrackLoop;
- }
-
- // If the track passes both, it is considered a trident pair.
- tridentTracks.add(pair);
- }
-
- // Return the resultant pairs.
- return tridentTracks;
- }
-
- /**
- * Gets a list track pairs that meet the trident condition defined
- * using tracks with matched calorimeter clusters. A pair meets the
- * cluster/track matched trident condition is it meets the following:
- * <ul><li>Both tracks have matched clusters.</li>
- * <li>Has one positive track.</li>
- * <li>Has one negative track.</li>
- * <li>Clusters have a time coincidence of 2.5 ns or less.</li>
- * <li>The electron momentum is below 900 MeV.</li></ul>
- * @param pairList - A <code>List</code> collection of parameterized
- * type <code>ReconstructedParticle[]</code> containing all valid
- * top/bottom pairs of tracks with matched clusters. These will be
- * tested to see if they meet the process criteria.
- * @return Returns a list containing pairs of tracks that meet the
- * trident condition.
- */
- private final List<ReconstructedParticle[]> getTridentTracksCTMatched(List<ReconstructedParticle[]> pairList) {
- // Store the set of track pairs that meet the trident condition.
- List<ReconstructedParticle[]> tridentTracks = new ArrayList<ReconstructedParticle[]>();
-
- // Loop over the filtered pair list and apply the trident
- // condition test.
- tridentLoop:
- for(ReconstructedParticle[] pair : pairList) {
- // There must be one positive and one negative track.
- ReconstructedParticle electron = null;
- ReconstructedParticle positron = null;
- if(pair[0].getCharge() > 0) { positron = pair[0]; }
- else if(pair[1].getCharge() > 0) { positron = pair[1]; }
- if(pair[0].getCharge() < 0) { electron = pair[0]; }
- else if(pair[1].getCharge() < 0) { electron = pair[1]; }
- if(electron == null || positron == null) {
- continue tridentLoop;
- }
-
- // Make sure that the clusters are not the same. This should
- // not actually ever be possible...
- if(pair[0].getClusters().get(0) == pair[1].getClusters().get(0)) {
- continue tridentLoop;
- }
-
- // The clusters must within a limited time window.
- /*
- Cluster[] trackClusters = { pair[0].getClusters().get(0), pair[1].getClusters().get(0) };
- if(TriggerModule.getValueTimeCoincidence(trackClusters) > timeCoincidence) {
- continue tridentLoop;
- }
- */
-
- // The clusters must be coincidental within an energy
- // dependent coincidence window.
- Cluster[] trackClusters = { pair[0].getClusters().get(0), pair[1].getClusters().get(0) };
- if(!isCoincidental(trackClusters)) {
- continue tridentLoop;
- }
-
- // Require that the electron in the pair have an energy
- // below the elastic threshold to exclude elastic electrons.
- if(electron.getMomentum().magnitude() >= elasticThreshold) {
- continue tridentLoop;
- }
-
- // Require that all clusters occur within the trigger time
- // window to exclude accidentals.
- if(checkTriggerTimeWindow) {
- if(!inTriggerWindow(trackClusters[0]) || !inTriggerWindow(trackClusters[1])) {
- continue tridentLoop;
- }
- }
-
- // If all the above conditions are met, the pair is to be
- // considered a trident pair. Add it to the list.
- tridentTracks.add(pair);
- }
-
- // Return the list of pairs that passed the condition.
- return tridentTracks;
- }
-
- private final List<ReconstructedParticle[]> getMollerTracksGBL(List<ReconstructedParticle[]> pairList, EventHeader event) {
- // Store the set of track pairs that meet the Moller condition.
- List<ReconstructedParticle[]> mollerTracks = new ArrayList<ReconstructedParticle[]>();
-
- // Extract track relational tables from the event object.
- RelationalTable<?, ?> hitToStrips = TrackUtils.getHitToStripsTable(event);
- RelationalTable<?, ?> hitToRotated = TrackUtils.getHitToRotatedTable(event);
-
- // Loop over the filtered pair list and apply the Moller
- // condition test.
- mollerLoop:
- for(ReconstructedParticle[] pair : pairList) {
- // Both tracks must be negatively charged.
- if(pair[0].getCharge() > 0 || pair[1].getCharge() > 0) {
- continue mollerLoop;
- }
-
- // The clusters must within a limited time window.
- double times[] = {
- TrackUtils.getTrackTime(pair[0].getTracks().get(0), hitToStrips, hitToRotated),
- TrackUtils.getTrackTime(pair[1].getTracks().get(0), hitToStrips, hitToRotated)
- };
-
- if(Math.abs(times[0] - times[1]) > timeCoincidence) {
- continue mollerLoop;
- }
-
- // Require that the electrons in the pair have energies
- // below the elastic threshold to exclude said electrons.
- if(pair[0].getMomentum().magnitude() > elasticThreshold || pair[1].getMomentum().magnitude() > elasticThreshold) {
- continue mollerLoop;
- }
-
- // Require that the energy of the pair be within a range
- // that is sufficiently "Moller-like."
- double momentumSum = VecOp.add(pair[0].getMomentum(), pair[1].getMomentum()).magnitude();
- if(momentumSum < mollerLowerRange || momentumSum > mollerUpperRange) {
- continue mollerLoop;
- }
-
- // If all the above conditions are met, the pair is to be
- // considered a trident pair. Add it to the list.
- mollerTracks.add(pair);
- }
-
- // Return the list of pairs that passed the condition.
- return mollerTracks;
- }
-
- /**
- * Gets a list track pairs that meet the Moller condition defined
- * using tracks with matched calorimeter clusters. A pair meets the
- * cluster/track matched Moller condition is it meets the following:
- * <ul><li>Both tracks have matched clusters.</li>
- * <li>Both tracks are negative.</li>
- * <li>Clusters have a time coincidence of 2.5 ns or less.</li>
- * <li>The electron momenta are below 900 MeV.</li>
- * <li>The momentum sum of the tracks is in the range <code>800 MeV
- * ⤠p1 + p2 ⤠1500 MeV</li></ul>
- * @param pairList - A <code>List</code> collection of parameterized
- * type <code>ReconstructedParticle[]</code> containing all valid
- * top/bottom pairs of tracks with matched clusters. These will be
- * tested to see if they meet the process criteria.
- * @return Returns a list containing pairs of tracks that meet the
- * Moller condition.
- */
- private final List<ReconstructedParticle[]> getMollerTracksCTMatched(List<ReconstructedParticle[]> pairList) {
- // Store the set of track pairs that meet the Moller condition.
- List<ReconstructedParticle[]> mollerTracks = new ArrayList<ReconstructedParticle[]>();
-
- // Loop over the filtered pair list and apply the Moller
- // condition test.
- mollerLoop:
- for(ReconstructedParticle[] pair : pairList) {
- // Both tracks must be negatively charged.
- if(pair[0].getCharge() > 0 || pair[1].getCharge() > 0) {
- continue mollerLoop;
- }
-
- // The clusters must within a limited time window.
- /*
- Cluster[] trackClusters = { pair[0].getClusters().get(0), pair[1].getClusters().get(0) };
- if(TriggerModule.getValueTimeCoincidence(trackClusters) > timeCoincidence) {
- continue mollerLoop;
- }
- */
-
- // The clusters must be coincidental within an energy
- // dependent coincidence window.
- Cluster[] trackClusters = { pair[0].getClusters().get(0), pair[1].getClusters().get(0) };
- if(!isCoincidental(trackClusters)) {
- continue mollerLoop;
- }
-
- // Require that the electrons in the pair have energies
- // below the elastic threshold to exclude said electrons.
- if(pair[0].getMomentum().magnitude() > elasticThreshold || pair[1].getMomentum().magnitude() > elasticThreshold) {
- continue mollerLoop;
- }
-
- // Require that the energy of the pair be within a range
- // that is sufficiently "Moller-like."
- double momentumSum = VecOp.add(pair[0].getMomentum(), pair[1].getMomentum()).magnitude();
- if(momentumSum < mollerLowerRange || momentumSum > mollerUpperRange) {
- continue mollerLoop;
- }
-
- // Require that all clusters occur within the trigger time
- // window to exclude accidentals.
- if(checkTriggerTimeWindow) {
- if(!inTriggerWindow(trackClusters[0]) || !inTriggerWindow(trackClusters[1])) {
- continue mollerLoop;
- }
- }
-
- // If all the above conditions are met, the pair is to be
- // considered a trident pair. Add it to the list.
- mollerTracks.add(pair);
- }
-
- // Return the list of pairs that passed the condition.
- return mollerTracks;
- }
-
- /**
- * Calculates the approximate invariant mass for a pair of tracks
- * from their momentum. This assumes that the particles are either
- * electrons or positrons, and thusly have a sufficiently small
- * mass term that it can be safely excluded.
- * @param pair - The track pair for which to calculate the invariant
- * mass.
- * @return Returns the approximate invariant mass in units of GeV.
- */
- private static final double getInvariantMass(ReconstructedParticle[] pair) {
- // Get the momentum squared.
- double p2 = Math.pow(pair[0].getMomentum().magnitude() + pair[1].getMomentum().magnitude(), 2);
-
- // Get the remaining terms.
- double xPro = pair[0].getMomentum().x() + pair[1].getMomentum().x();
- double yPro = pair[0].getMomentum().y() + pair[1].getMomentum().y();
- double zPro = pair[0].getMomentum().z() + pair[1].getMomentum().z();
-
- // Calculate the invariant mass.
- return Math.sqrt(p2 - Math.pow(xPro, 2) - Math.pow(yPro, 2) - Math.pow(zPro, 2));
- }
-
- /**
- * Calculates the coplanarity angle between two points, specified
- * by a double array. The array must be of the format (x, y, z).
- * @param position - The first position array.
- * @param otherPosition - The second position array.
- * @return Returns the coplanarity angle between the points in units
- * of degrees.
- */
- private static final double getCalculatedCoplanarity(double[] position, double[] otherPosition) {
- // Define the x- and y-coordinates of the clusters as well as
- // calorimeter center.
- final double ORIGIN_X = 42.52;
- double x[] = { position[0], otherPosition[0] };
- double y[] = { position[1], otherPosition[1] };
-
+ if(!event.hasCollection(ReconstructedParticle.class, particleCollectionName)) {
+ return;
+ }
+ List<ReconstructedParticle> trackList = event.get(ReconstructedParticle.class, particleCollectionName);
+
+ // Check if the event has a collection of clusters. If it
+ // exists, extract it. Otherwise, skip the event.
+ if(!event.hasCollection(Cluster.class, clusterCollectionName)) {
+ return;
+ }
+ List<Cluster> clusterList = event.get(Cluster.class, clusterCollectionName);
+
+ // Check if a trident candidate collection exists, and obtain
+ // it if so. Continue with the event if it does not.
+ List<ReconstructedParticle> tridentCandidates = null;
+ if(event.hasCollection(ReconstructedParticle.class, tridentCollectionName)) {
+ tridentCandidates = event.get(ReconstructedParticle.class, tridentCollectionName);
+ } else {
+ tridentCandidates = new ArrayList<ReconstructedParticle>(0);
+ }
+
+ // Check if a Møller candidate collection exists, and obtain
+ // it if so. Continue with the event if it does not.
+ List<ReconstructedParticle> møllerCandidates = null;
+ if(event.hasCollection(ReconstructedParticle.class, møllerCollectionName)) {
+ møllerCandidates = event.get(ReconstructedParticle.class, møllerCollectionName);
+ } else {
+ møllerCandidates = new ArrayList<ReconstructedParticle>(0);
+ }
+
+ // Get cluster-track matched top/bottom pairs.
+ List<ReconstructedParticle[]> gblMatchedPairs = getTopBottomTracksGBL(trackList);
+ List<ReconstructedParticle[]> ctMatchedPairs = getTopBottomTracksCTMatched(trackList);
+
+ // Get the trident and Møller tracks for the matched track
+ // and cluster pair condition sets.
+ List<ReconstructedParticle[]> møllers = getMøllerTracksCTMatched(ctMatchedPairs);
+ List<ReconstructedParticle[]> møllersGBL = getMøllerTracksGBL(gblMatchedPairs, event);
+ List<ReconstructedParticle[]> tridents = getTridentTracksCTMatched(ctMatchedPairs);
+ List<ReconstructedParticle[]> tridentsVTX = getTridentTracksVertexed(tridentCandidates);
+ List<ReconstructedParticle[]> møllersVTX = getMøllerTracksVertexed(møllerCandidates);
+ List<ReconstructedParticle[]> tridentsGBL = getTridentClustersGBL(gblMatchedPairs, TriggerModule.getTopBottomPairs(clusterList, Cluster.class), event);
+
+ // Track how many events had tridents and Møllers.
+ if(!møllers.isEmpty()) { møllersProcessed++; }
+ if(!tridents.isEmpty()) { tridentsProcessed++; }
+ if(!møllersGBL.isEmpty()) { gblMøllersProcessed++; }
+ if(!tridentsGBL.isEmpty()) { gblTridentsProcessed++; }
+ if(!møllersVTX.isEmpty()) { vertexedMøllersProcessed++; }
+ if(!tridentsVTX.isEmpty()) { vertexedTridentsProcessed++; }
+
+ // Get the SSP clusters.
+ if(event.hasCollection(GenericObject.class, bankCollectionName)) {
+ // Get the bank list.
+ List<GenericObject> bankList = event.get(GenericObject.class, bankCollectionName);
+
+ // Check for simulated triggers. If they exist, populate the
+ // trigger tracking variables.
+ for(GenericObject obj : bankList) {
+ if(AbstractIntData.getTag(obj) == TIData.BANK_TAG) {
+ TIData tiBank = new TIData(obj);
+
+ // Establish which triggers were active.
+ boolean isPulser = tiBank.isPulserTrigger();
+ boolean isPair0 = tiBank.isPair0Trigger();
+ boolean isPair1 = tiBank.isPair1Trigger();
+ boolean isSingles0 = tiBank.isSingle0Trigger();
+ boolean isSingles1 = tiBank.isSingle1Trigger();
+
+ // Populate the appropriate trigger tracking variables.
+ triggerActiveEvents++;
+ if(!møllers.isEmpty()) {
+ ctmTriggerMøllers[isPulser ? 1 : 0][isSingles0 ? 1 : 0][isSingles1 ? 1 : 0][isPair0 ? 1 : 0][isPair1 ? 1 : 0]++;
+ } if(!tridents.isEmpty()) {
+ ctmTriggerTridents[isPulser ? 1 : 0][isSingles0 ? 1 : 0][isSingles1 ? 1 : 0][isPair0 ? 1 : 0][isPair1 ? 1 : 0]++;
+ } if(!møllersVTX.isEmpty()) {
+ vtxTriggerMøllers[isPulser ? 1 : 0][isSingles0 ? 1 : 0][isSingles1 ? 1 : 0][isPair0 ? 1 : 0][isPair1 ? 1 : 0]++;
+ } if(!tridentsVTX.isEmpty()) {
+ vtxTriggerTridents[isPulser ? 1 : 0][isSingles0 ? 1 : 0][isSingles1 ? 1 : 0][isPair0 ? 1 : 0][isPair1 ? 1 : 0]++;
+ }
+ }
+ }
+ }
+
+ // Produce Møller cluster-track matched plots.
+ møctmInstancesInEvent.fill(møllers.size());
+ for(ReconstructedParticle[] pair : møllers) {
+ // Get the track clusters.
+ Track[] tracks = { pair[0].getTracks().get(0), pair[1].getTracks().get(0) };
+ Cluster[] trackClusters = { pair[0].getClusters().get(0), pair[1].getClusters().get(0) };
+
+ // Populate the cluster plots.
+ møctmElectronEnergy.fill(trackClusters[0].getEnergy());
+ møctmElectronEnergy.fill(trackClusters[1].getEnergy());
+ møctmEnergySum1D.fill(TriggerModule.getValueEnergySum(trackClusters));
+ møctmEnergySum2D.fill(trackClusters[0].getEnergy(), trackClusters[1].getEnergy());
+ møctmESumCoplanarity.fill(TriggerModule.getValueEnergySum(trackClusters), getCalculatedCoplanarity(trackClusters));
+ møctmTimeCoincidence.fill(TriggerModule.getClusterTime(trackClusters[0]) - TriggerModule.getClusterTime(trackClusters[1]));
+ møctmClusterPosition.fill(TriggerModule.getClusterXIndex(trackClusters[0]), TriggerModule.getClusterYIndex(trackClusters[0]));
+ møctmClusterPosition.fill(TriggerModule.getClusterXIndex(trackClusters[1]), TriggerModule.getClusterYIndex(trackClusters[1]));
+
+ // Populate the momentum plots.
+ møctmInvariantMass.fill(getInvariantMass(pair));
+ møctmElectronMomentum.fill(pair[0].getMomentum().magnitude());
+ møctmElectronMomentum.fill(pair[1].getMomentum().magnitude());
+ møctmMomentumSum1D.fill(VecOp.add(pair[0].getMomentum(), pair[1].getMomentum()).magnitude());
+ møctmMomentumSum2D.fill(pair[0].getMomentum().magnitude(), pair[1].getMomentum().magnitude());
+ møctmTrackPosition.fill(TrackUtils.getTrackPositionAtEcal(tracks[0]).x(), TrackUtils.getTrackPositionAtEcal(tracks[0]).y());
+ møctmTrackPosition.fill(TrackUtils.getTrackPositionAtEcal(tracks[1]).x(), TrackUtils.getTrackPositionAtEcal(tracks[1]).y());
+ møctmPSumCoplanarity.fill(VecOp.add(pair[0].getMomentum(), pair[1].getMomentum()).magnitude(),
+ getCalculatedCoplanarity(new Track[] { pair[0].getTracks().get(0), pair[1].getTracks().get(0) }));
+ }
+
+ // Produce trident cluster-track matched plots.
+ trctmInstancesInEvent.fill(tridents.size());
+ for(ReconstructedParticle[] pair : tridents) {
+ // Get the electron and positron tracks.
+ ReconstructedParticle electronTrack = pair[pair[0].getCharge() < 0 ? 0 : 1];
+ ReconstructedParticle positronTrack = pair[pair[0].getCharge() > 0 ? 0 : 1];
+
+ // Get the track clusters.
+ Cluster electronCluster = electronTrack.getClusters().get(0);
+ Cluster positronCluster = positronTrack.getClusters().get(0);
+ Track[] tracks = { pair[0].getTracks().get(0), pair[1].getTracks().get(0) };
+ Cluster[] trackClusters = { pair[0].getClusters().get(0), pair[1].getClusters().get(0) };
+
+ // Populate the cluster plots.
+ trctmElectronEnergy.fill(electronCluster.getEnergy());
+ trctmPositronEnergy.fill(positronCluster.getEnergy());
+ trctmEnergySum2D.fill(pair[0].getEnergy(), pair[1].getEnergy());
+ trctmEnergySum1D.fill(TriggerModule.getValueEnergySum(trackClusters));
+ trctmESumCoplanarity.fill(TriggerModule.getValueEnergySum(trackClusters), getCalculatedCoplanarity(trackClusters));
+ trctmTimeCoincidence.fill(TriggerModule.getClusterTime(trackClusters[0]) - TriggerModule.getClusterTime(trackClusters[1]));
+ trctmClusterPosition.fill(TriggerModule.getClusterXIndex(trackClusters[0]), TriggerModule.getClusterYIndex(trackClusters[0]));
+ trctmClusterPosition.fill(TriggerModule.getClusterXIndex(trackClusters[1]), TriggerModule.getClusterYIndex(trackClusters[1]));
+
+ // Populate the momentum plots.
+ trctmInvariantMass.fill(getInvariantMass(pair));
+ trctmElectronMomentum.fill(electronTrack.getMomentum().magnitude());
+ trctmPositronMomentum.fill(positronTrack.getMomentum().magnitude());
+ trctmMomentumSum1D.fill(VecOp.add(pair[0].getMomentum(), pair[1].getMomentum()).magnitude());
+ trctmMomentumSum2D.fill(pair[0].getMomentum().magnitude(), pair[1].getMomentum().magnitude());
+ trctmTrackPosition.fill(TrackUtils.getTrackPositionAtEcal(tracks[0]).x(), TrackUtils.getTrackPositionAtEcal(tracks[0]).y());
+ trctmTrackPosition.fill(TrackUtils.getTrackPositionAtEcal(tracks[1]).x(), TrackUtils.getTrackPositionAtEcal(tracks[1]).y());
+ trctmPSumCoplanarity.fill(VecOp.add(pair[0].getMomentum(), pair[1].getMomentum()).magnitude(),
+ getCalculatedCoplanarity(new Track[] { pair[0].getTracks().get(0), pair[1].getTracks().get(0) }));
+ }
+
+ // Produce trident vertexed plots.
+ trvtxInstancesInEvent.fill(tridentsVTX.size());
+ for(ReconstructedParticle[] pair : tridentsVTX) {
+ // Get the electron and positron tracks.
+ ReconstructedParticle electronTrack = pair[pair[0].getCharge() < 0 ? 0 : 1];
+ ReconstructedParticle positronTrack = pair[pair[0].getCharge() > 0 ? 0 : 1];
+
+ // Get the track clusters.
+ Cluster electronCluster = electronTrack.getClusters().get(0);
+ Cluster positronCluster = positronTrack.getClusters().get(0);
+ Track[] tracks = { pair[0].getTracks().get(0), pair[1].getTracks().get(0) };
+ Cluster[] trackClusters = { pair[0].getClusters().get(0), pair[1].getClusters().get(0) };
+
+ // Populate the cluster plots.
+ trvtxElectronEnergy.fill(electronCluster.getEnergy());
+ trvtxPositronEnergy.fill(positronCluster.getEnergy());
+ trvtxEnergySum2D.fill(pair[0].getEnergy(), pair[1].getEnergy());
+ trvtxEnergySum1D.fill(TriggerModule.getValueEnergySum(trackClusters));
+ trvtxESumCoplanarity.fill(TriggerModule.getValueEnergySum(trackClusters), getCalculatedCoplanarity(trackClusters));
+ trvtxTimeCoincidence.fill(TriggerModule.getClusterTime(trackClusters[0]) - TriggerModule.getClusterTime(trackClusters[1]));
+ trvtxClusterPosition.fill(TriggerModule.getClusterXIndex(trackClusters[0]), TriggerModule.getClusterYIndex(trackClusters[0]));
+ trvtxClusterPosition.fill(TriggerModule.getClusterXIndex(trackClusters[1]), TriggerModule.getClusterYIndex(trackClusters[1]));
+
+ // Populate the momentum plots.
+ trvtxInvariantMass.fill(getInvariantMass(pair));
+ trvtxElectronMomentum.fill(electronTrack.getMomentum().magnitude());
+ trvtxPositronMomentum.fill(positronTrack.getMomentum().magnitude());
+ trvtxMomentumSum1D.fill(VecOp.add(pair[0].getMomentum(), pair[1].getMomentum()).magnitude());
+ trvtxMomentumSum2D.fill(pair[0].getMomentum().magnitude(), pair[1].getMomentum().magnitude());
+ trvtxTrackPosition.fill(TrackUtils.getTrackPositionAtEcal(tracks[0]).x(), TrackUtils.getTrackPositionAtEcal(tracks[0]).y());
+ trvtxTrackPosition.fill(TrackUtils.getTrackPositionAtEcal(tracks[1]).x(), TrackUtils.getTrackPositionAtEcal(tracks[1]).y());
+ trvtxPSumCoplanarity.fill(VecOp.add(pair[0].getMomentum(), pair[1].getMomentum()).magnitude(),
+ getCalculatedCoplanarity(new Track[] { pair[0].getTracks().get(0), pair[1].getTracks().get(0) }));
+ }
+
+ // Produce the Møller vertexed plots.
+ møvtxInstancesInEvent.fill(møllersVTX.size());
+ RelationalTable<?, ?> hitToStrips = TrackUtils.getHitToStripsTable(event);
+ RelationalTable<?, ?> hitToRotated = TrackUtils.getHitToRotatedTable(event);
+ for(ReconstructedParticle pair[] : møllersVTX) {
+ // Get the tracks and track times.
+ Track[] tracks = { pair[0].getTracks().get(0), pair[1].getTracks().get(0) };
+ double times[] = {
+ TrackUtils.getTrackTime(tracks[0], hitToStrips, hitToRotated),
+ TrackUtils.getTrackTime(tracks[1], hitToStrips, hitToRotated)
+ };
+
+ // Fill the plots.
+ møvtxTimeCoincidence.fill(times[0] - times[1]);
+ møvtxInvariantMass.fill(getInvariantMass(pair));
+ møvtxElectronMomentum.fill(pair[0].getMomentum().magnitude());
+ møvtxElectronMomentum.fill(pair[1].getMomentum().magnitude());
+ møvtxMomentumSum1D.fill(VecOp.add(pair[0].getMomentum(), pair[1].getMomentum()).magnitude());
+ møvtxMomentumSum2D.fill(pair[0].getMomentum().magnitude(), pair[1].getMomentum().magnitude());
+ møvtxTrackPosition.fill(TrackUtils.getTrackPositionAtEcal(tracks[0]).x(), TrackUtils.getTrackPositionAtEcal(tracks[0]).y());
+ møvtxTrackPosition.fill(TrackUtils.getTrackPositionAtEcal(tracks[1]).x(), TrackUtils.getTrackPositionAtEcal(tracks[1]).y());
+ møvtxPSumCoplanarity.fill(VecOp.add(pair[0].getMomentum(), pair[1].getMomentum()).magnitude(),
+ getCalculatedCoplanarity(new Track[] { pair[0].getTracks().get(0), pair[1].getTracks().get(0) }));
+ }
+
+ // Produce the Møller track-only plots.
+ møgblInstancesInEvent.fill(møllersGBL.size());
+ for(ReconstructedParticle pair[] : møllersGBL) {
+ // Get the tracks and track times.
+ Track[] tracks = { pair[0].getTracks().get(0), pair[1].getTracks().get(0) };
+ double times[] = {
+ TrackUtils.getTrackTime(tracks[0], hitToStrips, hitToRotated),
+ TrackUtils.getTrackTime(tracks[1], hitToStrips, hitToRotated)
+ };
+
+ // Fill the plots.
+ møgblTimeCoincidence.fill(times[0] - times[1]);
+ møgblInvariantMass.fill(getInvariantMass(pair));
+ møgblElectronMomentum.fill(pair[0].getMomentum().magnitude());
+ møgblElectronMomentum.fill(pair[1].getMomentum().magnitude());
+ møgblMomentumSum1D.fill(VecOp.add(pair[0].getMomentum(), pair[1].getMomentum()).magnitude());
+ møgblMomentumSum2D.fill(pair[0].getMomentum().magnitude(), pair[1].getMomentum().magnitude());
+ møgblTrackPosition.fill(TrackUtils.getTrackPositionAtEcal(tracks[0]).x(), TrackUtils.getTrackPositionAtEcal(tracks[0]).y());
+ møgblTrackPosition.fill(TrackUtils.getTrackPositionAtEcal(tracks[1]).x(), TrackUtils.getTrackPositionAtEcal(tracks[1]).y());
+ møgblPSumCoplanarity.fill(VecOp.add(pair[0].getMomentum(), pair[1].getMomentum()).magnitude(),
+ getCalculatedCoplanarity(new Track[] { pair[0].getTracks().get(0), pair[1].getTracks().get(0) }));
+ }
+
+ // Produce track-only trident plots.
+ trgblInstancesInEvent.fill(tridentsGBL.size());
+ for(ReconstructedParticle[] pair : tridentsGBL) {
+ // Get the tracks and track times.
+ Track[] tracks = { pair[0].getTracks().get(0), pair[1].getTracks().get(0) };
+ double times[] = {
+ TrackUtils.getTrackTime(tracks[0], hitToStrips, hitToRotated),
+ TrackUtils.getTrackTime(tracks[1], hitToStrips, hitToRotated)
+ };
+
+ // Get the positron and the electron.
+ ReconstructedParticle positron = pair[0].getCharge() > 0 ? pair[0] : pair[1];
+ ReconstructedParticle electron = pair[0].getCharge() < 0 ? pair[0] : pair[1];
+
+ // Fill the plots.
+ trgblTimeCoincidence.fill(times[0] - times[1]);
+ trgblInvariantMass.fill(getInvariantMass(pair));
+ trgblElectronMomentum.fill(electron.getMomentum().magnitude());
+ trgblPositronMomentum.fill(positron.getMomentum().magnitude());
+ trgblMomentumSum1D.fill(VecOp.add(pair[0].getMomentum(), pair[1].getMomentum()).magnitude());
+ trgblMomentumSum2D.fill(pair[0].getMomentum().magnitude(), pair[1].getMomentum().magnitude());
+ trgblTrackPosition.fill(TrackUtils.getTrackPositionAtEcal(tracks[0]).x(), TrackUtils.getTrackPositionAtEcal(tracks[0]).y());
+ trgblTrackPosition.fill(TrackUtils.getTrackPositionAtEcal(tracks[1]).x(), TrackUtils.getTrackPositionAtEcal(tracks[1]).y());
+ trgblPSumCoplanarity.fill(VecOp.add(pair[0].getMomentum(), pair[1].getMomentum()).magnitude(),
+ getCalculatedCoplanarity(new Track[] { pair[0].getTracks().get(0), pair[1].getTracks().get(0) }));
+ }
+ }
+
+ public void setCheckSVT(boolean state) {
+ checkSVT = state;
+ }
+
+ public void setCheckTriggerTimeWindow(boolean state) {
+ checkTriggerTimeWindow = state;
+ }
+
+ /**
+ * Gets a list of all possible GBL top/bottom track pairs. These
+ * tracks are not guaranteed to have a matched cluster.
+ * @param trackList - A list of all possible tracks.
+ * @return Returns a list of track pairs.
+ */
+ private static final List<ReconstructedParticle[]> getTopBottomTracksGBL(List<ReconstructedParticle> trackList) {
+ // Separate the tracks into top and bottom tracks based on
+ // the value of tan(Î). Use only GBL tracks to avoid track
+ // duplication.
+ List<ReconstructedParticle> topTracks = new ArrayList<ReconstructedParticle>();
+ List<ReconstructedParticle> botTracks = new ArrayList<ReconstructedParticle>();
+ trackLoop:
+ for(ReconstructedParticle track : trackList) {
+ // Require that the ReconstructedParticle contain an actual
+ // Track object.
+ if(track.getTracks().isEmpty()) {
+ continue trackLoop;
+ }
+
+ // Ignore tracks that are not GBL tracks.
+ if(!TrackType.isGBL(track.getType())) {
+ continue trackLoop;
+ }
+
+ // If the above tests pass, the ReconstructedParticle has
+ // a track and is also a GBL track. Separate it into either
+ // a top or a bottom track based on its tan(Î) value.
+ if(track.getTracks().get(0).getTrackStates().get(0).getTanLambda() > 0) {
+ topTracks.add(track);
+ } else {
+ botTracks.add(track);
+ }
+ }
+
+ // Form all top/bottom pairs with the unique tracks.
+ List<ReconstructedParticle[]> pairList = new ArrayList<ReconstructedParticle[]>();
+ for(ReconstructedParticle topTrack : topTracks) {
+ for(ReconstructedParticle botTrack : botTracks) {
+ pairList.add(new ReconstructedParticle[] { topTrack, botTrack });
+ }
+ }
+
+ // Return the result.
+ return pairList;
+ }
+
+ /**
+ * Produces pairs of tracks. The track pairs are required to be
+ * matched to a cluster and the associated clusters must form a
+ * top/bottom pair. If more than one track points to the same
+ * cluster, only the first track is retained.
+ * @param trackList - A list of all tracks.
+ * @return Returns a list of track pairs meeting the aforementioned
+ * conditions.
+ */
+ private static final List<ReconstructedParticle[]> getTopBottomTracksCTMatched(List<ReconstructedParticle> trackList) {
+ // Track clusters that have already been seen to prevent clusters
+ // that have duplicate tracks from reappearing.
+ Set<Cluster> clusterSet = new HashSet<Cluster>();
+
+ // Separate the tracks into top and bottom tracks based on
+ // the track cluster. Filter out tracks with no clusters.
+ List<ReconstructedParticle> topTracks = new ArrayList<ReconstructedParticle>();
+ List<ReconstructedParticle> botTracks = new ArrayList<ReconstructedParticle>();
+ trackLoop:
+ for(ReconstructedParticle track : trackList) {
+ // Check if the track has a cluster. If not, skip it.
+ if(track.getClusters().isEmpty()) {
+ continue trackLoop;
+ }
+
+ // If the track doesn't have actual tracks, skip it.
+ if(track.getTracks().isEmpty()) {
+ continue trackLoop;
+ }
+
+ // Check if the track cluster has already seen.
+ Cluster trackCluster = track.getClusters().get(0);
+ if(clusterSet.contains(trackCluster)) {
+ continue trackLoop;
+ }
+
+ // If the track has a unique cluster, add it to the proper
+ // list based on the cluster y-index.
+ clusterSet.add(trackCluster);
+ if(TriggerModule.getClusterYIndex(trackCluster) > 0) {
+ topTracks.add(track);
+ } else {
+ botTracks.add(track);
+ }
+ }
+
+ // Form all top/bottom pairs with the unique tracks.
+ List<ReconstructedParticle[]> pairList = new ArrayList<ReconstructedParticle[]>();
+ for(ReconstructedParticle topTrack : topTracks) {
+ for(ReconstructedParticle botTrack : botTracks) {
+ pairList.add(new ReconstructedParticle[] { topTrack, botTrack });
+ }
+ }
+
+ // Return the result.
+ return pairList;
+ }
+
+ private final List<ReconstructedParticle[]> getTridentTracksVertexed(List<ReconstructedParticle> candidateList) {
+ // Store the set of track pairs that meet the trident condition.
+ List<ReconstructedParticle[]> tridentTracks = new ArrayList<ReconstructedParticle[]>();
+
+ // Loop over the filtered pair list and apply the trident
+ // condition test.
+ tridentLoop:
+ for(ReconstructedParticle candidate : candidateList) {
+ // Require that the vertex fit have a X^2 value of less
+ // than 25.
+ trvtxChiSquared.fill(candidate.getStartVertex().getChi2());
+ if(candidate.getStartVertex().getChi2() > 10) {
+ continue tridentLoop;
+ }
+
+ // Make sure that each particle is track/cluster matched.
+ ReconstructedParticle[] pair = {
+ candidate.getParticles().get(0),
+ candidate.getParticles().get(1)
+ };
+ if(pair[0].getTracks().isEmpty() || pair[0].getClusters().isEmpty()) {
+ continue tridentLoop;
+ }
+ if(pair[1].getTracks().isEmpty() || pair[1].getClusters().isEmpty()) {
+ continue tridentLoop;
+ }
+
+ // Make sure there is a top/bottom cluster pair.
+ Cluster[] trackClusters = { pair[0].getClusters().get(0), pair[1].getClusters().get(0) };
+ boolean hasTop = TriggerModule.getClusterYIndex(trackClusters[0]) > 0 || TriggerModule.getClusterYIndex(trackClusters[1]) > 0;
+ boolean hasBot = TriggerModule.getClusterYIndex(trackClusters[0]) < 0 || TriggerModule.getClusterYIndex(trackClusters[1]) < 0;
+ if(!hasTop || !hasBot) {
+ continue tridentLoop;
+ }
+
+ // There must be one positive and one negative track.
+ ReconstructedParticle electron = null;
+ ReconstructedParticle positron = null;
+ if(pair[0].getCharge() > 0) { positron = pair[0]; }
+ else if(pair[1].getCharge() > 0) { positron = pair[1]; }
+ if(pair[0].getCharge() < 0) { electron = pair[0]; }
+ else if(pair[1].getCharge() < 0) { electron = pair[1]; }
+ if(electron == null || positron == null) {
+ continue tridentLoop;
+ }
+
+ // Make sure that the clusters are not the same. This should
+ // not actually ever be possible...
+ if(pair[0].getClusters().get(0) == pair[1].getClusters().get(0)) {
+ continue tridentLoop;
+ }
+
+ // The clusters must within a limited time window.
+ if(TriggerModule.getValueTimeCoincidence(trackClusters) > timeCoincidence) {
+ continue tridentLoop;
+ }
+
+ // Require that the electron in the pair have an energy
+ // below the elastic threshold to exclude elastic electrons.
+ if(electron.getMomentum().magnitude() >= elasticThreshold) {
+ continue tridentLoop;
+ }
+
+ // Require that all clusters occur within the trigger time
+ // window to exclude accidentals.
+ if(checkTriggerTimeWindow) {
+ if(!inTriggerWindow(trackClusters[0]) || !inTriggerWindow(trackClusters[1])) {
+ continue tridentLoop;
+ }
+ }
+
+ // If all the above conditions are met, the pair is to be
+ // considered a trident pair. Add it to the list.
+ tridentTracks.add(pair);
+ }
+
+ // Return the list of pairs that passed the condition.
+ return tridentTracks;
+ }
+
+ private final List<ReconstructedParticle[]> getTridentClustersGBL(List<ReconstructedParticle[]> pairList, List<Cluster[]> clusterList, EventHeader event) {
+ // Store the set of track pairs that meet the trident condition.
+ List<ReconstructedParticle[]> tridentTracks = new ArrayList<ReconstructedParticle[]>();
+
+ // Extract track relational tables from the event object.
+ RelationalTable<?, ?> hitToStrips = TrackUtils.getHitToStripsTable(event);
+ RelationalTable<?, ?> hitToRotated = TrackUtils.getHitToRotatedTable(event);
+
+ // Tracks will not be considered for trident analysis unless there
+ // is at least one top/bottom cluster pair within the time window.
+ boolean passesClusterCondition = false;
+ tridentClusterLoop:
+ for(Cluster[] pair : clusterList) {
+ // Ignore clusters that are too far apart temporally.
+ if(TriggerModule.getValueTimeCoincidence(pair) > timeCoincidence) {
+ continue tridentClusterLoop;
+ }
+
+ // Require that the cluster pair be top/bottom.
+ boolean hasTop = TriggerModule.getClusterYIndex(pair[0]) > 0 || TriggerModule.getClusterYIndex(pair[1]) > 0;
+ boolean hasBot = TriggerModule.getClusterYIndex(pair[0]) < 0 || TriggerModule.getClusterYIndex(pair[1]) < 0;
+ if(!hasTop || !hasBot) {
+ continue tridentClusterLoop;
+ }
+
+ // If the cluster passes, mark that it has done so and skip
+ // the rest. Only one pair need pass.
+ passesClusterCondition = true;
+ break tridentClusterLoop;
+ }
+
+ // If no cluster pair passed the cluster condition, no tracks
+ // are allowed to pass either.
+ if(!passesClusterCondition) {
+ return tridentTracks;
+ }
+
+ // Next, check the track pair list. A track pair must have a
+ // positive and a negative track and must also be within the
+ // time coincidence window.
+ tridentTrackLoop:
+ for(ReconstructedParticle[] pair : pairList) {
+ // Check that there is at least one positive and one negative
+ // track in the pair.
+ boolean hasPositive = pair[0].getCharge() > 0 || pair[1].getCharge() > 0;
+ boolean hasNegative = pair[0].getCharge() < 0 || pair[1].getCharge() < 0;
+ if(!hasPositive || !hasNegative) {
+ break tridentTrackLoop;
+ }
+
+ // Check that the track pair passes the time cut.
+ double times[] = {
+ TrackUtils.getTrackTime(pair[0].getTracks().get(0), hitToStrips, hitToRotated),
+ TrackUtils.getTrackTime(pair[1].getTracks().get(0), hitToStrips, hitToRotated)
+ };
+
+ if(Math.abs(times[0] - times[1]) > timeCoincidence) {
+ continue tridentTrackLoop;
+ }
+
+ // Require that the negative track have less than the
+ // elastic threshold momentum to exclude elastic electrons.
+ if(pair[0].getCharge() < 0 && pair[0].getMomentum().magnitude() > elasticThreshold
+ || pair[1].getCharge() < 0 && pair[1].getMomentum().magnitude() > elasticThreshold) {
+ continue tridentTrackLoop;
+ }
+
+ // If the track passes both, it is considered a trident pair.
+ tridentTracks.add(pair);
+ }
+
+ // Return the resultant pairs.
+ return tridentTracks;
+ }
+
+ /**
+ * Gets a list track pairs that meet the trident condition defined
+ * using tracks with matched calorimeter clusters. A pair meets the
+ * cluster/track matched trident condition is it meets the following:
+ * <ul><li>Both tracks have matched clusters.</li>
+ * <li>Has one positive track.</li>
+ * <li>Has one negative track.</li>
+ * <li>Clusters have a time coincidence of 2.5 ns or less.</li>
+ * <li>The electron momentum is below 900 MeV.</li></ul>
+ * @param pairList - A <code>List</code> collection of parameterized
+ * type <code>ReconstructedParticle[]</code> containing all valid
+ * top/bottom pairs of tracks with matched clusters. These will be
+ * tested to see if they meet the process criteria.
+ * @return Returns a list containing pairs of tracks that meet the
+ * trident condition.
+ */
+ private final List<ReconstructedParticle[]> getTridentTracksCTMatched(List<ReconstructedParticle[]> pairList) {
+ // Store the set of track pairs that meet the trident condition.
+ List<ReconstructedParticle[]> tridentTracks = new ArrayList<ReconstructedParticle[]>();
+
+ // Loop over the filtered pair list and apply the trident
+ // condition test.
+ tridentLoop:
+ for(ReconstructedParticle[] pair : pairList) {
+ // There must be one positive and one negative track.
+ ReconstructedParticle electron = null;
+ ReconstructedParticle positron = null;
+ if(pair[0].getCharge() > 0) { positron = pair[0]; }
+ else if(pair[1].getCharge() > 0) { positron = pair[1]; }
+ if(pair[0].getCharge() < 0) { electron = pair[0]; }
+ else if(pair[1].getCharge() < 0) { electron = pair[1]; }
+ if(electron == null || positron == null) {
+ continue tridentLoop;
+ }
+
+ // Make sure that the clusters are not the same. This should
+ // not actually ever be possible...
+ if(pair[0].getClusters().get(0) == pair[1].getClusters().get(0)) {
+ continue tridentLoop;
+ }
+
+ // The clusters must within a limited time window.
+ Cluster[] trackClusters = { pair[0].getClusters().get(0), pair[1].getClusters().get(0) };
+ if(TriggerModule.getValueTimeCoincidence(trackClusters) > timeCoincidence) {
+ continue tridentLoop;
+ }
+
+ // Require that the electron in the pair have an energy
+ // below the elastic threshold to exclude elastic electrons.
+ if(electron.getMomentum().magnitude() >= elasticThreshold) {
+ continue tridentLoop;
+ }
+
+ // Require that all clusters occur within the trigger time
+ // window to exclude accidentals.
+ if(checkTriggerTimeWindow) {
+ if(!inTriggerWindow(trackClusters[0]) || !inTriggerWindow(trackClusters[1])) {
+ continue tridentLoop;
+ }
+ }
+
+ // If all the above conditions are met, the pair is to be
+ // considered a trident pair. Add it to the list.
+ tridentTracks.add(pair);
+ }
+
+ // Return the list of pairs that passed the condition.
+ return tridentTracks;
+ }
+
+ private final List<ReconstructedParticle[]> getMøllerTracksGBL(List<ReconstructedParticle[]> pairList, EventHeader event) {
+ // Store the set of track pairs that meet the Møller condition.
+ List<ReconstructedParticle[]> møllerTracks = new ArrayList<ReconstructedParticle[]>();
+
+ // Extract track relational tables from the event object.
+ RelationalTable<?, ?> hitToStrips = TrackUtils.getHitToStripsTable(event);
+ RelationalTable<?, ?> hitToRotated = TrackUtils.getHitToRotatedTable(event);
+
+ // Loop over the filtered pair list and apply the Møller
+ // condition test.
+ møllerLoop:
+ for(ReconstructedParticle[] pair : pairList) {
+ // Both tracks must be negatively charged.
+ if(pair[0].getCharge() > 0 || pair[1].getCharge() > 0) {
+ continue møllerLoop;
+ }
+
+ // The clusters must within a limited time window.
+ double times[] = {
+ TrackUtils.getTrackTime(pair[0].getTracks().get(0), hitToStrips, hitToRotated),
+ TrackUtils.getTrackTime(pair[1].getTracks().get(0), hitToStrips, hitToRotated)
+ };
+
+ if(Math.abs(times[0] - times[1]) > timeCoincidence) {
+ continue møllerLoop;
+ }
+
+ // Require that the electrons in the pair have energies
+ // below the elastic threshold to exclude said electrons.
+ if(pair[0].getMomentum().magnitude() > elasticThreshold || pair[1].getMomentum().magnitude() > elasticThreshold) {
+ continue møllerLoop;
+ }
+
+ // Require that the energy of the pair be within a range
+ // that is sufficiently "Møller-like."
+ double momentumSum = VecOp.add(pair[0].getMomentum(), pair[1].getMomentum()).magnitude();
+ if(momentumSum < møllerLowerRange || momentumSum > møllerUpperRange) {
+ continue møllerLoop;
+ }
+
+ // If all the above conditions are met, the pair is to be
+ // considered a trident pair. Add it to the list.
+ møllerTracks.add(pair);
+ }
+
+ // Return the list of pairs that passed the condition.
+ return møllerTracks;
+ }
+
+ private final List<ReconstructedParticle[]> getMøllerTracksVertexed(List<ReconstructedParticle> candidateList) {
+ // Store the set of track pairs that meet the Møller condition.
+ List<ReconstructedParticle[]> møllerTracks = new ArrayList<ReconstructedParticle[]>();
+
+ // Loop over the candidate list and apply the Møller cuts.
+ møllerLoop:
+ for(ReconstructedParticle candidate : candidateList) {
+ // Require that the vertex fit have a X^2 value of less
+ // than 25.
+ if(candidate.getStartVertex().getChi2() > 10) {
+ continue møllerLoop;
+ }
+
+ // Make sure that each particle is track/cluster matched.
+ ReconstructedParticle[] pair = {
+ candidate.getParticles().get(0),
+ candidate.getParticles().get(1)
+ };
+ if(pair[0].getTracks().isEmpty() || pair[0].getClusters().isEmpty()) {
+ continue møllerLoop;
+ }
+ if(pair[1].getTracks().isEmpty() || pair[1].getClusters().isEmpty()) {
+ continue møllerLoop;
+ }
+
+ // Make sure there is a top/bottom cluster pair.
+ Cluster[] trackClusters = { pair[0].getClusters().get(0), pair[1].getClusters().get(0) };
+ boolean hasTop = TriggerModule.getClusterYIndex(trackClusters[0]) > 0 || TriggerModule.getClusterYIndex(trackClusters[1]) > 0;
+ boolean hasBot = TriggerModule.getClusterYIndex(trackClusters[0]) < 0 || TriggerModule.getClusterYIndex(trackClusters[1]) < 0;
+ if(!hasTop || !hasBot) {
+ continue møllerLoop;
+ }
+
+ // Require that the clusters be within the time coincidence.
+ if(TriggerModule.getValueTimeCoincidence(trackClusters) > timeCoincidence) {
+ continue møllerLoop;
+ }
+
+ // Require that both tracks have less than the elastic
+ // threshold in momentum.
+ if(pair[0].getMomentum().magnitude() > elasticThreshold || pair[1].getMomentum().magnitude() > elasticThreshold) {
+ continue møllerLoop;
+ }
+
+
+
+
+ // Variable definitions
+ double[] mom1 = pair[0].getMomentum().v();
+ double px1 = mom1[0];
+ double py1 = mom1[1];
+ double pz1 = mom1[2];
+
+ double unrot_px1 = px1*Math.cos(-0.0305) + pz1*Math.sin(-0.0305);
+ double unrot_pz1 = pz1*Math.cos(-0.0305) - px1*Math.sin(-0.0305);
+
+ double unrot_theta1 = Math.atan2(Math.sqrt(unrot_px1*unrot_px1 + py1*py1),unrot_pz1);
+ double TrackE1 = Math.sqrt(Math.sqrt(px1*px1 + py1*py1 + pz1*pz1)*Math.sqrt(px1*px1 + py1*py1 + pz1*pz1) + 0.0005109989*0.0005109989);
+
+
+ double[] mom2 = pair[1].getMomentum().v();
+ double px2 = mom2[0];
+ double py2 = mom2[1];
+ double pz2 = mom2[2];
+
+ double unrot_px2 = px2*Math.cos(-0.0305) + pz2*Math.sin(-0.0305);
+ double unrot_pz2 = pz2*Math.cos(-0.0305) - px2*Math.sin(-0.0305);
+
+ double unrot_theta2 = Math.atan2(Math.sqrt(unrot_px2*unrot_px2 + py2*py2),unrot_pz2);
+ double TrackE2 = Math.sqrt(Math.sqrt(px2*px2 + py2*py2 + pz2*pz2)*Math.sqrt(px2*px2 + py2*py2 + pz2*pz2) + 0.0005109989*0.0005109989);
+
+
+ // Ultimate Moller Cut
+ if((Math.sin(unrot_theta1/2)*Math.sin(unrot_theta2/2)<=(1+0.20)*0.5109989/(2*1056) && Math.sin(unrot_theta1/2)*Math.sin(unrot_theta2/2)>=(1-0.20)*0.5109989/(2*1056)) ) {
+ if( (TrackE1+TrackE2<=(1+0.10)*1.056 && TrackE1+TrackE2>=(1-0.10)*1.056) ) {
+
+
+
+
+ møllerTracks.add(pair);
+ }
+ }
+
+
+
+
+ /*
+ double[] trackE = new double[2];
+ double[] unrotTheta = new double[2];
+ double[][] unrotP = new double[2][3];
+ for(int i = 0; i < pair.length; i++) {
+ unrotP[i][0] = pair[i].getMomentum().x() * Math.cos(BEAM_ROTATION) + pair[i].getMomentum().z() * Math.sin(BEAM_ROTATION);
+ unrotP[i][2] = pair[i].getMomentum().z() * Math.cos(BEAM_ROTATION) - pair[i].getMomentum().x() * Math.sin(BEAM_ROTATION);
+ unrotTheta[i] = Math.atan2(Math.sqrt(unrotP[i][0] * unrotP[i][0] + pair[0].getMomentum().y() * pair[i].getMomentum().y()), unrotP[0][2]);
+ trackE[i] = Math.sqrt(pair[i].getMomentum().magnitudeSquared() + ELECTRON_MASS_2);
+ }
+
+ // Perform the track angle threshold cuts.
+ double unrotatedTheta = Math.sin(unrotTheta[0] / 2) * Math.sin(unrotTheta[1] / 2);
+ if((unrotatedTheta <= MÃLLER_ANGLE_THRESHOLD[HIGH] && unrotatedTheta >= MÃLLER_ANGLE_THRESHOLD[LOW])) {
+ // Perform the track energy sum threshold cuts.
+ double trackESum = trackE[0] + trackE[1];
+ if((trackESum <= MÃLLER_ENERGY_THRESHOLD[HIGH] && trackESum >= MÃLLER_ENERGY_THRESHOLD[LOW])) {
+ // If a pair passes all the Møller cuts, then it
+ // is a Møller pair.
+ møllerTracks.add(pair);
+ }
+ }
+ */
+ }
+
+ // Return the Møller list.
+ return møllerTracks;
+ }
+
+ /**
+ * Gets a list track pairs that meet the Møller condition defined
+ * using tracks with matched calorimeter clusters. A pair meets the
+ * cluster/track matched Møller condition is it meets the following:
+ * <ul><li>Both tracks have matched clusters.</li>
+ * <li>Both tracks are negative.</li>
+ * <li>Clusters have a time coincidence of 2.5 ns or less.</li>
+ * <li>The electron momenta are below 900 MeV.</li>
+ * <li>The momentum sum of the tracks is in the range <code>800 MeV
+ * ⤠p1 + p2 ⤠1500 MeV</li></ul>
+ * @param pairList - A <code>List</code> collection of parameterized
+ * type <code>ReconstructedParticle[]</code> containing all valid
+ * top/bottom pairs of tracks with matched clusters. These will be
+ * tested to see if they meet the process criteria.
+ * @return Returns a list containing pairs of tracks that meet the
+ * Møller condition.
+ */
+ private final List<ReconstructedParticle[]> getMøllerTracksCTMatched(List<ReconstructedParticle[]> pairList) {
+ // Store the set of track pairs that meet the Møller condition.
+ List<ReconstructedParticle[]> møllerTracks = new ArrayList<ReconstructedParticle[]>();
+
+ // Loop over the filtered pair list and apply the Møller
+ // condition test.
+ møllerLoop:
+ for(ReconstructedParticle[] pair : pairList) {
+ // Both tracks must be negatively charged.
+ if(pair[0].getCharge() > 0 || pair[1].getCharge() > 0) {
+ continue møllerLoop;
+ }
+
+ // The clusters must within a limited time window.
+ Cluster[] trackClusters = { pair[0].getClusters().get(0), pair[1].getClusters().get(0) };
+ if(TriggerModule.getValueTimeCoincidence(trackClusters) > timeCoincidence) {
+ continue møllerLoop;
+ }
+
+ // Require that the electrons in the pair have energies
+ // below the elastic threshold to exclude said electrons.
+ if(pair[0].getMomentum().magnitude() > elasticThreshold || pair[1].getMomentum().magnitude() > elasticThreshold) {
+ continue møllerLoop;
+ }
+
+ // Require that the energy of the pair be within a range
+ // that is sufficiently "Møller-like."
+ double momentumSum = VecOp.add(pair[0].getMomentum(), pair[1].getMomentum()).magnitude();
+ if(momentumSum < møllerLowerRange || momentumSum > møllerUpperRange) {
+ continue møllerLoop;
+ }
+
+ // Require that all clusters occur within the trigger time
+ // window to exclude accidentals.
+ if(checkTriggerTimeWindow) {
+ if(!inTriggerWindow(trackClusters[0]) || !inTriggerWindow(trackClusters[1])) {
+ continue møllerLoop;
+ }
+ }
+
+ // If all the above conditions are met, the pair is to be
+ // considered a trident pair. Add it to the list.
+ møllerTracks.add(pair);
+ }
+
+ // Return the list of pairs that passed the condition.
+ return møllerTracks;
+ }
+
+ /**
+ * Calculates the approximate invariant mass for a pair of tracks
+ * from their momentum. This assumes that the particles are either
+ * electrons or positrons, and thusly have a sufficiently small
+ * mass term that it can be safely excluded.
+ * @param pair - The track pair for which to calculate the invariant
+ * mass.
+ * @return Returns the approximate invariant mass in units of GeV.
+ */
+ private static final double getInvariantMass(ReconstructedParticle[] pair) {
+ // Get the momentum squared.
+ double p2 = Math.pow(pair[0].getMomentum().magnitude() + pair[1].getMomentum().magnitude(), 2);
+
+ // Get the remaining terms.
+ double xPro = pair[0].getMomentum().x() + pair[1].getMomentum().x();
+ double yPro = pair[0].getMomentum().y() + pair[1].getMomentum().y();
+ double zPro = pair[0].getMomentum().z() + pair[1].getMomentum().z();
+
+ // Calculate the invariant mass.
+ return Math.sqrt(p2 - Math.pow(xPro, 2) - Math.pow(yPro, 2) - Math.pow(zPro, 2));
+ }
+
+ /**
+ * Calculates the coplanarity angle between two points, specified
+ * by a double array. The array must be of the format (x, y, z).
+ * @param position - The first position array.
+ * @param otherPosition - The second position array.
+ * @return Returns the coplanarity angle between the points in units
+ * of degrees.
+ */
+ private static final double getCalculatedCoplanarity(double[] position, double[] otherPosition) {
+ // Define the x- and y-coordinates of the clusters as well as
+ // calorimeter center.
+ final double ORIGIN_X = 42.52;
+ double x[] = { position[0], otherPosition[0] };
+ double y[] = { position[1], otherPosition[1] };
+
// Get the cluster angles.
double[] clusterAngle = new double[2];
for(int i = 0; i < 2; i++) {
Modified: java/trunk/users/src/main/java/org/hps/users/kmccarty/plots/FormattedPlot.java
=============================================================================
--- java/trunk/users/src/main/java/org/hps/users/kmccarty/plots/FormattedPlot.java (original)
+++ java/trunk/users/src/main/java/org/hps/users/kmccarty/plots/FormattedPlot.java Tue Sep 27 08:50:14 2016
@@ -1,25 +1,25 @@
package org.hps.users.kmccarty.plots;
public abstract class FormattedPlot {
- private final String xAxis;
- private final String yAxis;
- private final String plotName;
-
- public FormattedPlot(String xAxis, String yAxis, String plotName) {
- this.xAxis = xAxis;
- this.yAxis = yAxis;
- this.plotName = plotName;
- }
-
- public String getPlotName() {
- return plotName;
- }
-
- public String getXAxisName() {
- return xAxis;
- }
-
- public String getYAxisName() {
- return yAxis;
- }
+ private final String xAxis;
+ private final String yAxis;
+ private final String plotName;
+
+ public FormattedPlot(String xAxis, String yAxis, String plotName) {
+ this.xAxis = xAxis;
+ this.yAxis = yAxis;
+ this.plotName = plotName;
+ }
+
+ public String getPlotName() {
+ return plotName;
+ }
+
+ public String getXAxisName() {
+ return xAxis;
+ }
+
+ public String getYAxisName() {
+ return yAxis;
+ }
}
Modified: java/trunk/users/src/main/java/org/hps/users/kmccarty/plots/FormattedPlot1D.java
=============================================================================
--- java/trunk/users/src/main/java/org/hps/users/kmccarty/plots/FormattedPlot1D.java (original)
+++ java/trunk/users/src/main/java/org/hps/users/kmccarty/plots/FormattedPlot1D.java Tue Sep 27 08:50:14 2016
@@ -1,41 +1,136 @@
package org.hps.users.kmccarty.plots;
+import java.util.HashSet;
+import java.util.Set;
+
import org.hps.users.kmccarty.plots.PlotsFormatter.ColorStyle;
+import org.hps.users.kmccarty.plots.PlotsFormatter.DisplayStyle;
import hep.aida.IHistogram1D;
public class FormattedPlot1D extends FormattedPlot {
- private final ColorStyle style;
- private final IHistogram1D plot;
- private final double axisRange;
-
- public FormattedPlot1D(IHistogram1D plot, ColorStyle style, String xAxis, String yAxis, String plotName) {
- super(xAxis, yAxis, plotName);
- this.plot = plot;
- this.style = style;
- this.axisRange = -1;
- }
-
- public FormattedPlot1D(IHistogram1D plot, ColorStyle style, String xAxis, String yAxis, String plotName, double axisRange) {
- super(xAxis, yAxis, plotName);
- this.plot = plot;
- this.style = style;
- this.axisRange = axisRange;
- }
-
- public IHistogram1D getPlot() {
- return plot;
- }
-
- public ColorStyle getColorStyle() {
- return style;
- }
-
- public boolean definesAxisRange() {
- return axisRange != -1;
- }
-
- public double getAxisRange() {
- return axisRange;
- }
+ private final double axisMin;
+ private final double axisMax;
+ private final ColorStyle[] styles;
+ private final IHistogram1D[] plots;
+ private final DisplayStyle dispStyle;
+
+ public FormattedPlot1D(IHistogram1D plot, ColorStyle style, String xAxis, String yAxis, String plotName) {
+ this(new IHistogram1D[] { plot }, new ColorStyle[] { style }, new String[] { plotName }, xAxis, yAxis, DisplayStyle.BAR, plotName);
+ }
+
+ public FormattedPlot1D(IHistogram1D plot, ColorStyle style, String xAxis, String yAxis, DisplayStyle dispStyle, String plotName) {
+ this(new IHistogram1D[] { plot }, new ColorStyle[] { style }, new String[] { plotName }, xAxis, yAxis, dispStyle, plotName);
+ }
+
+ public FormattedPlot1D(IHistogram1D plots[], ColorStyle[] styles, String[] entryNames,
+ String xAxis, String yAxis, DisplayStyle dispStyle, String plotName) {
+ this(plots, styles, entryNames, xAxis, yAxis, dispStyle, plotName, -1, -1);
+ }
+
+ public FormattedPlot1D(IHistogram1D plot, ColorStyle style, String xAxis, String yAxis, String plotName, double axisMin, double axisMax) {
+ this(new IHistogram1D[] { plot }, new ColorStyle[] { style }, new String[] { plotName },
+ xAxis, yAxis, DisplayStyle.BAR, plotName, axisMin, axisMax);
+ }
+
+ public FormattedPlot1D(IHistogram1D plot, ColorStyle style, String xAxis, String yAxis,
+ DisplayStyle dispStyle, String plotName, double axisMin, double axisMax) {
+ this(new IHistogram1D[] { plot }, new ColorStyle[] { style }, new String[] { plotName },
+ xAxis, yAxis, dispStyle, plotName, axisMin, axisMax);
+ }
+
+ public FormattedPlot1D(IHistogram1D plots[], ColorStyle[] styles, String[] entryNames, String xAxis,
+ String yAxis, DisplayStyle dispStyle, String plotName, double axisMin, double axisMax) {
+ // Initialize the object.
+ super(xAxis, yAxis, plotName);
+ this.plots = plots;
+ this.styles = styles;
+ this.axisMin = axisMin;
+ this.axisMax = axisMax;
+ if(dispStyle == null) { this.dispStyle = DisplayStyle.BAR; }
+ else { this.dispStyle = dispStyle; }
+
+ // Verify that the plot array is valid for a compound plot.
+ if(!verifyPlots(plots)) {
+ throw new IllegalArgumentException("Plots array invalid; plots must have the same bins!");
+ }
+
+ // Verify that all color styles are defined and are equal in
+ // number to the plots.
+ if(styles == null || styles.length != plots.length) {
+ throw new IllegalArgumentException("Color style array invalid; a number of color styles equal to plots must be defined.");
+ }
+ for(int i = 0; i < styles.length; i++) {
+ if(styles[i] == null) {
+ throw new IllegalArgumentException("Color style array invalid; all color styles must be defined.");
+ }
+ }
+
+ // Set the names of each individual entry plot.
+ if(entryNames == null || entryNames.length != plots.length) {
+ throw new IllegalArgumentException("When defining multiple plots, a unique entry name must be defined for each.");
+ }
+ Set<String> entryNameSet = new HashSet<String>(entryNames.length);
+ for(int i = 0; i < plots.length; i++) {
+ if(entryNames[i] == null || entryNameSet.contains(entryNames[i])) {
+ throw new IllegalArgumentException("When defining multiple plots, a unique entry name must be defined for each.");
+ }
+ entryNameSet.add(entryNames[i]);
+ plots[i].setTitle(entryNames[i]);
+ }
+ }
+
+ public IHistogram1D[] getPlots() {
+ return plots;
+ }
+
+ public ColorStyle[] getColorStyle() {
+ return styles;
+ }
+
+ public boolean definesAxisRange() {
+ return axisMax != -1;
+ }
+
+ public double getAxisMin() {
+ return axisMin;
+ }
+
+ public double getAxisMax() {
+ return axisMax;
+ }
+
+ public DisplayStyle getDisplayStyle() {
+ return dispStyle;
+ }
+
+ private static final boolean verifyPlots(IHistogram1D[] plots) {
+ // The plot file must be defined.
+ if(plots == null) { return false; }
+
+ // If there is only one plot, it passes automatically.
+ if(plots.length == 1) { return true; }
+
+ // All plots must have the same dimensions and bin values.
+ int baseBins = plots[0].axis().bins();
+ for(IHistogram1D plot : plots) {
+ // Check that the plot has the same number of bins.
+ if(plot.axis().bins() != baseBins) { return false; }
+ }
+
+ // Check that each bin in the plots has the same value.
+ for(int bin = 0; bin < baseBins; bin++) {
+ // Get the value of the first bin in the base plot.
+ double baseBinValue = plots[0].axis().binLowerEdge(0);
+
+ // Check that all other plots are the same.
+ for(IHistogram1D plot : plots) {
+ // Check that the plot has the same number of bins.
+ if(plot.axis().binLowerEdge(0) != baseBinValue) { return false; }
+ }
+ }
+
+ // Otherwise, the plots are the same.
+ return true;
+ }
}
Modified: java/trunk/users/src/main/java/org/hps/users/kmccarty/plots/FormattedPlot2D.java
=============================================================================
--- java/trunk/users/src/main/java/org/hps/users/kmccarty/plots/FormattedPlot2D.java (original)
+++ java/trunk/users/src/main/java/org/hps/users/kmccarty/plots/FormattedPlot2D.java Tue Sep 27 08:50:14 2016
@@ -3,48 +3,48 @@
import hep.aida.IHistogram2D;
public class FormattedPlot2D extends FormattedPlot {
- private final IHistogram2D plot;
- private final boolean logarithmic;
- private final double xAxisRange;
- private final double yAxisRange;
-
- public FormattedPlot2D(IHistogram2D plot, boolean logarithmic, String xAxis, String yAxis, String plotName) {
- super(xAxis, yAxis, plotName);
- this.plot = plot;
- this.xAxisRange = -1;
- this.yAxisRange = -1;
- this.logarithmic = logarithmic;
- }
-
- public FormattedPlot2D(IHistogram2D plot, boolean logarithmic, String xAxis, String yAxis, String plotName, double xAxisRange, double yAxisRange) {
- super(xAxis, yAxis, plotName);
- this.plot = plot;
- this.xAxisRange = xAxisRange;
- this.yAxisRange = yAxisRange;
- this.logarithmic = logarithmic;
- }
-
- public IHistogram2D getPlot() {
- return plot;
- }
-
- public boolean isLogarithmic() {
- return logarithmic;
- }
-
- public boolean definesXAxisRange() {
- return xAxisRange != -1;
- }
-
- public boolean definesYAxisRange() {
- return yAxisRange != -1;
- }
-
- public double getXAxisRange() {
- return xAxisRange;
- }
-
- public double getYAxisRange() {
- return yAxisRange;
- }
+ private final IHistogram2D plot;
+ private final boolean logarithmic;
+ private final double xAxisRange;
+ private final double yAxisRange;
+
+ public FormattedPlot2D(IHistogram2D plot, boolean logarithmic, String xAxis, String yAxis, String plotName) {
+ super(xAxis, yAxis, plotName);
+ this.plot = plot;
+ this.xAxisRange = -1;
+ this.yAxisRange = -1;
+ this.logarithmic = logarithmic;
+ }
+
+ public FormattedPlot2D(IHistogram2D plot, boolean logarithmic, String xAxis, String yAxis, String plotName, double xAxisRange, double yAxisRange) {
+ super(xAxis, yAxis, plotName);
+ this.plot = plot;
+ this.xAxisRange = xAxisRange;
+ this.yAxisRange = yAxisRange;
+ this.logarithmic = logarithmic;
+ }
+
+ public IHistogram2D getPlot() {
+ return plot;
+ }
+
+ public boolean isLogarithmic() {
+ return logarithmic;
+ }
+
+ public boolean definesXAxisRange() {
+ return xAxisRange != -1;
+ }
+
+ public boolean definesYAxisRange() {
+ return yAxisRange != -1;
+ }
+
+ public double getXAxisRange() {
+ return xAxisRange;
+ }
+
+ public double getYAxisRange() {
+ return yAxisRange;
+ }
}
Modified: java/trunk/users/src/main/java/org/hps/users/kmccarty/plots/PlotFormatModule.java
=============================================================================
--- java/trunk/users/src/main/java/org/hps/users/kmccarty/plots/PlotFormatModule.java (original)
+++ java/trunk/users/src/main/java/org/hps/users/kmccarty/plots/PlotFormatModule.java Tue Sep 27 08:50:14 2016
@@ -7,8 +7,6 @@
import hep.aida.IPlotterFactory;
import hep.aida.ref.plotter.PlotterRegion;
-import org.hps.users.kmccarty.plots.PlotsFormatter.ColorStyle;
-
import java.io.BufferedWriter;
import java.io.File;
import java.io.FileWriter;
@@ -17,189 +15,220 @@
import java.util.List;
public class PlotFormatModule {
- private String width = "2000";
- private String height = "1200";
- private List<FormattedPlot1D> formattedPlots1D = new ArrayList<FormattedPlot1D>();
- private List<FormattedPlot2D> formattedPlots2D = new ArrayList<FormattedPlot2D>();
-
- public void addPlot1D(FormattedPlot1D plot) {
- formattedPlots1D.add(plot);
- }
-
- public void addPlot2D(FormattedPlot2D plot) {
- formattedPlots2D.add(plot);
- }
-
- public void setDisplayHeight(int height) {
- this.height = "" + height;
- }
-
- public void setDisplayWidth(int width) {
- this.width = "" + width;
- }
-
- public void displayPlots() {
- try { processPlots(null); }
- catch (IOException e) { e.printStackTrace(); }
- }
-
- public void savePlots(String filePath) throws IOException {
- processPlots(filePath);
- }
-
- private void processPlots(String filePath) throws IOException {
- // Create a plotter factory.
- IAnalysisFactory af = IAnalysisFactory.create();
- IPlotterFactory plotterFactory = af.createPlotterFactory();
-
- // Format and display the 1D plots.
- for(FormattedPlot1D formattedPlot : formattedPlots1D) {
- // Get the plot.
- IHistogram1D plot = formattedPlot.getPlot();
-
- // Create a plotter and plotting region for the plot.
- IPlotter plotter = plotterFactory.create(plot.title());
- plotter.createRegions(1);
- plotter.region(0).plot(plot);
-
- // Set the axis range.
- PlotterRegion region = (PlotterRegion) plotter.region(0);
- if(formattedPlot.definesAxisRange()) {
- region.getPlot().getXAxis().setMax(formattedPlot.getAxisRange());
- }
-
- // Format the axis labels.
- region.getPlot().setTitle(formattedPlot.getPlotName());
- region.getPlot().getXAxis().setLabel(formattedPlot.getXAxisName());
- region.getPlot().getYAxis().setLabel(formattedPlot.getYAxisName());
-
- // Format the fonts and general plot presentation.
- PlotsFormatter.setDefault1DStyle(region, new ColorStyle[] { formattedPlot.getColorStyle() });
-
- // Set the plotter dimensions.
- plotter.setParameter("plotterWidth", width);
- plotter.setParameter("plotterHeight", height);
-
- // If the file path is null, display the plots. Otherwise,
- // save them to the destination folder.
- if(filePath == null) { plotter.show(); }
- else {
- File plotFile = new File(filePath + formattedPlot.getPlotName() + ".png");
- if(plotFile.exists()) { plotFile.delete(); }
- plotter.writeToFile(filePath + formattedPlot.getPlotName() + ".png");
- System.out.printf("Saved plot \"%s\" to path: %s%n", formattedPlot.getPlotName(), filePath + formattedPlot.getPlotName() + ".png");
- }
- }
-
- // Format and display the 2D plots.
- for(FormattedPlot2D formattedPlot : formattedPlots2D) {
- // Get the plot.
- IHistogram2D plot = formattedPlot.getPlot();
-
- // Create a plotter and plotting region for the plot.
- IPlotter plotter = plotterFactory.create(formattedPlot.getPlotName());
- plotter.createRegions(1);
- plotter.region(0).plot(plot);
-
- // Set the axis range.
- PlotterRegion region = (PlotterRegion) plotter.region(0);
- if(formattedPlot.definesXAxisRange()) {
- region.getPlot().getXAxis().setMax(formattedPlot.getXAxisRange());
- } if(formattedPlot.definesYAxisRange()) {
- region.getPlot().getYAxis().setMax(formattedPlot.getYAxisRange());
- }
-
- // Format the axis labels.
- region.getPlot().setTitle(formattedPlot.getPlotName());
- region.getPlot().getXAxis().setLabel(formattedPlot.getXAxisName());
- region.getPlot().getYAxis().setLabel(formattedPlot.getYAxisName());
-
- // Format the fonts and general plot presentation.
- PlotsFormatter.setDefault2DStyle(region, formattedPlot.isLogarithmic());
-
- // Set the plotter dimensions.
- plotter.setParameter("plotterWidth", width);
- plotter.setParameter("plotterHeight", height);
-
- // If the file path is null, display the plots. Otherwise,
- // save them to the destination folder.
- if(filePath == null) { plotter.show(); }
- else {
- File plotFile = new File(filePath + formattedPlot.getPlotName() + ".png");
- if(plotFile.exists()) { plotFile.delete(); }
- plotter.writeToFile(filePath + formattedPlot.getPlotName() + ".png");
- System.out.printf("Saved plot \"%s\" to path: %s%n", formattedPlot.getPlotName(), filePath + formattedPlot.getPlotName() + ".png");
- }
- }
- }
-
- public void exportPlots(String filePath) throws IOException {
- // Export the 1D plots in a text format.
- for(FormattedPlot1D plot : formattedPlots1D) {
- exportPlot(filePath, plot);
- }
-
- // Export the 2D plots in a text format.
- for(FormattedPlot2D plot : formattedPlots2D) {
- exportPlot(filePath, plot);
- }
- }
-
- private static final void exportPlot(String filePath, FormattedPlot plot) throws IOException {
- // Check if this is a one or two dimensional plot.
- boolean is1D = plot instanceof FormattedPlot1D;
-
- // Create a file object for the plot.
- String plotPath = filePath + plot.getPlotName() + (is1D ? ".aida1D" : ".aida2D");
- File datFile = new File(plotPath);
-
- // If the plot file already exists, delete it.
- if(datFile.exists()) { datFile.delete(); }
-
- // Create a new file for the plot to occupy.
- datFile.createNewFile();
-
- // Get the textual form of the plot.
- String plotText = null;
- if(is1D) { plotText = toTextFormat(((FormattedPlot1D) plot).getPlot()); }
- else { plotText = toTextFormat(((FormattedPlot2D) plot).getPlot()); }
-
- // Write the plot text to the file.
- BufferedWriter writer = new BufferedWriter(new FileWriter(datFile));
- writer.write(plotText);
- writer.close();
-
- // Note that the file was written.
- System.out.printf("Plot \"%s\" was exported to path: %s%n", plot.getPlotName(), plotPath);
- }
-
- private static final String toTextFormat(IHistogram1D plot) {
- // Create a buffer to hold the converted plot.
- StringBuffer buffer = new StringBuffer();
-
- // Iterate over the bins and output the plot in the format of
- // "[BIN_MEAN] [BIN_VALUE]" with a tab delimiter.
- for(int bin = 0; bin < plot.axis().bins(); bin++) {
- buffer.append(String.format("%f\t%f%n", plot.binMean(bin), plot.binHeight(bin)));
- }
-
- // Return the converted file.
- return buffer.toString();
- }
-
- private static final String toTextFormat(IHistogram2D plot) {
- // Create a buffer to hold the converted plot.
- StringBuffer buffer = new StringBuffer();
-
- // Iterate over the bins and output the plot in the format of
- // "[X_BIN_MEAN] [Y_BIN_MEAN] [BIN_VALUE]" with a tab delimiter.
- for(int xBin = 0; xBin < plot.xAxis().bins(); xBin++) {
- for(int yBin = 0; yBin < plot.yAxis().bins(); yBin++) {
- buffer.append(String.format("%f\t%f\t%f%n", plot.binMeanX(xBin, yBin), plot.binMeanY(xBin, yBin), plot.binHeight(xBin, yBin)));
- }
- }
-
- // Return the converted file.
- return buffer.toString();
- }
+ private String width = "2000";
+ private String height = "1200";
+ private List<FormattedPlot1D> formattedPlots1D = new ArrayList<FormattedPlot1D>();
+ private List<FormattedPlot2D> formattedPlots2D = new ArrayList<FormattedPlot2D>();
+
+ public void addPlot1D(FormattedPlot1D plot) {
+ formattedPlots1D.add(plot);
+ }
+
+ public void addPlot2D(FormattedPlot2D plot) {
+ formattedPlots2D.add(plot);
+ }
+
+ public void setDisplayHeight(int height) {
+ this.height = "" + height;
+ }
+
+ public void setDisplayWidth(int width) {
+ this.width = "" + width;
+ }
+
+ public void displayPlots() {
+ try { processPlots(null); }
+ catch (IOException e) { e.printStackTrace(); }
+ }
+
+ public void savePlots(String filePath) throws IOException {
+ processPlots(filePath);
+ }
+
+ private void processPlots(String filePath) throws IOException {
+ // Create a plotter factory.
+ IAnalysisFactory af = IAnalysisFactory.create();
+ IPlotterFactory plotterFactory = af.createPlotterFactory();
+
+ // Format and display the 1D plots.
+ for(FormattedPlot1D formattedPlot : formattedPlots1D) {
+ // Get the plot(s).
+ IHistogram1D[] plots = formattedPlot.getPlots();
+
+ // Create a plotter and plotting region for the plot.
+ IPlotter plotter = plotterFactory.create(formattedPlot.getPlotName());
+ plotter.createRegions(1);
+ for(IHistogram1D plot : plots) {
+ plotter.region(0).plot(plot);
+ }
+
+ // Set the axis range.
+ PlotterRegion region = (PlotterRegion) plotter.region(0);
+ if(formattedPlot.definesAxisRange()) {
+ region.getPlot().getXAxis().setMin(formattedPlot.getAxisMin());
+ region.getPlot().getXAxis().setMax(formattedPlot.getAxisMax());
+ }
+
+ // Format the axis labels.
+ region.getPlot().setTitle(formattedPlot.getPlotName());
+ region.getPlot().getXAxis().setLabel(formattedPlot.getXAxisName());
+ region.getPlot().getYAxis().setLabel(formattedPlot.getYAxisName());
+
+ // Format the fonts and general plot presentation.
+ PlotsFormatter.setDefault1DStyle(region, formattedPlot.getColorStyle(), formattedPlot.getDisplayStyle());
+
+ // Set the plotter dimensions.
+ plotter.setParameter("plotterWidth", width);
+ plotter.setParameter("plotterHeight", height);
+
+ // If the file path is null, display the plots. Otherwise,
+ // save them to the destination folder.
+ if(filePath == null) { plotter.show(); }
+ else {
+ String name = sanitize(formattedPlot.getPlotName());
+ File plotFile = new File(filePath + name + ".png");
+ if(plotFile.exists()) { plotFile.delete(); }
+ plotter.writeToFile(filePath + name + ".png");
+ System.out.printf("Saved plot \"%s\" to path: %s%n", name, filePath + name + ".png");
+ }
+ }
+
+ // Format and display the 2D plots.
+ for(FormattedPlot2D formattedPlot : formattedPlots2D) {
+ // Get the plot.
+ IHistogram2D plot = formattedPlot.getPlot();
+
+ // Create a plotter and plotting region for the plot.
+ IPlotter plotter = plotterFactory.create(formattedPlot.getPlotName());
+ plotter.createRegions(1);
+ plotter.region(0).plot(plot);
+
+ // Set the axis range.
+ PlotterRegion region = (PlotterRegion) plotter.region(0);
+ if(formattedPlot.definesXAxisRange()) {
+ region.getPlot().getXAxis().setMax(formattedPlot.getXAxisRange());
+ } if(formattedPlot.definesYAxisRange()) {
+ region.getPlot().getYAxis().setMax(formattedPlot.getYAxisRange());
+ }
+
+ // Format the axis labels.
+ region.getPlot().setTitle(formattedPlot.getPlotName());
+ region.getPlot().getXAxis().setLabel(formattedPlot.getXAxisName());
+ region.getPlot().getYAxis().setLabel(formattedPlot.getYAxisName());
+
+ // Format the fonts and general plot presentation.
+ PlotsFormatter.setDefault2DStyle(region, formattedPlot.isLogarithmic());
+
+ // Set the plotter dimensions.
+ plotter.setParameter("plotterWidth", width);
+ plotter.setParameter("plotterHeight", height);
+
+ // If the file path is null, display the plots. Otherwise,
+ // save them to the destination folder.
+ if(filePath == null) { plotter.show(); }
+ else {
+ File plotFile = new File(filePath + formattedPlot.getPlotName() + ".png");
+ if(plotFile.exists()) { plotFile.delete(); }
+ plotter.writeToFile(filePath + formattedPlot.getPlotName() + ".png");
+ System.out.printf("Saved plot \"%s\" to path: %s%n", formattedPlot.getPlotName(), filePath + formattedPlot.getPlotName() + ".png");
+ }
+ }
+ }
+
+ public void exportPlots(String filePath) throws IOException {
+ // Export the 1D plots in a text format.
+ for(FormattedPlot1D plot : formattedPlots1D) {
+ exportPlot(filePath, plot);
+ }
+
+ // Export the 2D plots in a text format.
+ for(FormattedPlot2D plot : formattedPlots2D) {
+ exportPlot(filePath, plot);
+ }
+ }
+
+ private static final void exportPlot(String filePath, FormattedPlot plot) throws IOException {
+ // Check if this is a one or two dimensional plot.
+ boolean is1D = plot instanceof FormattedPlot1D;
+
+ // Create a file object for the plot.
+ String plotPath = filePath + plot.getPlotName() + (is1D ? ".aida1D" : ".aida2D");
+ File datFile = new File(plotPath);
+
+ // If the plot file already exists, delete it.
+ if(datFile.exists()) { datFile.delete(); }
+
+ // Create a new file for the plot to occupy.
+ datFile.createNewFile();
+
+ // Get the textual form of the plot.
+ String plotText = null;
+ if(is1D) { plotText = toTextFormat(((FormattedPlot1D) plot).getPlots()); }
+ else { plotText = toTextFormat(((FormattedPlot2D) plot).getPlot()); }
+
+ // Write the plot text to the file.
+ BufferedWriter writer = new BufferedWriter(new FileWriter(datFile));
+ writer.write(plotText);
+ writer.close();
+
+ // Note that the file was written.
+ System.out.printf("Plot \"%s\" was exported to path: %s%n", plot.getPlotName(), plotPath);
+ }
+
+ private static final String toTextFormat(IHistogram1D[] plot) {
+ // Create a buffer to hold the converted plot.
+ StringBuffer buffer = new StringBuffer();
+
+ // Iterate over the bins and output the plot in the format of
+ // "[BIN_MEAN] [BIN_VALUE]" with a tab delimiter.
+ for(int bin = 0; bin < plot[0].axis().bins(); bin++) {
+ // Add the bin value to the file once.
+ buffer.append(String.format("%f", plot[0].binMean(bin)));
+
+ // Add all the plots' bin heights to the line.)
+ for(int i = 0; i < plot.length; i++) {
+ buffer.append(String.format("\t%f", plot[i].binHeight(bin)));
+ }
+ }
+
+ // Return the converted file.
+ return buffer.toString();
+ }
+
+ private static final String toTextFormat(IHistogram2D plot) {
+ // Create a buffer to hold the converted plot.
+ StringBuffer buffer = new StringBuffer();
+
+ // Iterate over the bins and output the plot in the format of
+ // "[X_BIN_MEAN] [Y_BIN_MEAN] [BIN_VALUE]" with a tab delimiter.
+ for(int xBin = 0; xBin < plot.xAxis().bins(); xBin++) {
+ for(int yBin = 0; yBin < plot.yAxis().bins(); yBin++) {
+ buffer.append(String.format("%f\t%f\t%f%n", plot.binMeanX(xBin, yBin), plot.binMeanY(xBin, yBin), plot.binHeight(xBin, yBin)));
+ }
+ }
+
+ // Return the converted file.
+ return buffer.toString();
+ }
+
+ /**
+ * Sanitizes a filename for saving.
+ * @param filename - The original filename.
+ * @return Returns the filename, but with all characters except
+ * those which are alphanumeric or a dash ('-') excluded.
+ */
+ private static final String sanitize(String filename) {
+ // Store the sanitized filename.
+ StringBuffer cleanName = new StringBuffer();
+
+ // Only allow alphanumeric characters.
+ for(char c : filename.toCharArray()) {
+ if(Character.isLetterOrDigit(c) || c == '-') {
+ cleanName.append(c);
+ }
+ }
+
+ // Return the cleaned name.
+ return cleanName.toString();
+ }
}
Modified: java/trunk/users/src/main/java/org/hps/users/kmccarty/plots/PlotsFormatter.java
=============================================================================
--- java/trunk/users/src/main/java/org/hps/users/kmccarty/plots/PlotsFormatter.java (original)
+++ java/trunk/users/src/main/java/org/hps/users/kmccarty/plots/PlotsFormatter.java Tue Sep 27 08:50:14 2016
@@ -8,120 +8,146 @@
import java.awt.Font;
public class PlotsFormatter {
- // Define plot fonts.
- public static final Font BASIC_FONT = new Font("Calibri", Font.PLAIN, 30);
- public static final Font AXIS_FONT = new Font("Calibri", Font.BOLD, 35);
- public static final Font TITLE_FONT = new Font("Calibri", Font.BOLD, 45);
-
- // Defines the color style options for plot data.
- public static enum ColorStyle {
- MS_BLUE(new Color( 79, 129, 189), new Color( 36, 64, 97)), MS_ORANGE(new Color(247, 150, 70), new Color(152, 72, 6)),
- MS_RED(new Color(192, 80, 77), new Color( 99, 36, 35)), GREY(new Color(166, 166, 166), new Color( 89, 89, 89)),
- MS_GREEN(new Color(155, 187, 89), new Color( 79, 98, 40)), CRIMSON(new Color(161, 0, 0), new Color(104, 0, 0)),
- RUST(new Color(161, 80, 0), new Color(105, 80, 0)), YELLOW(new Color(161, 161, 0), new Color(122, 109, 8)),
- FOREST(new Color( 65, 102, 0), new Color( 37, 79, 0)), GREEN(new Color( 7, 132, 70), new Color( 7, 82, 30)),
- TEAL(new Color( 0, 130, 130), new Color( 0, 90, 100)), CERULEAN(new Color( 0, 86, 130), new Color( 0, 28, 83)),
- BLUE(new Color( 0, 33, 203), new Color( 0, 0, 137)), INDIGO(new Color( 68, 10, 127), new Color( 0, 0, 61)),
- PURPLE(new Color(106, 0, 106), new Color( 63, 0, 56)), FUSCHIA(new Color(119, 0, 60), new Color( 60, 0, 60));
-
- private final Color fillColor;
- private final Color lineColor;
-
- private ColorStyle(Color fillColor, Color lineColor) {
- this.fillColor = fillColor;
- this.lineColor = lineColor;
- }
-
- public Color getFillColor() { return fillColor; }
-
- public Color getLineColor() { return lineColor; }
- };
-
- /**
- * Sets the plot display formatting for 1D plots.
- * @param region - The plotter region to format.
- * @param color - The data color settings to use.
- */
- public static final void setDefault1DStyle(PlotterRegion region, ColorStyle[] color) {
- // Get the names of each plot on in the region.
- String[] dataNames = region.getAllDataNames();
-
- // Check whether this is an overlay plot. Overlay plots contain
- // more than one data name.
- boolean overlay = (dataNames.length > 1 ? true : false);
-
- // Iterate over each plot in the region.
- for(int i = 0; i < dataNames.length; i++) {
- // Set the overlay style if needed.
- if(overlay) {
- // Get the fill style for the current data type.
- JASHist1DHistogramStyle fillStyle = (JASHist1DHistogramStyle) region.getDataForName(dataNames[i]).getStyle();
-
- // Set the histogram style to display thick-lined bars
- // with no fill. The color is set by the "color" argument.
- fillStyle.setHistogramFill(false);
- fillStyle.setHistogramBarLineWidth(3);
- fillStyle.setHistogramBarLineColor(color[i].getFillColor());
-
- // Set the legend text style.
- region.getPlot().getLegend().setFont(new Font("Calibri", Font.PLAIN, 20));
- }
-
- // Otherwise, set the fill style for a single plot.
- else {
- // Get the fill style for the current data type.
- JASHist1DHistogramStyle fillStyle = (JASHist1DHistogramStyle) region.getDataForName(dataNames[i]).getStyle();
-
- // Set the histogram style to display thick-lined bars
- // with a fill color. The colors are defined by the
- // "color" argument.
- fillStyle.setHistogramBarLineWidth(3);
- fillStyle.setHistogramBarColor(color[i].getFillColor());
- fillStyle.setHistogramBarLineColor(color[i].getLineColor());
- }
-
- // Set the statistics box style.
- region.getPlot().getStats().setVisible(true);
- region.getPlot().getStats().setFont(BASIC_FONT);
-
- // Set the title font.
- region.getPlot().getTitleObject().setFont(TITLE_FONT);
-
- // Set the axis tick-mark fonts.
- region.getPlot().getXAxis().setFont(BASIC_FONT);
- region.getPlot().getYAxis().setFont(BASIC_FONT);
- region.getPlot().getXAxis().getLabelObject().setFont(AXIS_FONT);
- region.getPlot().getYAxis().getLabelObject().setFont(AXIS_FONT);
- }
- }
-
- /**
- * Sets the plot display formatting for 1D plots.
- * @param region - The plotter region to format.
- */
- public static final void setDefault2DStyle(PlotterRegion region, boolean logarithmic) {
- // Get the fill style object. 2D plots should never be overlay
- // plots, so there should only ever be one data name.
- JASHist2DHistogramStyle fillStyle = (JASHist2DHistogramStyle) region.getDataForName(region.getAllDataNames()[0]).getStyle();
-
- // Set the fill style for a two-dimensional plot.
- if(logarithmic) { fillStyle.setLogZ(true); }
- fillStyle.setHistStyle(JASHist2DHistogramStyle.STYLE_COLORMAP);
- fillStyle.setColorMapScheme(JASHist2DHistogramStyle.COLORMAP_RAINBOW);
-
- // Make the statistics box invisible.
- region.getPlot().getStats().setVisible(false);
-
- // Set the general plot font (which is also the z-axis font).
- region.getPlot().setFont(BASIC_FONT);
-
- // Set the title font.
- region.getPlot().getTitleObject().setFont(TITLE_FONT);
-
- // Set the axis tick-mark fonts.
- region.getPlot().getXAxis().setFont(BASIC_FONT);
- region.getPlot().getYAxis().setFont(BASIC_FONT);
- region.getPlot().getXAxis().getLabelObject().setFont(AXIS_FONT);
- region.getPlot().getYAxis().getLabelObject().setFont(AXIS_FONT);
- }
+ // Define plot fonts.
+ public static final Font BASIC_FONT = new Font("Calibri", Font.PLAIN, 30);
+ public static final Font AXIS_FONT = new Font("Calibri", Font.BOLD, 35);
+ public static final Font TITLE_FONT = new Font("Calibri", Font.BOLD, 45);
+
+ // Defines whether the histogram should be a line or bar histogram.
+ public enum DisplayStyle { BAR, LINE };
+
+ // Defines the color style options for plot data.
+ public static enum ColorStyle {
+ MS_BLUE(new Color( 79, 129, 189), new Color( 36, 64, 97)), MS_ORANGE(new Color(247, 150, 70), new Color(152, 72, 6)),
+ MS_RED(new Color(192, 80, 77), new Color( 99, 36, 35)), GREY(new Color(166, 166, 166), new Color( 89, 89, 89)),
+ MS_GREEN(new Color(155, 187, 89), new Color( 79, 98, 40)), CRIMSON(new Color(161, 0, 0), new Color(104, 0, 0)),
+ RUST(new Color(161, 80, 0), new Color(105, 80, 0)), YELLOW(new Color(161, 161, 0), new Color(122, 109, 8)),
+ FOREST(new Color( 65, 102, 0), new Color( 37, 79, 0)), GREEN(new Color( 7, 132, 70), new Color( 7, 82, 30)),
+ TEAL(new Color( 0, 130, 130), new Color( 0, 90, 100)), CERULEAN(new Color( 0, 86, 130), new Color( 0, 28, 83)),
+ BLUE(new Color( 0, 33, 203), new Color( 0, 0, 137)), INDIGO(new Color( 68, 10, 127), new Color( 0, 0, 61)),
+ PURPLE(new Color(106, 0, 106), new Color( 63, 0, 56)), FUSCHIA(new Color(119, 0, 60), new Color( 60, 0, 60));
+
+ private final Color fillColor;
+ private final Color lineColor;
+
+ private ColorStyle(Color fillColor, Color lineColor) {
+ this.fillColor = fillColor;
+ this.lineColor = lineColor;
+ }
+
+ public Color getFillColor() { return fillColor; }
+
+ public Color getLineColor() { return lineColor; }
+ };
+
+ /**
+ * Sets the plot display formatting for 1D plots.
+ * @param region - The plotter region to format.
+ * @param color - The data color settings to use.
+ */
+ public static final void setDefault1DStyle(PlotterRegion region, ColorStyle[] color, DisplayStyle style) {
+ // Get the names of each plot on in the region.
+ String[] dataNames = region.getAllDataNames();
+
+ // Check whether this is an overlay plot. Overlay plots contain
+ // more than one data name.
+ boolean overlay = (dataNames.length > 1 ? true : false);
+ System.out.println("Is overlay: " + overlay);
+
+ // Iterate over each plot in the region.
+ for(int i = 0; i < dataNames.length; i++) {
+ System.out.println("Processing data name [" + i + "]: " + dataNames[i]);
+
+ // Set the overlay style if needed.
+ if(overlay) {
+ // Get the fill style for the current data type.
+ JASHist1DHistogramStyle fillStyle = (JASHist1DHistogramStyle) region.getDataForName(dataNames[i]).getStyle();
+
+ // Set the histogram style to display thick-lined bars
+ // with no fill. The color is set by the "color" argument.
+ fillStyle.setHistogramFill(false);
+ fillStyle.setHistogramBarLineWidth(3);
+ fillStyle.setShowErrorBars(false);
+ if(style == DisplayStyle.LINE) {
+ fillStyle.setLinesBetweenPointsWidth(3);
+ fillStyle.setShowHistogramBars(false);
+ fillStyle.setShowLinesBetweenPoints(true);
+ fillStyle.setLineColor(color[i].getFillColor());
+ } else {
+ fillStyle.setShowHistogramBars(true);
+ fillStyle.setShowLinesBetweenPoints(false);
+ fillStyle.setHistogramBarLineColor(color[i].getFillColor());
+ }
+
+ // Set the legend text style.
+ region.getPlot().getLegend().setFont(new Font("Calibri", Font.PLAIN, 20));
+ }
+
+ // Otherwise, set the fill style for a single plot.
+ else {
+ // Get the fill style for the current data type.
+ JASHist1DHistogramStyle fillStyle = (JASHist1DHistogramStyle) region.getDataForName(dataNames[i]).getStyle();
+
+ // Set the histogram style to display thick-lined bars
+ // with a fill color. The colors are defined by the
+ // "color" argument.
+ fillStyle.setHistogramBarLineWidth(3);
+ if(style == DisplayStyle.LINE) {
+ fillStyle.setHistogramFill(false);
+ fillStyle.setLinesBetweenPointsWidth(3);
+ fillStyle.setShowHistogramBars(false);
+ fillStyle.setShowLinesBetweenPoints(true);
+ fillStyle.setLineColor(color[i].getFillColor());
+ } else {
+ fillStyle.setShowHistogramBars(true);
+ fillStyle.setShowLinesBetweenPoints(false);
+ fillStyle.setHistogramBarColor(color[i].getFillColor());
+ fillStyle.setHistogramBarLineColor(color[i].getLineColor());
+ }
+ }
+
+ // Set the statistics box style.
+ region.getPlot().getStats().setVisible(true);
+ region.getPlot().getStats().setFont(BASIC_FONT);
+
+ // Set the title font.
+ region.getPlot().getTitleObject().setFont(TITLE_FONT);
+
+ // Set the axis tick-mark fonts.
+ region.getPlot().getXAxis().setFont(BASIC_FONT);
+ region.getPlot().getYAxis().setFont(BASIC_FONT);
+ region.getPlot().getXAxis().getLabelObject().setFont(AXIS_FONT);
+ region.getPlot().getYAxis().getLabelObject().setFont(AXIS_FONT);
+ }
+ }
+
+ /**
+ * Sets the plot display formatting for 1D plots.
+ * @param region - The plotter region to format.
+ */
+ public static final void setDefault2DStyle(PlotterRegion region, boolean logarithmic) {
+ // Get the fill style object. 2D plots should never be overlay
+ // plots, so there should only ever be one data name.
+ JASHist2DHistogramStyle fillStyle = (JASHist2DHistogramStyle) region.getDataForName(region.getAllDataNames()[0]).getStyle();
+
+ // Set the fill style for a two-dimensional plot.
+ if(logarithmic) { fillStyle.setLogZ(true); }
+ fillStyle.setHistStyle(JASHist2DHistogramStyle.STYLE_COLORMAP);
+ fillStyle.setColorMapScheme(JASHist2DHistogramStyle.COLORMAP_RAINBOW);
+
+ // Make the statistics box invisible.
+ region.getPlot().getStats().setVisible(false);
+
+ // Set the general plot font (which is also the z-axis font).
+ region.getPlot().setFont(BASIC_FONT);
+
+ // Set the title font.
+ region.getPlot().getTitleObject().setFont(TITLE_FONT);
+
+ // Set the axis tick-mark fonts.
+ region.getPlot().getXAxis().setFont(BASIC_FONT);
+ region.getPlot().getYAxis().setFont(BASIC_FONT);
+ region.getPlot().getXAxis().getLabelObject().setFont(AXIS_FONT);
+ region.getPlot().getYAxis().getLabelObject().setFont(AXIS_FONT);
+ }
}
Modified: java/trunk/users/src/main/java/org/hps/users/kmccarty/plots/formatter/InvariantMassPlotsFormatter.java
=============================================================================
--- java/trunk/users/src/main/java/org/hps/users/kmccarty/plots/formatter/InvariantMassPlotsFormatter.java (original)
+++ java/trunk/users/src/main/java/org/hps/users/kmccarty/plots/formatter/InvariantMassPlotsFormatter.java Tue Sep 27 08:50:14 2016
@@ -19,317 +19,317 @@
import hep.aida.ref.plotter.PlotterRegion;
public class InvariantMassPlotsFormatter {
- // Define plot fonts.
- private static final Font BASIC_FONT = new Font("Calibri", Font.PLAIN, 20);
- private static final Font AXIS_FONT = new Font("Calibri", Font.BOLD, 25);
- private static final Font TITLE_FONT = new Font("Calibri", Font.BOLD, 35);
-
- // Defines the color style options for plot data.
- private enum ColorStyle {
- MS_BLUE(new Color( 79, 129, 189), new Color( 36, 64, 97)), MS_ORANGE(new Color(247, 150, 70), new Color(152, 72, 6)),
- MS_RED(new Color(192, 80, 77), new Color( 99, 36, 35)), GREY(new Color(166, 166, 166), new Color( 89, 89, 89)),
- MS_GREEN(new Color(155, 187, 89), new Color( 79, 98, 40)), CRIMSON(new Color(161, 0, 0), new Color(104, 0, 0)),
- RUST(new Color(161, 80, 0), new Color(105, 80, 0)), YELLOW(new Color(161, 161, 0), new Color(122, 109, 8)),
- FOREST(new Color( 65, 102, 0), new Color( 37, 79, 0)), GREEN(new Color( 7, 132, 70), new Color( 7, 82, 30)),
- TEAL(new Color( 0, 130, 130), new Color( 0, 90, 100)), CERULEAN(new Color( 0, 86, 130), new Color( 0, 28, 83)),
- BLUE(new Color( 0, 33, 203), new Color( 0, 0, 137)), INDIGO(new Color( 68, 10, 127), new Color( 0, 0, 61)),
- PURPLE(new Color(106, 0, 106), new Color( 63, 0, 56)), FUSCHIA(new Color(119, 0, 60), new Color( 60, 0, 60));
-
- private final Color fillColor;
- private final Color lineColor;
-
- private ColorStyle(Color fillColor, Color lineColor) {
- this.fillColor = fillColor;
- this.lineColor = lineColor;
- }
-
- public Color getFillColor() { return fillColor; }
-
- public Color getLineColor() { return lineColor; }
- };
-
- /**
- * Loads all plots in a file and formats them according to the
- * indicated style.
- * @param args - Unused default executable parameter.
- * @throws IOException Occurs if there is an issue opening the file.
- */
- public static void main(String[] args) throws IOException {
- // Define the root directory for the plots.
- String rootDir = "D:\\cygwin64\\home\\Kyle\\";
-
- // Define the new name of the file containing the trigger plots.
- String[] plotFile = {
- rootDir + "temp.aida"
- };
-
- // Define the run numbers for each file.
- String[] runNumber = { "1 Hits", "2 Hits" };
-
- // Define the scaling factors for each plot.
- double scaleFactor = 13.254;
-
- // Get the plots file and open it.
- IAnalysisFactory af = IAnalysisFactory.create();
- ITree[] tree = new ITree[plotFile.length];
- for(int i = 0; i < plotFile.length; i++) {
- tree[i] = af.createTreeFactory().create(plotFile[i]);
- if(tree[i] == null) { throw new IllegalArgumentException("Unable to load plot file."); }
- }
-
- // Get the histograms.
- IHistogram1D[] invariantMassPlots = new IHistogram1D[3];
- invariantMassPlots[0] = (IHistogram1D) tree[0].find("Trident Analysis/Particle Invariant Mass (1 Hit)");
- invariantMassPlots[1] = (IHistogram1D) tree[0].find("Trident Analysis/Particle Invariant Mass (2 Hit)");
- IHistogram1D electronEnergyPlot = (IHistogram1D) tree[0].find("Trident Analysis/Electron Energy");
- IHistogram1D positronEnergyPlot = (IHistogram1D) tree[0].find("Trident Analysis/Positron Energy");
- IHistogram1D energySumPlot = (IHistogram1D) tree[0].find("Trident Analysis/Energy Sum Distribution");
- IHistogram2D energySum2DPlot = (IHistogram2D) tree[0].find("Trident Analysis/2D Energy Distribution");
- IHistogram1D tridentElectronEnergyPlot = (IHistogram1D) tree[0].find("Trident Analysis/Trident Electron Energy");
- IHistogram1D tridentPositronEnergyPlot = (IHistogram1D) tree[0].find("Trident Analysis/Trident Positron Energy");
-
- // Define the plot titles and arrays.
- IHistogram[] plots = { electronEnergyPlot, positronEnergyPlot, energySumPlot, tridentElectronEnergyPlot, tridentPositronEnergyPlot };
- String[] titles = { "Electron Energy", "Positron Energy", "Energy Sum", "Trident Electron Energy", "Trident Positron Energy" };
- String[] xTitles = { "Energy (GeV)", "Energy (GeV)", "Energy Sum (GeV)", "Energy (GeV)", "Energy (GeV)" };
-
- // Re-bin the histograms to have 5-times larger bins. First,
- // get the bin count and upper and lower bounds of the plot.
- int bins = invariantMassPlots[0].axis().bins();
- double low = invariantMassPlots[0].axis().binLowerEdge(0);
- double high = invariantMassPlots[0].axis().binUpperEdge(invariantMassPlots[0].axis().bins() - 1);
-
- // Create new plots with the larger bin sizes.
- AIDA aida = AIDA.defaultInstance();
- IHistogram1D[] newPlot = new IHistogram1D[2];
- newPlot[0] = aida.histogram1D("Particle Invariant Mass (1 Hit)", bins / 5, low, high);
- newPlot[1] = aida.histogram1D("Particle Invariant Mass (2 Hit)", bins / 5, low, high);
-
- // Populate the new plots with the data from the old ones.
- for(int j = 0; j < 2; j++) {
- for(int i = 0; i < bins; i++) {
- int entries = invariantMassPlots[j].binEntries(i);
- double center = invariantMassPlots[j].axis().binCenter(i);
- for(int k = 0; k < entries; k++) {
- newPlot[j].fill(center);
- }
- }
- }
-
- // Replace the old plots.
- invariantMassPlots = newPlot;
-
- // Create a plotter factory.
- IPlotterFactory plotterFactory = af.createPlotterFactory();
-
- // Format and display the basic histograms.
- for(int i = 0; i < plots.length; i++) {
- // Scale the histogram by the appropriate scaling factor.
- plots[i].scale(1.0 / scaleFactor);
-
- // Create a plotter and plotting region for the plot.
- IPlotter plotter = plotterFactory.create(titles[i]);
- plotter.createRegions(1);
- plotter.region(0).plot(plots[i]);
-
- // Format the axis labels.
- PlotterRegion region = (PlotterRegion) plotter.region(0);
- region.getPlot().setTitle(titles[i]);
- region.getPlot().getXAxis().setLabel(xTitles[i]);
- region.getPlot().getYAxis().setLabel("Rate (Hz)");
-
- // Format the fonts and general plot presentation.
- setDefault1DStyle(region, new ColorStyle[] { ColorStyle.GREY });
-
- // Show the plot.
- plotter.setParameter("plotterWidth", "2000");
- plotter.setParameter("plotterHeight", "1200");
- plotter.show();
- }
-
- // Format and display the 2D histogram.
- energySum2DPlot.scale(1.0 / scaleFactor);
- IPlotter plotter2D = plotterFactory.create("2D Energy Sum");
- plotter2D.createRegions(1);
- plotter2D.region(0).plot(energySum2DPlot);
-
- // Format the axis labels.
- PlotterRegion region2D = (PlotterRegion) plotter2D.region(0);
- region2D.getPlot().setTitle("2D Energy Sum");
- region2D.getPlot().getXAxis().setLabel("Electron Energy (GeV)");
- region2D.getPlot().getYAxis().setLabel("Positron Energy (GeV)");
-
- // Format the fonts and general plot presentation.
- setDefault2DStyle(region2D, false);
-
- // Show the plot.
- plotter2D.setParameter("plotterWidth", "2000");
- plotter2D.setParameter("plotterHeight", "1200");
- plotter2D.show();
-
- // Format and display the histograms.
- for(int i = 0; i < 2; i++) {
- // Scale the histogram by the appropriate scaling factor.
- invariantMassPlots[i].scale(1.0 / scaleFactor);
-
- // Create a plotter and plotting region for the plot.
- IPlotter plotter = plotterFactory.create("Particle Invariant Mass (" + runNumber[i] + ")");
- plotter.createRegions(1);
- plotter.region(0).plot(invariantMassPlots[i]);
-
- // Format the axis labels.
- PlotterRegion region = (PlotterRegion) plotter.region(0);
- region.getPlot().setTitle("Particle Invariant Mass (" + runNumber[i] + ")");
- region.getPlot().getXAxis().setLabel("Invariant Mass (GeV)");
- region.getPlot().getYAxis().setLabel("Rate (Hz)");
-
- // Format the fonts and general plot presentation.
- setDefault1DStyle(region, new ColorStyle[] { ColorStyle.GREY });
-
- // Show the plot.
- plotter.setParameter("plotterWidth", "2000");
- plotter.setParameter("plotterHeight", "1200");
- plotter.show();
- }
-
- // Note which plot is the numerator and which is the denominator.
- int numerator = 0;
- int denominator = 1;
-
- // Create a new histogram to display the ratios of the rates.
- IHistogram1D ratioPlot = AIDA.defaultInstance().histogram1D("Invariant Mass Ratio (" + runNumber[numerator] + " / "
- + runNumber[denominator] + ")", invariantMassPlots[0].axis().bins(),
- invariantMassPlots[0].axis().lowerEdge(), invariantMassPlots[0].axis().upperEdge());
-
- // Iterate over each bin.
- for(int bin = 0; bin < invariantMassPlots[0].axis().bins(); bin++) {
- // Calculate the ratio.
- double ratio = invariantMassPlots[numerator].binHeight(bin) / invariantMassPlots[denominator].binHeight(bin);
-
- // If the ratio is either not a number of infinite, skip
- // this bin.
- if(Double.isNaN(ratio) || Double.isInfinite(ratio)) { continue; }
-
- // Populate the ratio plot bin.
- ratioPlot.fill(invariantMassPlots[0].axis().binCenter(bin), ratio);
- }
-
- // Create a plotter and plotting region for the plot.
- IPlotter plotter = plotterFactory.create("Invariant Mass Ratio (5411 / 5554)");
- plotter.createRegions(1);
- plotter.region(0).plot(ratioPlot);
-
- // Format the axis labels.
- PlotterRegion region = (PlotterRegion) plotter.region(0);
- region.getPlot().setTitle("Invariant Mass Ratio (" + runNumber[numerator] + " / " + runNumber[denominator] + ")");
- region.getPlot().getXAxis().setLabel("Invariant Mass (GeV)");
- region.getPlot().getXAxis().setMin(0.010);
- region.getPlot().getXAxis().setMax(0.060);
- region.getPlot().getYAxis().setLabel("Ratio");
-
- // Format the fonts and general plot presentation.
- setDefault1DStyle(region, new ColorStyle[] { ColorStyle.GREY });
-
- // Disable the error bars.
- JASHist1DHistogramStyle fillStyle = (JASHist1DHistogramStyle) region.getDataForName(region.getAllDataNames()[0]).getStyle();
- fillStyle.setShowErrorBars(false);
-
- // Show the plot.
- plotter.setParameter("plotterWidth", "2000");
- plotter.setParameter("plotterHeight", "1200");
- plotter.show();
-
- // Close the trees.
- for(int i = 0; i < plotFile.length; i++) {
- tree[i].close();
- }
- }
-
- /**
- * Sets the plot display formatting for 1D plots.
- * @param region - The plotter region to format.
- * @param color - The data color settings to use.
- */
- private static final void setDefault1DStyle(PlotterRegion region, ColorStyle[] color) {
- // Get the names of each plot on in the region.
- String[] dataNames = region.getAllDataNames();
-
- // Check whether this is an overlay plot. Overlay plots contain
- // more than one data name.
- boolean overlay = (dataNames.length > 1 ? true : false);
-
- // Iterate over each plot in the region.
- for(int i = 0; i < dataNames.length; i++) {
- // Set the overlay style if needed.
- if(overlay) {
- // Get the fill style for the current data type.
- JASHist1DHistogramStyle fillStyle = (JASHist1DHistogramStyle) region.getDataForName(dataNames[i]).getStyle();
-
- // Set the histogram style to display thick-lined bars
- // with no fill. The color is set by the "color" argument.
- fillStyle.setHistogramFill(false);
- fillStyle.setHistogramBarLineWidth(3);
- fillStyle.setHistogramBarLineColor(color[i].getFillColor());
-
- // Set the legend text style.
- region.getPlot().getLegend().setFont(new Font("Calibri", Font.PLAIN, 20));
- }
-
- // Otherwise, set the fill style for a single plot.
- else {
- // Get the fill style for the current data type.
- JASHist1DHistogramStyle fillStyle = (JASHist1DHistogramStyle) region.getDataForName(dataNames[i]).getStyle();
-
- // Set the histogram style to display thick-lined bars
- // with a fill color. The colors are defined by the
- // "color" argument.
- fillStyle.setHistogramBarLineWidth(3);
- fillStyle.setHistogramBarColor(color[i].getFillColor());
- fillStyle.setHistogramBarLineColor(color[i].getLineColor());
- }
-
- // Set the statistics box style.
- region.getPlot().getStats().setVisible(true);
- region.getPlot().getStats().setFont(BASIC_FONT);
-
- // Set the title font.
- region.getPlot().getTitleObject().setFont(TITLE_FONT);
-
- // Set the axis tick-mark fonts.
- region.getPlot().getXAxis().setFont(BASIC_FONT);
- region.getPlot().getYAxis().setFont(BASIC_FONT);
- region.getPlot().getXAxis().getLabelObject().setFont(AXIS_FONT);
- region.getPlot().getYAxis().getLabelObject().setFont(AXIS_FONT);
- }
- }
-
- /**
- * Sets the plot display formatting for 1D plots.
- * @param region - The plotter region to format.
- */
- private static final void setDefault2DStyle(PlotterRegion region, boolean logarithmic) {
- // Get the fill style object. 2D plots should never be overlay
- // plots, so there should only ever be one data name.
- JASHist2DHistogramStyle fillStyle = (JASHist2DHistogramStyle) region.getDataForName(region.getAllDataNames()[0]).getStyle();
-
- // Set the fill style for a two-dimensional plot.
- if(logarithmic) { fillStyle.setLogZ(true); }
- fillStyle.setHistStyle(JASHist2DHistogramStyle.STYLE_COLORMAP);
- fillStyle.setColorMapScheme(JASHist2DHistogramStyle.COLORMAP_RAINBOW);
-
- // Make the statistics box invisible.
- region.getPlot().getStats().setVisible(false);
-
- // Set the general plot font (which is also the z-axis font).
- region.getPlot().setFont(BASIC_FONT);
-
- // Set the title font.
- region.getPlot().getTitleObject().setFont(TITLE_FONT);
-
- // Set the axis tick-mark fonts.
- region.getPlot().getXAxis().setFont(BASIC_FONT);
- region.getPlot().getYAxis().setFont(BASIC_FONT);
- region.getPlot().getXAxis().getLabelObject().setFont(AXIS_FONT);
- region.getPlot().getYAxis().getLabelObject().setFont(AXIS_FONT);
- }
+ // Define plot fonts.
+ private static final Font BASIC_FONT = new Font("Calibri", Font.PLAIN, 20);
+ private static final Font AXIS_FONT = new Font("Calibri", Font.BOLD, 25);
+ private static final Font TITLE_FONT = new Font("Calibri", Font.BOLD, 35);
+
+ // Defines the color style options for plot data.
+ private enum ColorStyle {
+ MS_BLUE(new Color( 79, 129, 189), new Color( 36, 64, 97)), MS_ORANGE(new Color(247, 150, 70), new Color(152, 72, 6)),
+ MS_RED(new Color(192, 80, 77), new Color( 99, 36, 35)), GREY(new Color(166, 166, 166), new Color( 89, 89, 89)),
+ MS_GREEN(new Color(155, 187, 89), new Color( 79, 98, 40)), CRIMSON(new Color(161, 0, 0), new Color(104, 0, 0)),
+ RUST(new Color(161, 80, 0), new Color(105, 80, 0)), YELLOW(new Color(161, 161, 0), new Color(122, 109, 8)),
+ FOREST(new Color( 65, 102, 0), new Color( 37, 79, 0)), GREEN(new Color( 7, 132, 70), new Color( 7, 82, 30)),
+ TEAL(new Color( 0, 130, 130), new Color( 0, 90, 100)), CERULEAN(new Color( 0, 86, 130), new Color( 0, 28, 83)),
+ BLUE(new Color( 0, 33, 203), new Color( 0, 0, 137)), INDIGO(new Color( 68, 10, 127), new Color( 0, 0, 61)),
+ PURPLE(new Color(106, 0, 106), new Color( 63, 0, 56)), FUSCHIA(new Color(119, 0, 60), new Color( 60, 0, 60));
+
+ private final Color fillColor;
+ private final Color lineColor;
+
+ private ColorStyle(Color fillColor, Color lineColor) {
+ this.fillColor = fillColor;
+ this.lineColor = lineColor;
+ }
+
+ public Color getFillColor() { return fillColor; }
+
+ public Color getLineColor() { return lineColor; }
+ };
+
+ /**
+ * Loads all plots in a file and formats them according to the
+ * indicated style.
+ * @param args - Unused default executable parameter.
+ * @throws IOException Occurs if there is an issue opening the file.
+ */
+ public static void main(String[] args) throws IOException {
+ // Define the root directory for the plots.
+ String rootDir = "D:\\cygwin64\\home\\Kyle\\";
+
+ // Define the new name of the file containing the trigger plots.
+ String[] plotFile = {
+ rootDir + "temp.aida"
+ };
+
+ // Define the run numbers for each file.
+ String[] runNumber = { "1 Hits", "2 Hits" };
+
+ // Define the scaling factors for each plot.
+ double scaleFactor = 13.254;
+
+ // Get the plots file and open it.
+ IAnalysisFactory af = IAnalysisFactory.create();
+ ITree[] tree = new ITree[plotFile.length];
+ for(int i = 0; i < plotFile.length; i++) {
+ tree[i] = af.createTreeFactory().create(plotFile[i]);
+ if(tree[i] == null) { throw new IllegalArgumentException("Unable to load plot file."); }
+ }
+
+ // Get the histograms.
+ IHistogram1D[] invariantMassPlots = new IHistogram1D[3];
+ invariantMassPlots[0] = (IHistogram1D) tree[0].find("Trident Analysis/Particle Invariant Mass (1 Hit)");
+ invariantMassPlots[1] = (IHistogram1D) tree[0].find("Trident Analysis/Particle Invariant Mass (2 Hit)");
+ IHistogram1D electronEnergyPlot = (IHistogram1D) tree[0].find("Trident Analysis/Electron Energy");
+ IHistogram1D positronEnergyPlot = (IHistogram1D) tree[0].find("Trident Analysis/Positron Energy");
+ IHistogram1D energySumPlot = (IHistogram1D) tree[0].find("Trident Analysis/Energy Sum Distribution");
+ IHistogram2D energySum2DPlot = (IHistogram2D) tree[0].find("Trident Analysis/2D Energy Distribution");
+ IHistogram1D tridentElectronEnergyPlot = (IHistogram1D) tree[0].find("Trident Analysis/Trident Electron Energy");
+ IHistogram1D tridentPositronEnergyPlot = (IHistogram1D) tree[0].find("Trident Analysis/Trident Positron Energy");
+
+ // Define the plot titles and arrays.
+ IHistogram[] plots = { electronEnergyPlot, positronEnergyPlot, energySumPlot, tridentElectronEnergyPlot, tridentPositronEnergyPlot };
+ String[] titles = { "Electron Energy", "Positron Energy", "Energy Sum", "Trident Electron Energy", "Trident Positron Energy" };
+ String[] xTitles = { "Energy (GeV)", "Energy (GeV)", "Energy Sum (GeV)", "Energy (GeV)", "Energy (GeV)" };
+
+ // Re-bin the histograms to have 5-times larger bins. First,
+ // get the bin count and upper and lower bounds of the plot.
+ int bins = invariantMassPlots[0].axis().bins();
+ double low = invariantMassPlots[0].axis().binLowerEdge(0);
+ double high = invariantMassPlots[0].axis().binUpperEdge(invariantMassPlots[0].axis().bins() - 1);
+
+ // Create new plots with the larger bin sizes.
+ AIDA aida = AIDA.defaultInstance();
+ IHistogram1D[] newPlot = new IHistogram1D[2];
+ newPlot[0] = aida.histogram1D("Particle Invariant Mass (1 Hit)", bins / 5, low, high);
+ newPlot[1] = aida.histogram1D("Particle Invariant Mass (2 Hit)", bins / 5, low, high);
+
+ // Populate the new plots with the data from the old ones.
+ for(int j = 0; j < 2; j++) {
+ for(int i = 0; i < bins; i++) {
+ int entries = invariantMassPlots[j].binEntries(i);
+ double center = invariantMassPlots[j].axis().binCenter(i);
+ for(int k = 0; k < entries; k++) {
+ newPlot[j].fill(center);
+ }
+ }
+ }
+
+ // Replace the old plots.
+ invariantMassPlots = newPlot;
+
+ // Create a plotter factory.
+ IPlotterFactory plotterFactory = af.createPlotterFactory();
+
+ // Format and display the basic histograms.
+ for(int i = 0; i < plots.length; i++) {
+ // Scale the histogram by the appropriate scaling factor.
+ plots[i].scale(1.0 / scaleFactor);
+
+ // Create a plotter and plotting region for the plot.
+ IPlotter plotter = plotterFactory.create(titles[i]);
+ plotter.createRegions(1);
+ plotter.region(0).plot(plots[i]);
+
+ // Format the axis labels.
+ PlotterRegion region = (PlotterRegion) plotter.region(0);
+ region.getPlot().setTitle(titles[i]);
+ region.getPlot().getXAxis().setLabel(xTitles[i]);
+ region.getPlot().getYAxis().setLabel("Rate (Hz)");
+
+ // Format the fonts and general plot presentation.
+ setDefault1DStyle(region, new ColorStyle[] { ColorStyle.GREY });
+
+ // Show the plot.
+ plotter.setParameter("plotterWidth", "2000");
+ plotter.setParameter("plotterHeight", "1200");
+ plotter.show();
+ }
+
+ // Format and display the 2D histogram.
+ energySum2DPlot.scale(1.0 / scaleFactor);
+ IPlotter plotter2D = plotterFactory.create("2D Energy Sum");
+ plotter2D.createRegions(1);
+ plotter2D.region(0).plot(energySum2DPlot);
+
+ // Format the axis labels.
+ PlotterRegion region2D = (PlotterRegion) plotter2D.region(0);
+ region2D.getPlot().setTitle("2D Energy Sum");
+ region2D.getPlot().getXAxis().setLabel("Electron Energy (GeV)");
+ region2D.getPlot().getYAxis().setLabel("Positron Energy (GeV)");
+
+ // Format the fonts and general plot presentation.
+ setDefault2DStyle(region2D, false);
+
+ // Show the plot.
+ plotter2D.setParameter("plotterWidth", "2000");
+ plotter2D.setParameter("plotterHeight", "1200");
+ plotter2D.show();
+
+ // Format and display the histograms.
+ for(int i = 0; i < 2; i++) {
+ // Scale the histogram by the appropriate scaling factor.
+ invariantMassPlots[i].scale(1.0 / scaleFactor);
+
+ // Create a plotter and plotting region for the plot.
+ IPlotter plotter = plotterFactory.create("Particle Invariant Mass (" + runNumber[i] + ")");
+ plotter.createRegions(1);
+ plotter.region(0).plot(invariantMassPlots[i]);
+
+ // Format the axis labels.
+ PlotterRegion region = (PlotterRegion) plotter.region(0);
+ region.getPlot().setTitle("Particle Invariant Mass (" + runNumber[i] + ")");
+ region.getPlot().getXAxis().setLabel("Invariant Mass (GeV)");
+ region.getPlot().getYAxis().setLabel("Rate (Hz)");
+
+ // Format the fonts and general plot presentation.
+ setDefault1DStyle(region, new ColorStyle[] { ColorStyle.GREY });
+
+ // Show the plot.
+ plotter.setParameter("plotterWidth", "2000");
+ plotter.setParameter("plotterHeight", "1200");
+ plotter.show();
+ }
+
+ // Note which plot is the numerator and which is the denominator.
+ int numerator = 0;
+ int denominator = 1;
+
+ // Create a new histogram to display the ratios of the rates.
+ IHistogram1D ratioPlot = AIDA.defaultInstance().histogram1D("Invariant Mass Ratio (" + runNumber[numerator] + " / "
+ + runNumber[denominator] + ")", invariantMassPlots[0].axis().bins(),
+ invariantMassPlots[0].axis().lowerEdge(), invariantMassPlots[0].axis().upperEdge());
+
+ // Iterate over each bin.
+ for(int bin = 0; bin < invariantMassPlots[0].axis().bins(); bin++) {
+ // Calculate the ratio.
+ double ratio = invariantMassPlots[numerator].binHeight(bin) / invariantMassPlots[denominator].binHeight(bin);
+
+ // If the ratio is either not a number of infinite, skip
+ // this bin.
+ if(Double.isNaN(ratio) || Double.isInfinite(ratio)) { continue; }
+
+ // Populate the ratio plot bin.
+ ratioPlot.fill(invariantMassPlots[0].axis().binCenter(bin), ratio);
+ }
+
+ // Create a plotter and plotting region for the plot.
+ IPlotter plotter = plotterFactory.create("Invariant Mass Ratio (5411 / 5554)");
+ plotter.createRegions(1);
+ plotter.region(0).plot(ratioPlot);
+
+ // Format the axis labels.
+ PlotterRegion region = (PlotterRegion) plotter.region(0);
+ region.getPlot().setTitle("Invariant Mass Ratio (" + runNumber[numerator] + " / " + runNumber[denominator] + ")");
+ region.getPlot().getXAxis().setLabel("Invariant Mass (GeV)");
+ region.getPlot().getXAxis().setMin(0.010);
+ region.getPlot().getXAxis().setMax(0.060);
+ region.getPlot().getYAxis().setLabel("Ratio");
+
+ // Format the fonts and general plot presentation.
+ setDefault1DStyle(region, new ColorStyle[] { ColorStyle.GREY });
+
+ // Disable the error bars.
+ JASHist1DHistogramStyle fillStyle = (JASHist1DHistogramStyle) region.getDataForName(region.getAllDataNames()[0]).getStyle();
+ fillStyle.setShowErrorBars(false);
+
+ // Show the plot.
+ plotter.setParameter("plotterWidth", "2000");
+ plotter.setParameter("plotterHeight", "1200");
+ plotter.show();
+
+ // Close the trees.
+ for(int i = 0; i < plotFile.length; i++) {
+ tree[i].close();
+ }
+ }
+
+ /**
+ * Sets the plot display formatting for 1D plots.
+ * @param region - The plotter region to format.
+ * @param color - The data color settings to use.
+ */
+ private static final void setDefault1DStyle(PlotterRegion region, ColorStyle[] color) {
+ // Get the names of each plot on in the region.
+ String[] dataNames = region.getAllDataNames();
+
+ // Check whether this is an overlay plot. Overlay plots contain
+ // more than one data name.
+ boolean overlay = (dataNames.length > 1 ? true : false);
+
+ // Iterate over each plot in the region.
+ for(int i = 0; i < dataNames.length; i++) {
+ // Set the overlay style if needed.
+ if(overlay) {
+ // Get the fill style for the current data type.
+ JASHist1DHistogramStyle fillStyle = (JASHist1DHistogramStyle) region.getDataForName(dataNames[i]).getStyle();
+
+ // Set the histogram style to display thick-lined bars
+ // with no fill. The color is set by the "color" argument.
+ fillStyle.setHistogramFill(false);
+ fillStyle.setHistogramBarLineWidth(3);
+ fillStyle.setHistogramBarLineColor(color[i].getFillColor());
+
+ // Set the legend text style.
+ region.getPlot().getLegend().setFont(new Font("Calibri", Font.PLAIN, 20));
+ }
+
+ // Otherwise, set the fill style for a single plot.
+ else {
+ // Get the fill style for the current data type.
+ JASHist1DHistogramStyle fillStyle = (JASHist1DHistogramStyle) region.getDataForName(dataNames[i]).getStyle();
+
+ // Set the histogram style to display thick-lined bars
+ // with a fill color. The colors are defined by the
+ // "color" argument.
+ fillStyle.setHistogramBarLineWidth(3);
+ fillStyle.setHistogramBarColor(color[i].getFillColor());
+ fillStyle.setHistogramBarLineColor(color[i].getLineColor());
+ }
+
+ // Set the statistics box style.
+ region.getPlot().getStats().setVisible(true);
+ region.getPlot().getStats().setFont(BASIC_FONT);
+
+ // Set the title font.
+ region.getPlot().getTitleObject().setFont(TITLE_FONT);
+
+ // Set the axis tick-mark fonts.
+ region.getPlot().getXAxis().setFont(BASIC_FONT);
+ region.getPlot().getYAxis().setFont(BASIC_FONT);
+ region.getPlot().getXAxis().getLabelObject().setFont(AXIS_FONT);
+ region.getPlot().getYAxis().getLabelObject().setFont(AXIS_FONT);
+ }
+ }
+
+ /**
+ * Sets the plot display formatting for 1D plots.
+ * @param region - The plotter region to format.
+ */
+ private static final void setDefault2DStyle(PlotterRegion region, boolean logarithmic) {
+ // Get the fill style object. 2D plots should never be overlay
+ // plots, so there should only ever be one data name.
+ JASHist2DHistogramStyle fillStyle = (JASHist2DHistogramStyle) region.getDataForName(region.getAllDataNames()[0]).getStyle();
+
+ // Set the fill style for a two-dimensional plot.
+ if(logarithmic) { fillStyle.setLogZ(true); }
+ fillStyle.setHistStyle(JASHist2DHistogramStyle.STYLE_COLORMAP);
+ fillStyle.setColorMapScheme(JASHist2DHistogramStyle.COLORMAP_RAINBOW);
+
+ // Make the statistics box invisible.
+ region.getPlot().getStats().setVisible(false);
+
+ // Set the general plot font (which is also the z-axis font).
+ region.getPlot().setFont(BASIC_FONT);
+
+ // Set the title font.
+ region.getPlot().getTitleObject().setFont(TITLE_FONT);
+
+ // Set the axis tick-mark fonts.
+ region.getPlot().getXAxis().setFont(BASIC_FONT);
+ region.getPlot().getYAxis().setFont(BASIC_FONT);
+ region.getPlot().getXAxis().getLabelObject().setFont(AXIS_FONT);
+ region.getPlot().getYAxis().getLabelObject().setFont(AXIS_FONT);
+ }
}
Modified: java/trunk/users/src/main/java/org/hps/users/kmccarty/plots/formatter/MTEPlotFormatter.java
=============================================================================
--- java/trunk/users/src/main/java/org/hps/users/kmccarty/plots/formatter/MTEPlotFormatter.java (original)
+++ java/trunk/users/src/main/java/org/hps/users/kmccarty/plots/formatter/MTEPlotFormatter.java Tue Sep 27 08:50:14 2016
@@ -19,308 +19,308 @@
import hep.aida.ref.plotter.PlotterRegion;
public class MTEPlotFormatter {
- // Define plot fonts.
- private static final Font BASIC_FONT = new Font("Calibri", Font.PLAIN, 20);
- private static final Font AXIS_FONT = new Font("Calibri", Font.BOLD, 25);
- private static final Font TITLE_FONT = new Font("Calibri", Font.BOLD, 35);
-
- // Defines the color style options for plot data.
- private enum ColorStyle {
- MS_BLUE(new Color( 79, 129, 189), new Color( 36, 64, 97)), MS_ORANGE(new Color(247, 150, 70), new Color(152, 72, 6)),
- MS_RED(new Color(192, 80, 77), new Color( 99, 36, 35)), GREY(new Color(166, 166, 166), new Color( 89, 89, 89)),
- MS_GREEN(new Color(155, 187, 89), new Color( 79, 98, 40)), CRIMSON(new Color(161, 0, 0), new Color(104, 0, 0)),
- RUST(new Color(161, 80, 0), new Color(105, 80, 0)), YELLOW(new Color(161, 161, 0), new Color(122, 109, 8)),
- FOREST(new Color( 65, 102, 0), new Color( 37, 79, 0)), GREEN(new Color( 7, 132, 70), new Color( 7, 82, 30)),
- TEAL(new Color( 0, 130, 130), new Color( 0, 90, 100)), CERULEAN(new Color( 0, 86, 130), new Color( 0, 28, 83)),
- BLUE(new Color( 0, 33, 203), new Color( 0, 0, 137)), INDIGO(new Color( 68, 10, 127), new Color( 0, 0, 61)),
- PURPLE(new Color(106, 0, 106), new Color( 63, 0, 56)), FUSCHIA(new Color(119, 0, 60), new Color( 60, 0, 60));
-
- private final Color fillColor;
- private final Color lineColor;
-
- private ColorStyle(Color fillColor, Color lineColor) {
- this.fillColor = fillColor;
- this.lineColor = lineColor;
- }
-
- public Color getFillColor() { return fillColor; }
-
- public Color getLineColor() { return lineColor; }
- };
-
- /**
- * Loads all plots in a file and formats them according to the
- * indicated style.
- * @param args - Unused default executable parameter.
- * @throws IOException Occurs if there is an issue opening the file.
- */
- public static void main(String[] args) throws IOException {
- // Define the root directory for the plots.
- String rootDir = "D:\\cygwin64\\home\\Kyle\\";
-
- // Define the new name of the file containing the trigger plots.
- String plotFile = rootDir + "temp.aida";
-
- // Define the scaling factors for each plot.
- double scaleFactor = 1;
-
- // Get the plots file and open it.
- IAnalysisFactory af = IAnalysisFactory.create();
- ITree tree = af.createTreeFactory().create(plotFile);
- if(tree == null) { throw new IllegalArgumentException("Unable to load plot file."); }
-
- // Define index references for each event type.
- int MOLLER = 0;
- int TRIDENT = 1;
- int ELASTIC = 2;
-
- // Get the histograms.
- IHistogram1D[] trackCountPlots = new IHistogram1D[3];
- trackCountPlots[MOLLER] = (IHistogram1D) tree.find("MTE Analysis/Møller Event Tracks");
- trackCountPlots[TRIDENT] = (IHistogram1D) tree.find("MTE Analysis/Trident Event Tracks");
- trackCountPlots[ELASTIC] = (IHistogram1D) tree.find("MTE Analysis/Elastic Event Tracks");
-
- IHistogram1D[] energyPlots = new IHistogram1D[3];
- energyPlots[MOLLER] = (IHistogram1D) tree.find("MTE Analysis/Møller Electron Energy Distribution");
- energyPlots[TRIDENT] = (IHistogram1D) tree.find("MTE Analysis/Trident Electron Energy Distribution");
- energyPlots[ELASTIC] = (IHistogram1D) tree.find("MTE Analysis/Elastic Energy Distribution");
-
- IHistogram1D[] energySumPlots = new IHistogram1D[2];
- energySumPlots[MOLLER] = (IHistogram1D) tree.find("MTE Analysis/Møller Energy Sum Distribution");
- energySumPlots[TRIDENT] = (IHistogram1D) tree.find("MTE Analysis/Trident Energy Sum Distribution");
-
- IHistogram2D[] energy2DPlots = new IHistogram2D[2];
- energy2DPlots[MOLLER] = (IHistogram2D) tree.find("MTE Analysis/Møller 2D Energy Distribution");
- energy2DPlots[TRIDENT] = (IHistogram2D) tree.find("MTE Analysis/Trident 2D Energy Distribution");
-
- // Create a plotter factory.
- IPlotterFactory plotterFactory = af.createPlotterFactory();
-
- // Format the track count plots.
- for(IHistogram1D trackCountPlot : trackCountPlots) {
- // Create a plotter and plotting region for the plot.
- IPlotter plotter = plotterFactory.create(trackCountPlot.title());
- plotter.createRegions(1);
- plotter.region(0).plot(trackCountPlot);
-
- // Format the axis labels.
- PlotterRegion region = (PlotterRegion) plotter.region(0);
- region.getPlot().setTitle(trackCountPlot.title());
- region.getPlot().getXAxis().setLabel("Number of Tracks");
- region.getPlot().getYAxis().setLabel("Count");
-
- // Format the fonts and general plot presentation.
- setDefault1DStyle(region, new ColorStyle[] { ColorStyle.GREY });
-
- // Show the plot.
- plotter.setParameter("plotterWidth", "2000");
- plotter.setParameter("plotterHeight", "1200");
- plotter.show();
- }
-
- // Format the electron energy plots.
- for(IHistogram1D energyPlot : energyPlots) {
- // Create a plotter and plotting region for the plot.
- IPlotter plotter = plotterFactory.create(energyPlot.title());
- plotter.createRegions(1);
- plotter.region(0).plot(energyPlot);
-
- // Format the axis labels.
- PlotterRegion region = (PlotterRegion) plotter.region(0);
- region.getPlot().setTitle(energyPlot.title());
- region.getPlot().getXAxis().setLabel("Track Energy (GeV)");
- region.getPlot().getYAxis().setLabel("Count");
-
- // Format the fonts and general plot presentation.
- setDefault1DStyle(region, new ColorStyle[] { ColorStyle.GREY });
-
- // Show the plot.
- plotter.setParameter("plotterWidth", "2000");
- plotter.setParameter("plotterHeight", "1200");
- plotter.show();
- }
-
- // Format the energy sum plots.
- for(IHistogram1D energySumPlot : energySumPlots) {
- // Create a plotter and plotting region for the plot.
- IPlotter plotter = plotterFactory.create(energySumPlot.title());
- plotter.createRegions(1);
- plotter.region(0).plot(energySumPlot);
-
- // Format the axis labels.
- PlotterRegion region = (PlotterRegion) plotter.region(0);
- region.getPlot().setTitle(energySumPlot.title());
- region.getPlot().getXAxis().setLabel("Track Energy (GeV)");
- region.getPlot().getYAxis().setLabel("Count");
-
- // Format the fonts and general plot presentation.
- setDefault1DStyle(region, new ColorStyle[] { ColorStyle.GREY });
-
- // Show the plot.
- plotter.setParameter("plotterWidth", "2000");
- plotter.setParameter("plotterHeight", "1200");
- plotter.show();
- }
-
- // Format the 2D energy sum plots.
- for(IHistogram2D energy2DPlot : energy2DPlots) {
- // Create a plotter and plotting region for the plot.
- IPlotter plotter = plotterFactory.create(energy2DPlot.title());
- plotter.createRegions(1);
- plotter.region(0).plot(energy2DPlot);
-
- // Format the axis labels.
- PlotterRegion region = (PlotterRegion) plotter.region(0);
- region.getPlot().setTitle(energy2DPlot.title());
- region.getPlot().getXAxis().setLabel("First Track Energy (GeV)");
- region.getPlot().getYAxis().setLabel("Second Track Energy (GeV)");
-
-
- // Format the fonts and general plot presentation.
- setDefault2DStyle(region, false);
-
- // Show the plot.
- plotter.setParameter("plotterWidth", "2000");
- plotter.setParameter("plotterHeight", "1200");
- plotter.show();
- }
-
- // Disable the error bars.
- //JASHist1DHistogramStyle fillStyle = (JASHist1DHistogramStyle) region.getDataForName(region.getAllDataNames()[0]).getStyle();
- //fillStyle.setShowErrorBars(false);
-
- // Close the tree.
- tree.close();
- }
-
- /**
- * Sets the plot display formatting for 1D plots.
- * @param region - The plotter region to format.
- * @param color - The data color settings to use.
- */
- private static final void setDefault1DStyle(PlotterRegion region, ColorStyle[] color) {
- // Get the names of each plot on in the region.
- String[] dataNames = region.getAllDataNames();
-
- // Check whether this is an overlay plot. Overlay plots contain
- // more than one data name.
- boolean overlay = (dataNames.length > 1 ? true : false);
-
- // Iterate over each plot in the region.
- for(int i = 0; i < dataNames.length; i++) {
- // Set the overlay style if needed.
- if(overlay) {
- // Get the fill style for the current data type.
- JASHist1DHistogramStyle fillStyle = (JASHist1DHistogramStyle) region.getDataForName(dataNames[i]).getStyle();
-
- // Set the histogram style to display thick-lined bars
- // with no fill. The color is set by the "color" argument.
- fillStyle.setHistogramFill(false);
- fillStyle.setHistogramBarLineWidth(3);
- fillStyle.setHistogramBarLineColor(color[i].getFillColor());
-
- // Set the legend text style.
- region.getPlot().getLegend().setFont(new Font("Calibri", Font.PLAIN, 20));
- }
-
- // Otherwise, set the fill style for a single plot.
- else {
- // Get the fill style for the current data type.
- JASHist1DHistogramStyle fillStyle = (JASHist1DHistogramStyle) region.getDataForName(dataNames[i]).getStyle();
-
- // Set the histogram style to display thick-lined bars
- // with a fill color. The colors are defined by the
- // "color" argument.
- fillStyle.setHistogramBarLineWidth(3);
- fillStyle.setHistogramBarColor(color[i].getFillColor());
- fillStyle.setHistogramBarLineColor(color[i].getLineColor());
- }
-
- // Set the statistics box style.
- region.getPlot().getStats().setVisible(true);
- region.getPlot().getStats().setFont(BASIC_FONT);
-
- // Set the title font.
- region.getPlot().getTitleObject().setFont(TITLE_FONT);
-
- // Set the axis tick-mark fonts.
- region.getPlot().getXAxis().setFont(BASIC_FONT);
- region.getPlot().getYAxis().setFont(BASIC_FONT);
- region.getPlot().getXAxis().getLabelObject().setFont(AXIS_FONT);
- region.getPlot().getYAxis().getLabelObject().setFont(AXIS_FONT);
- }
- }
-
- /**
- * Sets the plot display formatting for 1D plots.
- * @param region - The plotter region to format.
- */
- private static final void setDefault2DStyle(PlotterRegion region, boolean logarithmic) {
- // Get the fill style object. 2D plots should never be overlay
- // plots, so there should only ever be one data name.
- JASHist2DHistogramStyle fillStyle = (JASHist2DHistogramStyle) region.getDataForName(region.getAllDataNames()[0]).getStyle();
-
- // Set the fill style for a two-dimensional plot.
- if(logarithmic) { fillStyle.setLogZ(true); }
- fillStyle.setHistStyle(JASHist2DHistogramStyle.STYLE_COLORMAP);
- fillStyle.setColorMapScheme(JASHist2DHistogramStyle.COLORMAP_RAINBOW);
-
- // Make the statistics box invisible.
- region.getPlot().getStats().setVisible(false);
-
- // Set the general plot font (which is also the z-axis font).
- region.getPlot().setFont(BASIC_FONT);
-
- // Set the title font.
- region.getPlot().getTitleObject().setFont(TITLE_FONT);
-
- // Set the axis tick-mark fonts.
- region.getPlot().getXAxis().setFont(BASIC_FONT);
- region.getPlot().getYAxis().setFont(BASIC_FONT);
- region.getPlot().getXAxis().getLabelObject().setFont(AXIS_FONT);
- region.getPlot().getYAxis().getLabelObject().setFont(AXIS_FONT);
- }
-
- /**
- * Recursive method that gets all object names from a tree that
- * are not directories. Method should not be called directly, but
- * rather called only through the <code>getHistograms(ITree)</code>
- * method.
- * @param tree - The tree from which to obtain the object names.
- * @param directory - The directory in which to search for objects.
- * @param list - The list in which to place the objects.
- * @return Returns the <code>List</code> collection that was given
- * as an argument.
- */
- private static final List<String> getHistograms(ITree tree, String directory, List<String> list) {
- // Get the list of objects in the directory.
- String[] treeObjects = tree.listObjectNames(directory);
-
- // Print the objects.
- for(String objectName : treeObjects) {
- // Check if the object is a directory.
- boolean isDirectory = isDirectory(objectName);
-
- // If the object is a directory, get the histograms from it.
- if(isDirectory) {
- getHistograms(tree, objectName, list);
- }
-
- // If the object is a plot, add it to the list.
- else { list.add(objectName); }
- }
-
- // Return the list.
- return list;
- }
-
- /**
- * Checks whether a tree object is a directory.
- * @param object - The object to check.
- * @return Returns <code>true</code> if the object is a directory
- * and <code>false</code> otherwise.
- */
- private static final boolean isDirectory(String object) {
- return (object.toCharArray()[object.length() - 1] == '/');
- }
+ // Define plot fonts.
+ private static final Font BASIC_FONT = new Font("Calibri", Font.PLAIN, 20);
+ private static final Font AXIS_FONT = new Font("Calibri", Font.BOLD, 25);
+ private static final Font TITLE_FONT = new Font("Calibri", Font.BOLD, 35);
+
+ // Defines the color style options for plot data.
+ private enum ColorStyle {
+ MS_BLUE(new Color( 79, 129, 189), new Color( 36, 64, 97)), MS_ORANGE(new Color(247, 150, 70), new Color(152, 72, 6)),
+ MS_RED(new Color(192, 80, 77), new Color( 99, 36, 35)), GREY(new Color(166, 166, 166), new Color( 89, 89, 89)),
+ MS_GREEN(new Color(155, 187, 89), new Color( 79, 98, 40)), CRIMSON(new Color(161, 0, 0), new Color(104, 0, 0)),
+ RUST(new Color(161, 80, 0), new Color(105, 80, 0)), YELLOW(new Color(161, 161, 0), new Color(122, 109, 8)),
+ FOREST(new Color( 65, 102, 0), new Color( 37, 79, 0)), GREEN(new Color( 7, 132, 70), new Color( 7, 82, 30)),
+ TEAL(new Color( 0, 130, 130), new Color( 0, 90, 100)), CERULEAN(new Color( 0, 86, 130), new Color( 0, 28, 83)),
+ BLUE(new Color( 0, 33, 203), new Color( 0, 0, 137)), INDIGO(new Color( 68, 10, 127), new Color( 0, 0, 61)),
+ PURPLE(new Color(106, 0, 106), new Color( 63, 0, 56)), FUSCHIA(new Color(119, 0, 60), new Color( 60, 0, 60));
+
+ private final Color fillColor;
+ private final Color lineColor;
+
+ private ColorStyle(Color fillColor, Color lineColor) {
+ this.fillColor = fillColor;
+ this.lineColor = lineColor;
+ }
+
+ public Color getFillColor() { return fillColor; }
+
+ public Color getLineColor() { return lineColor; }
+ };
+
+ /**
+ * Loads all plots in a file and formats them according to the
+ * indicated style.
+ * @param args - Unused default executable parameter.
+ * @throws IOException Occurs if there is an issue opening the file.
+ */
+ public static void main(String[] args) throws IOException {
+ // Define the root directory for the plots.
+ String rootDir = "D:\\cygwin64\\home\\Kyle\\";
+
+ // Define the new name of the file containing the trigger plots.
+ String plotFile = rootDir + "temp.aida";
+
+ // Define the scaling factors for each plot.
+ double scaleFactor = 1;
+
+ // Get the plots file and open it.
+ IAnalysisFactory af = IAnalysisFactory.create();
+ ITree tree = af.createTreeFactory().create(plotFile);
+ if(tree == null) { throw new IllegalArgumentException("Unable to load plot file."); }
+
+ // Define index references for each event type.
+ int MOLLER = 0;
+ int TRIDENT = 1;
+ int ELASTIC = 2;
+
+ // Get the histograms.
+ IHistogram1D[] trackCountPlots = new IHistogram1D[3];
+ trackCountPlots[MOLLER] = (IHistogram1D) tree.find("MTE Analysis/Møller Event Tracks");
+ trackCountPlots[TRIDENT] = (IHistogram1D) tree.find("MTE Analysis/Trident Event Tracks");
+ trackCountPlots[ELASTIC] = (IHistogram1D) tree.find("MTE Analysis/Elastic Event Tracks");
+
+ IHistogram1D[] energyPlots = new IHistogram1D[3];
+ energyPlots[MOLLER] = (IHistogram1D) tree.find("MTE Analysis/Møller Electron Energy Distribution");
+ energyPlots[TRIDENT] = (IHistogram1D) tree.find("MTE Analysis/Trident Electron Energy Distribution");
+ energyPlots[ELASTIC] = (IHistogram1D) tree.find("MTE Analysis/Elastic Energy Distribution");
+
+ IHistogram1D[] energySumPlots = new IHistogram1D[2];
+ energySumPlots[MOLLER] = (IHistogram1D) tree.find("MTE Analysis/Møller Energy Sum Distribution");
+ energySumPlots[TRIDENT] = (IHistogram1D) tree.find("MTE Analysis/Trident Energy Sum Distribution");
+
+ IHistogram2D[] energy2DPlots = new IHistogram2D[2];
+ energy2DPlots[MOLLER] = (IHistogram2D) tree.find("MTE Analysis/Møller 2D Energy Distribution");
+ energy2DPlots[TRIDENT] = (IHistogram2D) tree.find("MTE Analysis/Trident 2D Energy Distribution");
+
+ // Create a plotter factory.
+ IPlotterFactory plotterFactory = af.createPlotterFactory();
+
+ // Format the track count plots.
+ for(IHistogram1D trackCountPlot : trackCountPlots) {
+ // Create a plotter and plotting region for the plot.
+ IPlotter plotter = plotterFactory.create(trackCountPlot.title());
+ plotter.createRegions(1);
+ plotter.region(0).plot(trackCountPlot);
+
+ // Format the axis labels.
+ PlotterRegion region = (PlotterRegion) plotter.region(0);
+ region.getPlot().setTitle(trackCountPlot.title());
+ region.getPlot().getXAxis().setLabel("Number of Tracks");
+ region.getPlot().getYAxis().setLabel("Count");
+
+ // Format the fonts and general plot presentation.
+ setDefault1DStyle(region, new ColorStyle[] { ColorStyle.GREY });
+
+ // Show the plot.
+ plotter.setParameter("plotterWidth", "2000");
+ plotter.setParameter("plotterHeight", "1200");
+ plotter.show();
+ }
+
+ // Format the electron energy plots.
+ for(IHistogram1D energyPlot : energyPlots) {
+ // Create a plotter and plotting region for the plot.
+ IPlotter plotter = plotterFactory.create(energyPlot.title());
+ plotter.createRegions(1);
+ plotter.region(0).plot(energyPlot);
+
+ // Format the axis labels.
+ PlotterRegion region = (PlotterRegion) plotter.region(0);
+ region.getPlot().setTitle(energyPlot.title());
+ region.getPlot().getXAxis().setLabel("Track Energy (GeV)");
+ region.getPlot().getYAxis().setLabel("Count");
+
+ // Format the fonts and general plot presentation.
+ setDefault1DStyle(region, new ColorStyle[] { ColorStyle.GREY });
+
+ // Show the plot.
+ plotter.setParameter("plotterWidth", "2000");
+ plotter.setParameter("plotterHeight", "1200");
+ plotter.show();
+ }
+
+ // Format the energy sum plots.
+ for(IHistogram1D energySumPlot : energySumPlots) {
+ // Create a plotter and plotting region for the plot.
+ IPlotter plotter = plotterFactory.create(energySumPlot.title());
+ plotter.createRegions(1);
+ plotter.region(0).plot(energySumPlot);
+
+ // Format the axis labels.
+ PlotterRegion region = (PlotterRegion) plotter.region(0);
+ region.getPlot().setTitle(energySumPlot.title());
+ region.getPlot().getXAxis().setLabel("Track Energy (GeV)");
+ region.getPlot().getYAxis().setLabel("Count");
+
+ // Format the fonts and general plot presentation.
+ setDefault1DStyle(region, new ColorStyle[] { ColorStyle.GREY });
+
+ // Show the plot.
+ plotter.setParameter("plotterWidth", "2000");
+ plotter.setParameter("plotterHeight", "1200");
+ plotter.show();
+ }
+
+ // Format the 2D energy sum plots.
+ for(IHistogram2D energy2DPlot : energy2DPlots) {
+ // Create a plotter and plotting region for the plot.
+ IPlotter plotter = plotterFactory.create(energy2DPlot.title());
+ plotter.createRegions(1);
+ plotter.region(0).plot(energy2DPlot);
+
+ // Format the axis labels.
+ PlotterRegion region = (PlotterRegion) plotter.region(0);
+ region.getPlot().setTitle(energy2DPlot.title());
+ region.getPlot().getXAxis().setLabel("First Track Energy (GeV)");
+ region.getPlot().getYAxis().setLabel("Second Track Energy (GeV)");
+
+
+ // Format the fonts and general plot presentation.
+ setDefault2DStyle(region, false);
+
+ // Show the plot.
+ plotter.setParameter("plotterWidth", "2000");
+ plotter.setParameter("plotterHeight", "1200");
+ plotter.show();
+ }
+
+ // Disable the error bars.
+ //JASHist1DHistogramStyle fillStyle = (JASHist1DHistogramStyle) region.getDataForName(region.getAllDataNames()[0]).getStyle();
+ //fillStyle.setShowErrorBars(false);
+
+ // Close the tree.
+ tree.close();
+ }
+
+ /**
+ * Sets the plot display formatting for 1D plots.
+ * @param region - The plotter region to format.
+ * @param color - The data color settings to use.
+ */
+ private static final void setDefault1DStyle(PlotterRegion region, ColorStyle[] color) {
+ // Get the names of each plot on in the region.
+ String[] dataNames = region.getAllDataNames();
+
+ // Check whether this is an overlay plot. Overlay plots contain
+ // more than one data name.
+ boolean overlay = (dataNames.length > 1 ? true : false);
+
+ // Iterate over each plot in the region.
+ for(int i = 0; i < dataNames.length; i++) {
+ // Set the overlay style if needed.
+ if(overlay) {
+ // Get the fill style for the current data type.
+ JASHist1DHistogramStyle fillStyle = (JASHist1DHistogramStyle) region.getDataForName(dataNames[i]).getStyle();
+
+ // Set the histogram style to display thick-lined bars
+ // with no fill. The color is set by the "color" argument.
+ fillStyle.setHistogramFill(false);
+ fillStyle.setHistogramBarLineWidth(3);
+ fillStyle.setHistogramBarLineColor(color[i].getFillColor());
+
+ // Set the legend text style.
+ region.getPlot().getLegend().setFont(new Font("Calibri", Font.PLAIN, 20));
+ }
+
+ // Otherwise, set the fill style for a single plot.
+ else {
+ // Get the fill style for the current data type.
+ JASHist1DHistogramStyle fillStyle = (JASHist1DHistogramStyle) region.getDataForName(dataNames[i]).getStyle();
+
+ // Set the histogram style to display thick-lined bars
+ // with a fill color. The colors are defined by the
+ // "color" argument.
+ fillStyle.setHistogramBarLineWidth(3);
+ fillStyle.setHistogramBarColor(color[i].getFillColor());
+ fillStyle.setHistogramBarLineColor(color[i].getLineColor());
+ }
+
+ // Set the statistics box style.
+ region.getPlot().getStats().setVisible(true);
+ region.getPlot().getStats().setFont(BASIC_FONT);
+
+ // Set the title font.
+ region.getPlot().getTitleObject().setFont(TITLE_FONT);
+
+ // Set the axis tick-mark fonts.
+ region.getPlot().getXAxis().setFont(BASIC_FONT);
+ region.getPlot().getYAxis().setFont(BASIC_FONT);
+ region.getPlot().getXAxis().getLabelObject().setFont(AXIS_FONT);
+ region.getPlot().getYAxis().getLabelObject().setFont(AXIS_FONT);
+ }
+ }
+
+ /**
+ * Sets the plot display formatting for 1D plots.
+ * @param region - The plotter region to format.
+ */
+ private static final void setDefault2DStyle(PlotterRegion region, boolean logarithmic) {
+ // Get the fill style object. 2D plots should never be overlay
+ // plots, so there should only ever be one data name.
+ JASHist2DHistogramStyle fillStyle = (JASHist2DHistogramStyle) region.getDataForName(region.getAllDataNames()[0]).getStyle();
+
+ // Set the fill style for a two-dimensional plot.
+ if(logarithmic) { fillStyle.setLogZ(true); }
+ fillStyle.setHistStyle(JASHist2DHistogramStyle.STYLE_COLORMAP);
+ fillStyle.setColorMapScheme(JASHist2DHistogramStyle.COLORMAP_RAINBOW);
+
+ // Make the statistics box invisible.
+ region.getPlot().getStats().setVisible(false);
+
+ // Set the general plot font (which is also the z-axis font).
+ region.getPlot().setFont(BASIC_FONT);
+
+ // Set the title font.
+ region.getPlot().getTitleObject().setFont(TITLE_FONT);
+
+ // Set the axis tick-mark fonts.
+ region.getPlot().getXAxis().setFont(BASIC_FONT);
+ region.getPlot().getYAxis().setFont(BASIC_FONT);
+ region.getPlot().getXAxis().getLabelObject().setFont(AXIS_FONT);
+ region.getPlot().getYAxis().getLabelObject().setFont(AXIS_FONT);
+ }
+
+ /**
+ * Recursive method that gets all object names from a tree that
+ * are not directories. Method should not be called directly, but
+ * rather called only through the <code>getHistograms(ITree)</code>
+ * method.
+ * @param tree - The tree from which to obtain the object names.
+ * @param directory - The directory in which to search for objects.
+ * @param list - The list in which to place the objects.
+ * @return Returns the <code>List</code> collection that was given
+ * as an argument.
+ */
+ private static final List<String> getHistograms(ITree tree, String directory, List<String> list) {
+ // Get the list of objects in the directory.
+ String[] treeObjects = tree.listObjectNames(directory);
+
+ // Print the objects.
+ for(String objectName : treeObjects) {
+ // Check if the object is a directory.
+ boolean isDirectory = isDirectory(objectName);
+
+ // If the object is a directory, get the histograms from it.
+ if(isDirectory) {
+ getHistograms(tree, objectName, list);
+ }
+
+ // If the object is a plot, add it to the list.
+ else { list.add(objectName); }
+ }
+
+ // Return the list.
+ return list;
+ }
+
+ /**
+ * Checks whether a tree object is a directory.
+ * @param object - The object to check.
+ * @return Returns <code>true</code> if the object is a directory
+ * and <code>false</code> otherwise.
+ */
+ private static final boolean isDirectory(String object) {
+ return (object.toCharArray()[object.length() - 1] == '/');
+ }
}
Modified: java/trunk/users/src/main/java/org/hps/users/kmccarty/plots/formatter/MTETriggerPlotsFormatter.java
=============================================================================
--- java/trunk/users/src/main/java/org/hps/users/kmccarty/plots/formatter/MTETriggerPlotsFormatter.java (original)
+++ java/trunk/users/src/main/java/org/hps/users/kmccarty/plots/formatter/MTETriggerPlotsFormatter.java Tue Sep 27 08:50:14 2016
@@ -15,164 +15,164 @@
public class MTETriggerPlotsFormatter {
- public static void main(String[] args) throws IllegalArgumentException, IOException {
- // Define the root directory for the plots.
- String rootDir = "D:\\cygwin64\\home\\Kyle\\";
-
- // Define the new name of the file containing the trigger plots.
- String plotFile = rootDir + "5772-ana.aida";
-
- // Get the plots file and open it.
- IAnalysisFactory af = IAnalysisFactory.create();
- ITree tree = af.createTreeFactory().create(plotFile);
- if(tree == null) { throw new IllegalArgumentException("Unable to load plot file."); }
-
- // Define the 1D trigger plot names for Møllers and tridents.
- String[] plotNames1D = { "Cluster Hit Count", "Cluster Seed Energy", "Cluster Total Energy",
- "Pair Coplanarity", "Pair Energy Difference", "Pair Energy Slope", "Pair Energy Sum" };
- String[] displayNames1D = { "Cluster Hit Count", "Cluster Seed Energy", "Cluster Total Energy",
- "Pair Coplanarity", "Pair Energy Difference", "Pair Energy Slope", "Pair Energy Sum" };
- String[] xAxisNames1D = { "Hit Count", "Seed Energy (GeV)", "Total Energy (GeV)",
- "Coplanarity (Degrees)", "Energy Difference (GeV)", "Energy Slope (GeV)", "Energy Sum (GeV)" };
- String yAxisName1D = "Count";
-
- // Define the 2D trigger plot names for Møllers and tridents.
- String[] plotNames2D = { "Cluster Seed", "Pair Energy Sum 2D" };
- String[] displayNames2D = { "Cluster Seed Distribution", "2D Energy Sum" };
- String[] xAxisNames2D = { "x-Index", "Second Cluster Energy (GeV)" };
- String[] yAxisNames2D = { "y-Index", "First Cluster Energy (GeV)" };
-
- // Define the 1D trigger plot names for elastics.
- String[] plotNamesElastic1D = { "Cluster Hit Count", "Cluster Seed Energy", "Cluster Total Energy" };
- String[] displayNamesElastic1D = { "Cluster Hit Count", "Cluster Seed Energy", "Cluster Total Energy" };
- String[] xAxisNamesElastic1D = { "Hit Count", "Seed Energy (GeV)", "Total Energy (GeV)" };
- String yAxisNameElastic1D = "Count";
-
- // Define the 2D trigger plot names for elastics.
- String[] plotNamesElastic2D = { "Cluster Seed" };
- String[] displayNamesElastic2D = { "Cluster Seed Distribution" };
- String[] xAxisNamesElastic2D = { "x-Index" };
- String[] yAxisNamesElastic2D = { "y-Index" };
-
- // Define the Møller, trident, and elastic prefixes.
- String allPrefix = "All Trigger Plots/Pair Plots/";
- String møllerPrefix = "Møller Trigger Plots/Pair Plots/";
- String tridentPrefix = "Trident Trigger Plots/Pair Plots/";
- String elasticPrefix = "Elastic Trigger Plots/Singles Plots/";
- String allSinglesPrefix = "All Trigger Plots/Singles Plots/";
-
- // Define the plot type prefix.
- String allTypeName = "All Pairs - ";
- String møllerTypeName = "Møller - ";
- String tridentTypeName = "Trident - ";
- String elasticTypeName = "Elastic - ";
- String allSinglesTypeName = "All Singles - ";
-
- // Define the plot type colors.
- ColorStyle allColor = PlotsFormatter.ColorStyle.GREY;
- ColorStyle møllerColor = PlotsFormatter.ColorStyle.MS_BLUE;
- ColorStyle tridentColor = PlotsFormatter.ColorStyle.MS_ORANGE;
- ColorStyle elasticColor = PlotsFormatter.ColorStyle.MS_GREEN;
-
- // Create a plot formatting module.
- PlotFormatModule module = new PlotFormatModule();
-
- // Get the histograms and add them to the module. Start with the
- // trident and Møller plots.
- for(int i = 0; i < plotNames1D.length; i++) {
- // Get the Møller and trident plots.
- IHistogram1D allPlot = (IHistogram1D) tree.find(allPrefix + plotNames1D[i]);
- IHistogram1D møllerPlot = (IHistogram1D) tree.find(møllerPrefix + plotNames1D[i]);
- IHistogram1D tridentPlot = (IHistogram1D) tree.find(tridentPrefix + plotNames1D[i]);
-
- // Make a formatted plot for each.
- FormattedPlot1D allFormattedPlot = new FormattedPlot1D(allPlot, allColor, xAxisNames1D[i], yAxisName1D, allTypeName + displayNames1D[i]);
- FormattedPlot1D møllerFormattedPlot = new FormattedPlot1D(møllerPlot, møllerColor, xAxisNames1D[i], yAxisName1D, møllerTypeName + displayNames1D[i]);
- FormattedPlot1D tridentFormattedPlot = new FormattedPlot1D(tridentPlot, tridentColor, xAxisNames1D[i], yAxisName1D, tridentTypeName + displayNames1D[i]);
-
- // Add them to the module.
- module.addPlot1D(allFormattedPlot);
- module.addPlot1D(møllerFormattedPlot);
- module.addPlot1D(tridentFormattedPlot);
- }
- for(int i = 0; i < plotNames2D.length; i++) {
- // Get the Møller and trident plots.
- IHistogram2D allPlot = (IHistogram2D) tree.find(allPrefix + plotNames2D[i]);
- IHistogram2D møllerPlot = (IHistogram2D) tree.find(møllerPrefix + plotNames2D[i]);
- IHistogram2D tridentPlot = (IHistogram2D) tree.find(tridentPrefix + plotNames2D[i]);
-
- // Make a formatted plot for each.
- FormattedPlot2D allFormattedPlot = new FormattedPlot2D(allPlot, i == 0 ? true : false, xAxisNames2D[i], yAxisNames2D[i], allTypeName + displayNames2D[i]);
- FormattedPlot2D møllerFormattedPlot = new FormattedPlot2D(møllerPlot, i == 0 ? true : false, xAxisNames2D[i], yAxisNames2D[i], møllerTypeName + displayNames2D[i]);
- FormattedPlot2D tridentFormattedPlot = new FormattedPlot2D(tridentPlot, i == 0 ? true : false, xAxisNames2D[i], yAxisNames2D[i], tridentTypeName + displayNames2D[i]);
-
- // Add them to the module.
- module.addPlot2D(allFormattedPlot);
- module.addPlot2D(møllerFormattedPlot);
- module.addPlot2D(tridentFormattedPlot);
- }
-
- // Get the histograms for the elastic plots and add them to the module.
- for(int i = 0; i < plotNamesElastic1D.length; i++) {
- // Get the Møller and trident plots.
- IHistogram1D allPlot = (IHistogram1D) tree.find(allSinglesPrefix + plotNames1D[i]);
- IHistogram1D elasticPlot = (IHistogram1D) tree.find(elasticPrefix + plotNames1D[i]);
-
- // Make a formatted plot for each.
- FormattedPlot1D allFormattedPlot = new FormattedPlot1D(allPlot, allColor, xAxisNamesElastic1D[i], yAxisNameElastic1D,
- allSinglesTypeName + displayNamesElastic1D[i]);
- FormattedPlot1D elasticFormattedPlot = new FormattedPlot1D(elasticPlot, elasticColor, xAxisNamesElastic1D[i], yAxisNameElastic1D,
- elasticTypeName + displayNamesElastic1D[i]);
-
- // Add them to the module.
- module.addPlot1D(allFormattedPlot);
- module.addPlot1D(elasticFormattedPlot);
- }
- for(int i = 0; i < plotNamesElastic2D.length; i++) {
- // Get the Møller and trident plots.
- IHistogram2D allPlot = (IHistogram2D) tree.find(allPrefix + plotNamesElastic2D[i]);
- IHistogram2D elasticPlot = (IHistogram2D) tree.find(møllerPrefix + plotNamesElastic2D[i]);
-
- // Make a formatted plot for each.
- FormattedPlot2D allFormattedPlot = new FormattedPlot2D(allPlot, i == 0 ? true : false, xAxisNamesElastic2D[i], yAxisNamesElastic2D[i],
- allSinglesTypeName + plotNames2D[i]);
- FormattedPlot2D elasticFormattedPlot = new FormattedPlot2D(elasticPlot, i == 0 ? true : false, xAxisNamesElastic2D[i], yAxisNamesElastic2D[i],
- elasticTypeName + displayNamesElastic2D[i]);
-
- // Add them to the module.
- module.addPlot2D(allFormattedPlot);
- module.addPlot2D(elasticFormattedPlot);
- }
-
- // Add the MTE plots to the module.
- module.addPlot1D(new FormattedPlot1D((IHistogram1D) tree.find("MTE Analysis/Elastic Energy Distribution"), elasticColor,
- "Momentum (GeV)", "Count", "Elastic - Momentum"));
- module.addPlot1D(new FormattedPlot1D((IHistogram1D) tree.find("MTE Analysis/Elastic Event Tracks"), elasticColor,
- "Tracks", "Count", "Elastic - Tracks in Event"));
-
- module.addPlot1D(new FormattedPlot1D((IHistogram1D) tree.find("MTE Analysis/Møller Energy Sum Distribution"), møllerColor,
- "Momentum Sum (GeV)", "Count", "Møller - Momentum Sum"));
- module.addPlot1D(new FormattedPlot1D((IHistogram1D) tree.find("MTE Analysis/Møller Electron Energy Distribution"), møllerColor,
- "Momentum (GeV)", "Count", "Møller - Momentum (Electron)"));
- module.addPlot1D(new FormattedPlot1D((IHistogram1D) tree.find("MTE Analysis/Møller Time Coincidence Distribution (All Møller Cuts)"), møllerColor,
- "Time (ns)", "Count", "Møller - Time Coincidence"));
- module.addPlot1D(new FormattedPlot1D((IHistogram1D) tree.find("MTE Analysis/Møller Event Tracks"), møllerColor,
- "Tracks", "Count", "Møller - Tracks in Event"));
- module.addPlot2D(new FormattedPlot2D((IHistogram2D) tree.find("MTE Analysis/Møller 2D Energy Distribution"), false,
- "First Track Momentum (GeV)", "Second Track Momentum (GeV)", "Møller - 2D Momentum Sum"));
-
- module.addPlot1D(new FormattedPlot1D((IHistogram1D) tree.find("MTE Analysis/Trident Energy Sum Distribution"), tridentColor,
- "Momentum Sum (GeV)", "Count", "Trident - Momentum Sum"));
- module.addPlot1D(new FormattedPlot1D((IHistogram1D) tree.find("MTE Analysis/Trident Electron Energy Distribution"), tridentColor,
- "Momentum (GeV)", "Count", "Trident - Momentum (Electron)"));
- module.addPlot1D(new FormattedPlot1D((IHistogram1D) tree.find("MTE Analysis/Trident Positron Energy Distribution"), tridentColor,
- "Momentum (GeV)", "Count", "Trident - Momentum (Positron)"));
- module.addPlot1D(new FormattedPlot1D((IHistogram1D) tree.find("MTE Analysis/Trident Event Tracks"), tridentColor,
- "Tracks", "Count", "Trident - Tracks in Event"));
- module.addPlot2D(new FormattedPlot2D((IHistogram2D) tree.find("MTE Analysis/Trident 2D Energy Distribution"), false,
- "First Track Momentum (GeV)", "Second Track Momentum (GeV)", "Trident - 2D Momentum Sum"));
-
- // Display the plots.
- module.savePlots("C:\\Users\\Kyle\\Desktop\\EnergyShift\\TestPrint\\");
- }
+ public static void main(String[] args) throws IllegalArgumentException, IOException {
+ // Define the root directory for the plots.
+ String rootDir = "D:\\cygwin64\\home\\Kyle\\";
+
+ // Define the new name of the file containing the trigger plots.
+ String plotFile = rootDir + "5772-ana.aida";
+
+ // Get the plots file and open it.
+ IAnalysisFactory af = IAnalysisFactory.create();
+ ITree tree = af.createTreeFactory().create(plotFile);
+ if(tree == null) { throw new IllegalArgumentException("Unable to load plot file."); }
+
+ // Define the 1D trigger plot names for Møllers and tridents.
+ String[] plotNames1D = { "Cluster Hit Count", "Cluster Seed Energy", "Cluster Total Energy",
+ "Pair Coplanarity", "Pair Energy Difference", "Pair Energy Slope", "Pair Energy Sum" };
+ String[] displayNames1D = { "Cluster Hit Count", "Cluster Seed Energy", "Cluster Total Energy",
+ "Pair Coplanarity", "Pair Energy Difference", "Pair Energy Slope", "Pair Energy Sum" };
+ String[] xAxisNames1D = { "Hit Count", "Seed Energy (GeV)", "Total Energy (GeV)",
+ "Coplanarity (Degrees)", "Energy Difference (GeV)", "Energy Slope (GeV)", "Energy Sum (GeV)" };
+ String yAxisName1D = "Count";
+
+ // Define the 2D trigger plot names for Møllers and tridents.
+ String[] plotNames2D = { "Cluster Seed", "Pair Energy Sum 2D" };
+ String[] displayNames2D = { "Cluster Seed Distribution", "2D Energy Sum" };
+ String[] xAxisNames2D = { "x-Index", "Second Cluster Energy (GeV)" };
+ String[] yAxisNames2D = { "y-Index", "First Cluster Energy (GeV)" };
+
+ // Define the 1D trigger plot names for elastics.
+ String[] plotNamesElastic1D = { "Cluster Hit Count", "Cluster Seed Energy", "Cluster Total Energy" };
+ String[] displayNamesElastic1D = { "Cluster Hit Count", "Cluster Seed Energy", "Cluster Total Energy" };
+ String[] xAxisNamesElastic1D = { "Hit Count", "Seed Energy (GeV)", "Total Energy (GeV)" };
+ String yAxisNameElastic1D = "Count";
+
+ // Define the 2D trigger plot names for elastics.
+ String[] plotNamesElastic2D = { "Cluster Seed" };
+ String[] displayNamesElastic2D = { "Cluster Seed Distribution" };
+ String[] xAxisNamesElastic2D = { "x-Index" };
+ String[] yAxisNamesElastic2D = { "y-Index" };
+
+ // Define the Møller, trident, and elastic prefixes.
+ String allPrefix = "All Trigger Plots/Pair Plots/";
+ String møllerPrefix = "Møller Trigger Plots/Pair Plots/";
+ String tridentPrefix = "Trident Trigger Plots/Pair Plots/";
+ String elasticPrefix = "Elastic Trigger Plots/Singles Plots/";
+ String allSinglesPrefix = "All Trigger Plots/Singles Plots/";
+
+ // Define the plot type prefix.
+ String allTypeName = "All Pairs - ";
+ String møllerTypeName = "Møller - ";
+ String tridentTypeName = "Trident - ";
+ String elasticTypeName = "Elastic - ";
+ String allSinglesTypeName = "All Singles - ";
+
+ // Define the plot type colors.
+ ColorStyle allColor = PlotsFormatter.ColorStyle.GREY;
+ ColorStyle møllerColor = PlotsFormatter.ColorStyle.MS_BLUE;
+ ColorStyle tridentColor = PlotsFormatter.ColorStyle.MS_ORANGE;
+ ColorStyle elasticColor = PlotsFormatter.ColorStyle.MS_GREEN;
+
+ // Create a plot formatting module.
+ PlotFormatModule module = new PlotFormatModule();
+
+ // Get the histograms and add them to the module. Start with the
+ // trident and Møller plots.
+ for(int i = 0; i < plotNames1D.length; i++) {
+ // Get the Møller and trident plots.
+ IHistogram1D allPlot = (IHistogram1D) tree.find(allPrefix + plotNames1D[i]);
+ IHistogram1D møllerPlot = (IHistogram1D) tree.find(møllerPrefix + plotNames1D[i]);
+ IHistogram1D tridentPlot = (IHistogram1D) tree.find(tridentPrefix + plotNames1D[i]);
+
+ // Make a formatted plot for each.
+ FormattedPlot1D allFormattedPlot = new FormattedPlot1D(allPlot, allColor, xAxisNames1D[i], yAxisName1D, allTypeName + displayNames1D[i]);
+ FormattedPlot1D møllerFormattedPlot = new FormattedPlot1D(møllerPlot, møllerColor, xAxisNames1D[i], yAxisName1D, møllerTypeName + displayNames1D[i]);
+ FormattedPlot1D tridentFormattedPlot = new FormattedPlot1D(tridentPlot, tridentColor, xAxisNames1D[i], yAxisName1D, tridentTypeName + displayNames1D[i]);
+
+ // Add them to the module.
+ module.addPlot1D(allFormattedPlot);
+ module.addPlot1D(møllerFormattedPlot);
+ module.addPlot1D(tridentFormattedPlot);
+ }
+ for(int i = 0; i < plotNames2D.length; i++) {
+ // Get the Møller and trident plots.
+ IHistogram2D allPlot = (IHistogram2D) tree.find(allPrefix + plotNames2D[i]);
+ IHistogram2D møllerPlot = (IHistogram2D) tree.find(møllerPrefix + plotNames2D[i]);
+ IHistogram2D tridentPlot = (IHistogram2D) tree.find(tridentPrefix + plotNames2D[i]);
+
+ // Make a formatted plot for each.
+ FormattedPlot2D allFormattedPlot = new FormattedPlot2D(allPlot, i == 0 ? true : false, xAxisNames2D[i], yAxisNames2D[i], allTypeName + displayNames2D[i]);
+ FormattedPlot2D møllerFormattedPlot = new FormattedPlot2D(møllerPlot, i == 0 ? true : false, xAxisNames2D[i], yAxisNames2D[i], møllerTypeName + displayNames2D[i]);
+ FormattedPlot2D tridentFormattedPlot = new FormattedPlot2D(tridentPlot, i == 0 ? true : false, xAxisNames2D[i], yAxisNames2D[i], tridentTypeName + displayNames2D[i]);
+
+ // Add them to the module.
+ module.addPlot2D(allFormattedPlot);
+ module.addPlot2D(møllerFormattedPlot);
+ module.addPlot2D(tridentFormattedPlot);
+ }
+
+ // Get the histograms for the elastic plots and add them to the module.
+ for(int i = 0; i < plotNamesElastic1D.length; i++) {
+ // Get the Møller and trident plots.
+ IHistogram1D allPlot = (IHistogram1D) tree.find(allSinglesPrefix + plotNames1D[i]);
+ IHistogram1D elasticPlot = (IHistogram1D) tree.find(elasticPrefix + plotNames1D[i]);
+
+ // Make a formatted plot for each.
+ FormattedPlot1D allFormattedPlot = new FormattedPlot1D(allPlot, allColor, xAxisNamesElastic1D[i], yAxisNameElastic1D,
+ allSinglesTypeName + displayNamesElastic1D[i]);
+ FormattedPlot1D elasticFormattedPlot = new FormattedPlot1D(elasticPlot, elasticColor, xAxisNamesElastic1D[i], yAxisNameElastic1D,
+ elasticTypeName + displayNamesElastic1D[i]);
+
+ // Add them to the module.
+ module.addPlot1D(allFormattedPlot);
+ module.addPlot1D(elasticFormattedPlot);
+ }
+ for(int i = 0; i < plotNamesElastic2D.length; i++) {
+ // Get the Møller and trident plots.
+ IHistogram2D allPlot = (IHistogram2D) tree.find(allPrefix + plotNamesElastic2D[i]);
+ IHistogram2D elasticPlot = (IHistogram2D) tree.find(møllerPrefix + plotNamesElastic2D[i]);
+
+ // Make a formatted plot for each.
+ FormattedPlot2D allFormattedPlot = new FormattedPlot2D(allPlot, i == 0 ? true : false, xAxisNamesElastic2D[i], yAxisNamesElastic2D[i],
+ allSinglesTypeName + plotNames2D[i]);
+ FormattedPlot2D elasticFormattedPlot = new FormattedPlot2D(elasticPlot, i == 0 ? true : false, xAxisNamesElastic2D[i], yAxisNamesElastic2D[i],
+ elasticTypeName + displayNamesElastic2D[i]);
+
+ // Add them to the module.
+ module.addPlot2D(allFormattedPlot);
+ module.addPlot2D(elasticFormattedPlot);
+ }
+
+ // Add the MTE plots to the module.
+ module.addPlot1D(new FormattedPlot1D((IHistogram1D) tree.find("MTE Analysis/Elastic Energy Distribution"), elasticColor,
+ "Momentum (GeV)", "Count", "Elastic - Momentum"));
+ module.addPlot1D(new FormattedPlot1D((IHistogram1D) tree.find("MTE Analysis/Elastic Event Tracks"), elasticColor,
+ "Tracks", "Count", "Elastic - Tracks in Event"));
+
+ module.addPlot1D(new FormattedPlot1D((IHistogram1D) tree.find("MTE Analysis/Møller Energy Sum Distribution"), møllerColor,
+ "Momentum Sum (GeV)", "Count", "Møller - Momentum Sum"));
+ module.addPlot1D(new FormattedPlot1D((IHistogram1D) tree.find("MTE Analysis/Møller Electron Energy Distribution"), møllerColor,
+ "Momentum (GeV)", "Count", "Møller - Momentum (Electron)"));
+ module.addPlot1D(new FormattedPlot1D((IHistogram1D) tree.find("MTE Analysis/Møller Time Coincidence Distribution (All Møller Cuts)"), møllerColor,
+ "Time (ns)", "Count", "Møller - Time Coincidence"));
+ module.addPlot1D(new FormattedPlot1D((IHistogram1D) tree.find("MTE Analysis/Møller Event Tracks"), møllerColor,
+ "Tracks", "Count", "Møller - Tracks in Event"));
+ module.addPlot2D(new FormattedPlot2D((IHistogram2D) tree.find("MTE Analysis/Møller 2D Energy Distribution"), false,
+ "First Track Momentum (GeV)", "Second Track Momentum (GeV)", "Møller - 2D Momentum Sum"));
+
+ module.addPlot1D(new FormattedPlot1D((IHistogram1D) tree.find("MTE Analysis/Trident Energy Sum Distribution"), tridentColor,
+ "Momentum Sum (GeV)", "Count", "Trident - Momentum Sum"));
+ module.addPlot1D(new FormattedPlot1D((IHistogram1D) tree.find("MTE Analysis/Trident Electron Energy Distribution"), tridentColor,
+ "Momentum (GeV)", "Count", "Trident - Momentum (Electron)"));
+ module.addPlot1D(new FormattedPlot1D((IHistogram1D) tree.find("MTE Analysis/Trident Positron Energy Distribution"), tridentColor,
+ "Momentum (GeV)", "Count", "Trident - Momentum (Positron)"));
+ module.addPlot1D(new FormattedPlot1D((IHistogram1D) tree.find("MTE Analysis/Trident Event Tracks"), tridentColor,
+ "Tracks", "Count", "Trident - Tracks in Event"));
+ module.addPlot2D(new FormattedPlot2D((IHistogram2D) tree.find("MTE Analysis/Trident 2D Energy Distribution"), false,
+ "First Track Momentum (GeV)", "Second Track Momentum (GeV)", "Trident - 2D Momentum Sum"));
+
+ // Display the plots.
+ module.savePlots("C:\\Users\\Kyle\\Desktop\\EnergyShift\\TestPrint\\");
+ }
}
Modified: java/trunk/users/src/main/java/org/hps/users/kmccarty/plots/formatter/ParticleMCAnalysisPlotsFormatter.java
=============================================================================
--- java/trunk/users/src/main/java/org/hps/users/kmccarty/plots/formatter/ParticleMCAnalysisPlotsFormatter.java (original)
+++ java/trunk/users/src/main/java/org/hps/users/kmccarty/plots/formatter/ParticleMCAnalysisPlotsFormatter.java Tue Sep 27 08:50:14 2016
@@ -13,43 +13,43 @@
import org.hps.users.kmccarty.plots.PlotsFormatter.ColorStyle;
public class ParticleMCAnalysisPlotsFormatter {
- public static void main(String[] args) throws IllegalArgumentException, IOException {
- // Define the root directory for the plots.
- String rootDir = "D:\\cygwin64\\home\\Kyle\\";
-
- // Define the new name of the file containing the trigger plots.
- String plotFile = rootDir + "moller-mc-out_triggerPlots.aida";
-
- // Get the plots file and open it.
- IAnalysisFactory af = IAnalysisFactory.create();
- ITree tree = af.createTreeFactory().create(plotFile);
- if(tree == null) { throw new IllegalArgumentException("Unable to load plot file."); }
-
- // Create a plot formatting module.
- PlotFormatModule module = new PlotFormatModule();
-
- // Define the plot color.
- ColorStyle plotColor = ColorStyle.MS_BLUE;
-
- // Define the plots to be read.
- module.addPlot1D(new FormattedPlot1D((IHistogram1D) tree.find("MC Analysis/Electron Energy Distribution"),
- plotColor, "Electron Energy (GeV)", "Count", "Electron Energy Distribution"));
- module.addPlot1D(new FormattedPlot1D((IHistogram1D) tree.find("MC Analysis/Electron\\Electron Momentum Sum Distribution"),
- plotColor, "Momentum Sum (GeV)", "Count", "Momentum Sum Distribution"));
- module.addPlot1D(new FormattedPlot1D((IHistogram1D) tree.find("MC Analysis/Electron\\Electron Pair Angle Distribution"),
- plotColor, "Momentum Sum (GeV)", "Count", "Pair Angle Distribution"));
- module.addPlot1D(new FormattedPlot1D((IHistogram1D) tree.find("MC Analysis/Particle x-Momentum Distribution"),
- plotColor, "Momentum (GeV)", "Count", "Particle x-Momentum Distribution"));
- module.addPlot1D(new FormattedPlot1D((IHistogram1D) tree.find("MC Analysis/Particle y-Momentum Distribution"),
- plotColor, "Momentum (GeV)", "Count", "Particle y-Momentum Distribution"));
- module.addPlot1D(new FormattedPlot1D((IHistogram1D) tree.find("MC Analysis/Particle z-Momentum Distribution"),
- plotColor, "Momentum (GeV)", "Count", "Particle z-Momentum Distribution"));
- module.addPlot2D(new FormattedPlot2D((IHistogram2D) tree.find("MC Analysis/Electron\\Electron 2D Momentum Distribution"),
- true, "Particle 1 Momentum (GeV)", "Particle 2 Momentum (GeV)", "2D Momentum Sum Distribution"));
- module.addPlot2D(new FormattedPlot2D((IHistogram2D) tree.find("MC Analysis/Particle Momentum Distribution"),
- true, "px (GeV)", "py (GeV)", "Particle x/y Momentum Distribution"));
-
- // Display the plots.
- module.displayPlots();
- }
+ public static void main(String[] args) throws IllegalArgumentException, IOException {
+ // Define the root directory for the plots.
+ String rootDir = "D:\\cygwin64\\home\\Kyle\\";
+
+ // Define the new name of the file containing the trigger plots.
+ String plotFile = rootDir + "moller-mc-out_triggerPlots.aida";
+
+ // Get the plots file and open it.
+ IAnalysisFactory af = IAnalysisFactory.create();
+ ITree tree = af.createTreeFactory().create(plotFile);
+ if(tree == null) { throw new IllegalArgumentException("Unable to load plot file."); }
+
+ // Create a plot formatting module.
+ PlotFormatModule module = new PlotFormatModule();
+
+ // Define the plot color.
+ ColorStyle plotColor = ColorStyle.MS_BLUE;
+
+ // Define the plots to be read.
+ module.addPlot1D(new FormattedPlot1D((IHistogram1D) tree.find("MC Analysis/Electron Energy Distribution"),
+ plotColor, "Electron Energy (GeV)", "Count", "Electron Energy Distribution"));
+ module.addPlot1D(new FormattedPlot1D((IHistogram1D) tree.find("MC Analysis/Electron\\Electron Momentum Sum Distribution"),
+ plotColor, "Momentum Sum (GeV)", "Count", "Momentum Sum Distribution"));
+ module.addPlot1D(new FormattedPlot1D((IHistogram1D) tree.find("MC Analysis/Electron\\Electron Pair Angle Distribution"),
+ plotColor, "Momentum Sum (GeV)", "Count", "Pair Angle Distribution"));
+ module.addPlot1D(new FormattedPlot1D((IHistogram1D) tree.find("MC Analysis/Particle x-Momentum Distribution"),
+ plotColor, "Momentum (GeV)", "Count", "Particle x-Momentum Distribution"));
+ module.addPlot1D(new FormattedPlot1D((IHistogram1D) tree.find("MC Analysis/Particle y-Momentum Distribution"),
+ plotColor, "Momentum (GeV)", "Count", "Particle y-Momentum Distribution"));
+ module.addPlot1D(new FormattedPlot1D((IHistogram1D) tree.find("MC Analysis/Particle z-Momentum Distribution"),
+ plotColor, "Momentum (GeV)", "Count", "Particle z-Momentum Distribution"));
+ module.addPlot2D(new FormattedPlot2D((IHistogram2D) tree.find("MC Analysis/Electron\\Electron 2D Momentum Distribution"),
+ true, "Particle 1 Momentum (GeV)", "Particle 2 Momentum (GeV)", "2D Momentum Sum Distribution"));
+ module.addPlot2D(new FormattedPlot2D((IHistogram2D) tree.find("MC Analysis/Particle Momentum Distribution"),
+ true, "px (GeV)", "py (GeV)", "Particle x/y Momentum Distribution"));
+
+ // Display the plots.
+ module.displayPlots();
+ }
}
Modified: java/trunk/users/src/main/java/org/hps/users/kmccarty/plots/formatter/RafoTridentFormatter.java
=============================================================================
--- java/trunk/users/src/main/java/org/hps/users/kmccarty/plots/formatter/RafoTridentFormatter.java (original)
+++ java/trunk/users/src/main/java/org/hps/users/kmccarty/plots/formatter/RafoTridentFormatter.java Tue Sep 27 08:50:14 2016
@@ -13,101 +13,101 @@
import hep.aida.ITree;
public class RafoTridentFormatter {
- /**
- * Loads all plots in a file and formats them according to the
- * indicated style.
- * @param args - Unused default executable parameter.
- * @throws IOException Occurs if there is an issue opening the file.
- */
- public static void main(String[] args) throws IOException {
- // Define the root directory for the plots.
- String rootDir = "D:\\cygwin64\\home\\Kyle\\";
-
- // Define the new name of the file containing the trigger plots.
- String plotFile = rootDir + "mte-out.aida";
-
- // Get the plots file and open it.
- IAnalysisFactory af = IAnalysisFactory.create();
- ITree tree = af.createTreeFactory().create(plotFile);
- if(tree == null) { throw new IllegalArgumentException("Unable to load plot file."); }
-
- // Declare the histogram names.
- String energySumName = "Energy Sum";
- String timeCoincidenceName = "Time Coincidence";
- String timeEnergy2DName = "Cluster Time vs. Cluster Energy";
- String hCoplanaritySum2DName = "Hardware Coplanarity vs. Energy Sum";
- String coplanaritySum2DName = "Calculated Coplanarity vs. Energy Sum";
- String energySum2DName = "Top Cluster Energy vs. Bottom Cluster Energy";
- String fiducial = " (Fiducial Region)";
-
- // Get the histograms.
- IHistogram1D[] energySum = {
- (IHistogram1D) tree.find("Trident/" + energySumName),
- (IHistogram1D) tree.find("Trident/" + energySumName + fiducial)
- };
- IHistogram1D[] timeCoincidence = {
- (IHistogram1D) tree.find("Trident/" + timeCoincidenceName),
- (IHistogram1D) tree.find("Trident/" + timeCoincidenceName + fiducial)
- };
- IHistogram2D[] coplanaritySum = {
- (IHistogram2D) tree.find("Trident/" + coplanaritySum2DName),
- (IHistogram2D) tree.find("Trident/" + coplanaritySum2DName + fiducial)
- };
- IHistogram2D[] hcoplanaritySum = {
- (IHistogram2D) tree.find("Trident/" + hCoplanaritySum2DName),
- (IHistogram2D) tree.find("Trident/" + hCoplanaritySum2DName + fiducial)
- };
- IHistogram2D[] energySum2D = {
- (IHistogram2D) tree.find("Trident/" + energySum2DName),
- (IHistogram2D) tree.find("Trident/" + energySum2DName + fiducial)
- };
- IHistogram2D[] timeEnergy = {
- (IHistogram2D) tree.find("Trident/" + timeEnergy2DName),
- (IHistogram2D) tree.find("Trident/" + timeEnergy2DName + fiducial)
- };
-
- // Define the scaling factors for each plot.
- double scaleFactor = 19000.0 / 9736969.0;
-
- // Define the plot titles and arrays for 1D plots.
- IHistogram1D[][] plots = { energySum, timeCoincidence };
- String titles[] = { energySumName, timeCoincidenceName, coplanaritySum2DName, hCoplanaritySum2DName, energySum2DName, timeEnergy2DName };
- String[] xTitles = { "Energy (GeV)", "Time Difference (ns)" };
- String yTitle = "Rate (Hz)";
-
- // Define the plot titles and arrays for 2D plots.
- IHistogram2D[][] plots2D = { coplanaritySum, hcoplanaritySum, energySum2D, timeEnergy };
- String[] titles2D = { coplanaritySum2DName, hCoplanaritySum2DName, energySum2DName, timeEnergy2DName };
- String[] xTitles2D = { "Coplanarity (Degrees)", "Coplanarity (Degrees)", "Top Cluster Energy (GeV)", "Time Coincidence (ns)" };
- String[] yTitles2D = { "Energy Sum (GeV)", "Energy Sum (GeV)", "Bottom Cluster Energy (GeV)", "Energy Sum (GeV)" };
- String zTitle2D = "Rate (Hz)";
-
- // Create a plot formatting module.
- PlotFormatModule module = new PlotFormatModule();
-
- // Define the plot color.
- ColorStyle plotColor = ColorStyle.MS_BLUE;
-
- // Define the plots to be read.
- for(int i = 0; i < plots.length; i++) {
- plots[i][0].scale(scaleFactor);
- plots[i][1].scale(scaleFactor);
- module.addPlot1D(new FormattedPlot1D(plots[i][0], plotColor, xTitles[i], yTitle, titles[i]));
- module.addPlot1D(new FormattedPlot1D(plots[i][1], plotColor, xTitles[i], yTitle, titles[i] + fiducial));
- }
- for(int i = 0; i < plots2D.length; i++) {
- plots2D[i][0].scale(scaleFactor);
- plots2D[i][1].scale(scaleFactor);
- module.addPlot2D(new FormattedPlot2D(plots2D[i][0], false, xTitles2D[i], yTitles2D[i], titles2D[i]));
- module.addPlot2D(new FormattedPlot2D(plots2D[i][1], false, xTitles2D[i], yTitles2D[i], titles2D[i] + fiducial));
- }
-
- // Display the plots.
- //module.displayPlots();
- module.savePlots("C:\\Users\\Kyle\\Desktop\\EnergyShift\\run-5772\\RafoPlots\\");
- module.exportPlots("C:\\Users\\Kyle\\Desktop\\EnergyShift\\run-5772\\RafoPlots\\");
-
- // Close the tree.
- tree.close();
- }
+ /**
+ * Loads all plots in a file and formats them according to the
+ * indicated style.
+ * @param args - Unused default executable parameter.
+ * @throws IOException Occurs if there is an issue opening the file.
+ */
+ public static void main(String[] args) throws IOException {
+ // Define the root directory for the plots.
+ String rootDir = "D:\\cygwin64\\home\\Kyle\\";
+
+ // Define the new name of the file containing the trigger plots.
+ String plotFile = rootDir + "mte-out.aida";
+
+ // Get the plots file and open it.
+ IAnalysisFactory af = IAnalysisFactory.create();
+ ITree tree = af.createTreeFactory().create(plotFile);
+ if(tree == null) { throw new IllegalArgumentException("Unable to load plot file."); }
+
+ // Declare the histogram names.
+ String energySumName = "Energy Sum";
+ String timeCoincidenceName = "Time Coincidence";
+ String timeEnergy2DName = "Cluster Time vs. Cluster Energy";
+ String hCoplanaritySum2DName = "Hardware Coplanarity vs. Energy Sum";
+ String coplanaritySum2DName = "Calculated Coplanarity vs. Energy Sum";
+ String energySum2DName = "Top Cluster Energy vs. Bottom Cluster Energy";
+ String fiducial = " (Fiducial Region)";
+
+ // Get the histograms.
+ IHistogram1D[] energySum = {
+ (IHistogram1D) tree.find("Trident/" + energySumName),
+ (IHistogram1D) tree.find("Trident/" + energySumName + fiducial)
+ };
+ IHistogram1D[] timeCoincidence = {
+ (IHistogram1D) tree.find("Trident/" + timeCoincidenceName),
+ (IHistogram1D) tree.find("Trident/" + timeCoincidenceName + fiducial)
+ };
+ IHistogram2D[] coplanaritySum = {
+ (IHistogram2D) tree.find("Trident/" + coplanaritySum2DName),
+ (IHistogram2D) tree.find("Trident/" + coplanaritySum2DName + fiducial)
+ };
+ IHistogram2D[] hcoplanaritySum = {
+ (IHistogram2D) tree.find("Trident/" + hCoplanaritySum2DName),
+ (IHistogram2D) tree.find("Trident/" + hCoplanaritySum2DName + fiducial)
+ };
+ IHistogram2D[] energySum2D = {
+ (IHistogram2D) tree.find("Trident/" + energySum2DName),
+ (IHistogram2D) tree.find("Trident/" + energySum2DName + fiducial)
+ };
+ IHistogram2D[] timeEnergy = {
+ (IHistogram2D) tree.find("Trident/" + timeEnergy2DName),
+ (IHistogram2D) tree.find("Trident/" + timeEnergy2DName + fiducial)
+ };
+
+ // Define the scaling factors for each plot.
+ double scaleFactor = 19000.0 / 9736969.0;
+
+ // Define the plot titles and arrays for 1D plots.
+ IHistogram1D[][] plots = { energySum, timeCoincidence };
+ String titles[] = { energySumName, timeCoincidenceName, coplanaritySum2DName, hCoplanaritySum2DName, energySum2DName, timeEnergy2DName };
+ String[] xTitles = { "Energy (GeV)", "Time Difference (ns)" };
+ String yTitle = "Rate (Hz)";
+
+ // Define the plot titles and arrays for 2D plots.
+ IHistogram2D[][] plots2D = { coplanaritySum, hcoplanaritySum, energySum2D, timeEnergy };
+ String[] titles2D = { coplanaritySum2DName, hCoplanaritySum2DName, energySum2DName, timeEnergy2DName };
+ String[] xTitles2D = { "Coplanarity (Degrees)", "Coplanarity (Degrees)", "Top Cluster Energy (GeV)", "Time Coincidence (ns)" };
+ String[] yTitles2D = { "Energy Sum (GeV)", "Energy Sum (GeV)", "Bottom Cluster Energy (GeV)", "Energy Sum (GeV)" };
+ String zTitle2D = "Rate (Hz)";
+
+ // Create a plot formatting module.
+ PlotFormatModule module = new PlotFormatModule();
+
+ // Define the plot color.
+ ColorStyle plotColor = ColorStyle.MS_BLUE;
+
+ // Define the plots to be read.
+ for(int i = 0; i < plots.length; i++) {
+ plots[i][0].scale(scaleFactor);
+ plots[i][1].scale(scaleFactor);
+ module.addPlot1D(new FormattedPlot1D(plots[i][0], plotColor, xTitles[i], yTitle, titles[i]));
+ module.addPlot1D(new FormattedPlot1D(plots[i][1], plotColor, xTitles[i], yTitle, titles[i] + fiducial));
+ }
+ for(int i = 0; i < plots2D.length; i++) {
+ plots2D[i][0].scale(scaleFactor);
+ plots2D[i][1].scale(scaleFactor);
+ module.addPlot2D(new FormattedPlot2D(plots2D[i][0], false, xTitles2D[i], yTitles2D[i], titles2D[i]));
+ module.addPlot2D(new FormattedPlot2D(plots2D[i][1], false, xTitles2D[i], yTitles2D[i], titles2D[i] + fiducial));
+ }
+
+ // Display the plots.
+ //module.displayPlots();
+ module.savePlots("C:\\Users\\Kyle\\Desktop\\EnergyShift\\run-5772\\RafoPlots\\");
+ module.exportPlots("C:\\Users\\Kyle\\Desktop\\EnergyShift\\run-5772\\RafoPlots\\");
+
+ // Close the tree.
+ tree.close();
+ }
}
Modified: java/trunk/users/src/main/java/org/hps/users/kmccarty/plots/formatter/SingleTriggerPlotsFormatter.java
=============================================================================
--- java/trunk/users/src/main/java/org/hps/users/kmccarty/plots/formatter/SingleTriggerPlotsFormatter.java (original)
+++ java/trunk/users/src/main/java/org/hps/users/kmccarty/plots/formatter/SingleTriggerPlotsFormatter.java Tue Sep 27 08:50:14 2016
@@ -13,151 +13,151 @@
import hep.aida.ITree;
public class SingleTriggerPlotsFormatter {
-
- public static void main(String[] args) throws IllegalArgumentException, IOException {
- // Define the root directory for the plots.
- String rootDir = "D:\\cygwin64\\home\\Kyle\\";
-
- // Define the new name of the file containing the trigger plots.
- String plotFile = rootDir + "trident-readout-full.aida";
-
- // Get the plots file and open it.
- IAnalysisFactory af = IAnalysisFactory.create();
- ITree tree = af.createTreeFactory().create(plotFile);
- if(tree == null) { throw new IllegalArgumentException("Unable to load plot file."); }
-
- // Define plots variables.
- int UNCUT = 0;
- int TRIGGERED = 1;
- String[] plotsDir = { "NoCuts/", "PassedAll/" };
- int PLOT_HIT_COUNT = 0;
- int PLOT_SEED_ENERGY = 1;
- int PLOT_CLUSTER_ENERGY = 2;
- int PLOT_COPLANARITY = 3;
- int PLOT_ENERGY_SUM = 4;
- int PLOT_ENERGY_DIFF = 5;
- int PLOT_ENERGY_SLOPE = 6;
- int PLOT_SEED_DIST = 0;
- int PLOT_ENERGY_SUM_2D = 1;
-
- // Define the internal plot names.
- String[] plotNameInternal1D = new String[7];
- String[] plotNameInternal2D = new String[2];
- plotNameInternal1D[PLOT_HIT_COUNT] = "Cluster Hit Count";
- plotNameInternal1D[PLOT_SEED_ENERGY] = "Cluster Seed Energy";
- plotNameInternal1D[PLOT_CLUSTER_ENERGY] = "Cluster Total Energy";
- plotNameInternal1D[PLOT_COPLANARITY] = "Pair Coplanarity";
- plotNameInternal1D[PLOT_ENERGY_SUM] = "Pair Energy Sum";
- plotNameInternal1D[PLOT_ENERGY_DIFF] = "Pair Energy Difference";
- plotNameInternal1D[PLOT_ENERGY_SLOPE] = "Pair Energy Slope";
- plotNameInternal2D[PLOT_SEED_DIST] = "Cluster Seed";
- plotNameInternal2D[PLOT_ENERGY_SUM_2D] = "Pair Energy Sum 2D";
-
- // Define the plot display names.
- String[] plotName1D = new String[7];
- String[] plotName2D = new String[2];
- for(int j = 0; j < plotNameInternal1D.length; j++) {
- plotName1D[j] = plotNameInternal1D[j];
- }
- for(int j = 0; j < plotNameInternal2D.length; j++) {
- plotName2D[j] = plotNameInternal2D[j];
- }
- plotName1D[PLOT_ENERGY_SUM] = "1D Pair Energy Sum";
- plotName2D[PLOT_SEED_DIST] = "Cluster Seed Distribution";
- plotName2D[PLOT_ENERGY_SUM_2D] = "2D Pair Energy Sum";
-
- String[] xTitles1D = new String[plotName1D.length];
- String[] xTitles2D = new String[plotName2D.length];
- xTitles1D[PLOT_HIT_COUNT] = "Hit Count";
- xTitles1D[PLOT_SEED_ENERGY] = "Seed Energy (GeV)";
- xTitles1D[PLOT_CLUSTER_ENERGY] = "Cluster Energy (GeV)";
- xTitles1D[PLOT_COPLANARITY] = "Coplanarity Angle (Degrees)";
- xTitles1D[PLOT_ENERGY_SUM] = "Energy Sum (GeV)";
- xTitles1D[PLOT_ENERGY_DIFF] = "Energy Difference (GeV)";
- xTitles1D[PLOT_ENERGY_SLOPE] = "Energy Slope (GeV)";
- xTitles2D[PLOT_SEED_DIST] = "x-Index";
- xTitles2D[PLOT_ENERGY_SUM_2D] = "First Cluster Energy (GeV)";
- String yTitle1D = "Count";
- String[] yTitles2D = new String[plotName2D.length];
- yTitles2D[PLOT_SEED_DIST] = "y-Index";
- yTitles2D[PLOT_ENERGY_SUM_2D] = "Second Cluster Energy (GeV)";
-
- // Define axis ranges.
- double[] axisRanges1D = new double[plotName1D.length];
- axisRanges1D[PLOT_HIT_COUNT] = -1;
- axisRanges1D[PLOT_SEED_ENERGY] = 1.1;
- axisRanges1D[PLOT_CLUSTER_ENERGY] = 1.1;
- axisRanges1D[PLOT_COPLANARITY] = 180;
- axisRanges1D[PLOT_ENERGY_SUM] = 2.2;
- axisRanges1D[PLOT_ENERGY_DIFF] = 1.1;
- axisRanges1D[PLOT_ENERGY_SLOPE] = 2.4;
- double[] xAxisRanges2D = new double[plotName2D.length];
- double[] yAxisRanges2D = new double[plotName2D.length];
- xAxisRanges2D[PLOT_SEED_DIST] = -1;
- xAxisRanges2D[PLOT_ENERGY_SUM_2D] = 1.1;
- yAxisRanges2D[PLOT_SEED_DIST] = -1;
- yAxisRanges2D[PLOT_ENERGY_SUM_2D] = 1.1;
-
- // Define the plot names.
- String[][] plotLocations1D = new String[plotsDir.length][plotNameInternal1D.length];
- String[][] plotLocations2D = new String[plotsDir.length][plotNameInternal2D.length];
- for(int i = 0; i < plotsDir.length; i++) {
- for(int j = 0; j < plotNameInternal1D.length; j++) {
- plotLocations1D[i][j] = plotsDir[i] + plotNameInternal1D[j];
- }
- }
- for(int i = 0; i < plotsDir.length; i++) {
- for(int j = 0; j < plotNameInternal2D.length; j++) {
- plotLocations2D[i][j] = plotsDir[i] + plotNameInternal2D[j];
- }
- }
-
- // Create a plot formatting module.
- PlotFormatModule module = new PlotFormatModule();
-
- // Load the plot objects.
- for(int i = 0; i < plotName1D.length; i++) {
- // Get the uncut and triggered plots.
- IHistogram1D uncutPlot = (IHistogram1D) tree.find(plotLocations1D[UNCUT][i]);
- IHistogram1D triggeredPlot = (IHistogram1D) tree.find(plotLocations1D[TRIGGERED][i] + " (Passed All Cuts)");
-
- // Make a formatted plot for each.
- FormattedPlot1D uncutFormattedPlot;
- FormattedPlot1D triggeredFormattedPlot;
- if(axisRanges1D[i] != -1) {
- uncutFormattedPlot = new FormattedPlot1D(uncutPlot, PlotsFormatter.ColorStyle.GREY, xTitles1D[i], yTitle1D, plotName1D[i] + " (No Cuts)", axisRanges1D[i]);
- triggeredFormattedPlot = new FormattedPlot1D(triggeredPlot, PlotsFormatter.ColorStyle.MS_GREEN, xTitles1D[i], yTitle1D, plotName1D[i] + " (Triggered)", axisRanges1D[i]);
- } else {
- uncutFormattedPlot = new FormattedPlot1D(uncutPlot, PlotsFormatter.ColorStyle.GREY, xTitles1D[i], yTitle1D, plotName1D[i] + " (No Cuts)");
- triggeredFormattedPlot = new FormattedPlot1D(triggeredPlot, PlotsFormatter.ColorStyle.MS_GREEN, xTitles1D[i], yTitle1D, plotName1D[i] + " (Triggered)");
- }
-
- // Add the plots to the module.
- module.addPlot1D(uncutFormattedPlot);
- module.addPlot1D(triggeredFormattedPlot);
- }
- for(int i = 0; i < plotName2D.length; i++) {
- // Get the uncut and triggered plots.
- IHistogram2D uncutPlot = (IHistogram2D) tree.find(plotLocations2D[UNCUT][i]);
- IHistogram2D triggeredPlot = (IHistogram2D) tree.find(plotLocations2D[TRIGGERED][i] + " (Passed All Cuts)");
-
- // Make a formatted plot for each.
- FormattedPlot2D uncutFormattedPlot;
- FormattedPlot2D triggeredFormattedPlot;
- if(xAxisRanges2D[i] != -1) {
- uncutFormattedPlot = new FormattedPlot2D(uncutPlot, true, xTitles2D[i], yTitles2D[i], plotName2D[i] + " (No Cuts)", xAxisRanges2D[i], yAxisRanges2D[i]);
- triggeredFormattedPlot = new FormattedPlot2D(triggeredPlot, true, xTitles2D[i], yTitles2D[i], plotName2D[i] + " (Triggered)", xAxisRanges2D[i], yAxisRanges2D[i]);
- } else {
- uncutFormattedPlot = new FormattedPlot2D(uncutPlot, true, xTitles2D[i], yTitles2D[i], plotName2D[i] + " (No Cuts)");
- triggeredFormattedPlot = new FormattedPlot2D(triggeredPlot, true, xTitles2D[i], yTitles2D[i], plotName2D[i] + " (Triggered)");
- }
-
- // Add the plots to the module.
- module.addPlot2D(uncutFormattedPlot);
- module.addPlot2D(triggeredFormattedPlot);
- }
-
- // Save the plots.
- module.savePlots("C:\\Users\\Kyle\\Desktop\\EnergyShift\\MonteCarlo\\Trident\\Trigger\\");
- }
+
+ public static void main(String[] args) throws IllegalArgumentException, IOException {
+ // Define the root directory for the plots.
+ String rootDir = "D:\\cygwin64\\home\\Kyle\\";
+
+ // Define the new name of the file containing the trigger plots.
+ String plotFile = rootDir + "trident-readout-full.aida";
+
+ // Get the plots file and open it.
+ IAnalysisFactory af = IAnalysisFactory.create();
+ ITree tree = af.createTreeFactory().create(plotFile);
+ if(tree == null) { throw new IllegalArgumentException("Unable to load plot file."); }
+
+ // Define plots variables.
+ int UNCUT = 0;
+ int TRIGGERED = 1;
+ String[] plotsDir = { "NoCuts/", "PassedAll/" };
+ int PLOT_HIT_COUNT = 0;
+ int PLOT_SEED_ENERGY = 1;
+ int PLOT_CLUSTER_ENERGY = 2;
+ int PLOT_COPLANARITY = 3;
+ int PLOT_ENERGY_SUM = 4;
+ int PLOT_ENERGY_DIFF = 5;
+ int PLOT_ENERGY_SLOPE = 6;
+ int PLOT_SEED_DIST = 0;
+ int PLOT_ENERGY_SUM_2D = 1;
+
+ // Define the internal plot names.
+ String[] plotNameInternal1D = new String[7];
+ String[] plotNameInternal2D = new String[2];
+ plotNameInternal1D[PLOT_HIT_COUNT] = "Cluster Hit Count";
+ plotNameInternal1D[PLOT_SEED_ENERGY] = "Cluster Seed Energy";
+ plotNameInternal1D[PLOT_CLUSTER_ENERGY] = "Cluster Total Energy";
+ plotNameInternal1D[PLOT_COPLANARITY] = "Pair Coplanarity";
+ plotNameInternal1D[PLOT_ENERGY_SUM] = "Pair Energy Sum";
+ plotNameInternal1D[PLOT_ENERGY_DIFF] = "Pair Energy Difference";
+ plotNameInternal1D[PLOT_ENERGY_SLOPE] = "Pair Energy Slope";
+ plotNameInternal2D[PLOT_SEED_DIST] = "Cluster Seed";
+ plotNameInternal2D[PLOT_ENERGY_SUM_2D] = "Pair Energy Sum 2D";
+
+ // Define the plot display names.
+ String[] plotName1D = new String[7];
+ String[] plotName2D = new String[2];
+ for(int j = 0; j < plotNameInternal1D.length; j++) {
+ plotName1D[j] = plotNameInternal1D[j];
+ }
+ for(int j = 0; j < plotNameInternal2D.length; j++) {
+ plotName2D[j] = plotNameInternal2D[j];
+ }
+ plotName1D[PLOT_ENERGY_SUM] = "1D Pair Energy Sum";
+ plotName2D[PLOT_SEED_DIST] = "Cluster Seed Distribution";
+ plotName2D[PLOT_ENERGY_SUM_2D] = "2D Pair Energy Sum";
+
+ String[] xTitles1D = new String[plotName1D.length];
+ String[] xTitles2D = new String[plotName2D.length];
+ xTitles1D[PLOT_HIT_COUNT] = "Hit Count";
+ xTitles1D[PLOT_SEED_ENERGY] = "Seed Energy (GeV)";
+ xTitles1D[PLOT_CLUSTER_ENERGY] = "Cluster Energy (GeV)";
+ xTitles1D[PLOT_COPLANARITY] = "Coplanarity Angle (Degrees)";
+ xTitles1D[PLOT_ENERGY_SUM] = "Energy Sum (GeV)";
+ xTitles1D[PLOT_ENERGY_DIFF] = "Energy Difference (GeV)";
+ xTitles1D[PLOT_ENERGY_SLOPE] = "Energy Slope (GeV)";
+ xTitles2D[PLOT_SEED_DIST] = "x-Index";
+ xTitles2D[PLOT_ENERGY_SUM_2D] = "First Cluster Energy (GeV)";
+ String yTitle1D = "Count";
+ String[] yTitles2D = new String[plotName2D.length];
+ yTitles2D[PLOT_SEED_DIST] = "y-Index";
+ yTitles2D[PLOT_ENERGY_SUM_2D] = "Second Cluster Energy (GeV)";
+
+ // Define axis ranges.
+ double[] axisRanges1D = new double[plotName1D.length];
+ axisRanges1D[PLOT_HIT_COUNT] = -1;
+ axisRanges1D[PLOT_SEED_ENERGY] = 1.1;
+ axisRanges1D[PLOT_CLUSTER_ENERGY] = 1.1;
+ axisRanges1D[PLOT_COPLANARITY] = 180;
+ axisRanges1D[PLOT_ENERGY_SUM] = 2.2;
+ axisRanges1D[PLOT_ENERGY_DIFF] = 1.1;
+ axisRanges1D[PLOT_ENERGY_SLOPE] = 2.4;
+ double[] xAxisRanges2D = new double[plotName2D.length];
+ double[] yAxisRanges2D = new double[plotName2D.length];
+ xAxisRanges2D[PLOT_SEED_DIST] = -1;
+ xAxisRanges2D[PLOT_ENERGY_SUM_2D] = 1.1;
+ yAxisRanges2D[PLOT_SEED_DIST] = -1;
+ yAxisRanges2D[PLOT_ENERGY_SUM_2D] = 1.1;
+
+ // Define the plot names.
+ String[][] plotLocations1D = new String[plotsDir.length][plotNameInternal1D.length];
+ String[][] plotLocations2D = new String[plotsDir.length][plotNameInternal2D.length];
+ for(int i = 0; i < plotsDir.length; i++) {
+ for(int j = 0; j < plotNameInternal1D.length; j++) {
+ plotLocations1D[i][j] = plotsDir[i] + plotNameInternal1D[j];
+ }
+ }
+ for(int i = 0; i < plotsDir.length; i++) {
+ for(int j = 0; j < plotNameInternal2D.length; j++) {
+ plotLocations2D[i][j] = plotsDir[i] + plotNameInternal2D[j];
+ }
+ }
+
+ // Create a plot formatting module.
+ PlotFormatModule module = new PlotFormatModule();
+
+ // Load the plot objects.
+ for(int i = 0; i < plotName1D.length; i++) {
+ // Get the uncut and triggered plots.
+ IHistogram1D uncutPlot = (IHistogram1D) tree.find(plotLocations1D[UNCUT][i]);
+ IHistogram1D triggeredPlot = (IHistogram1D) tree.find(plotLocations1D[TRIGGERED][i] + " (Passed All Cuts)");
+
+ // Make a formatted plot for each.
+ FormattedPlot1D uncutFormattedPlot;
+ FormattedPlot1D triggeredFormattedPlot;
+ if(axisRanges1D[i] != -1) {
+ uncutFormattedPlot = new FormattedPlot1D(uncutPlot, PlotsFormatter.ColorStyle.GREY, xTitles1D[i], yTitle1D, plotName1D[i] + " (No Cuts)", 0, axisRanges1D[i]);
+ triggeredFormattedPlot = new FormattedPlot1D(triggeredPlot, PlotsFormatter.ColorStyle.MS_GREEN, xTitles1D[i], yTitle1D, plotName1D[i] + " (Triggered)", 0, axisRanges1D[i]);
+ } else {
+ uncutFormattedPlot = new FormattedPlot1D(uncutPlot, PlotsFormatter.ColorStyle.GREY, xTitles1D[i], yTitle1D, plotName1D[i] + " (No Cuts)");
+ triggeredFormattedPlot = new FormattedPlot1D(triggeredPlot, PlotsFormatter.ColorStyle.MS_GREEN, xTitles1D[i], yTitle1D, plotName1D[i] + " (Triggered)");
+ }
+
+ // Add the plots to the module.
+ module.addPlot1D(uncutFormattedPlot);
+ module.addPlot1D(triggeredFormattedPlot);
+ }
+ for(int i = 0; i < plotName2D.length; i++) {
+ // Get the uncut and triggered plots.
+ IHistogram2D uncutPlot = (IHistogram2D) tree.find(plotLocations2D[UNCUT][i]);
+ IHistogram2D triggeredPlot = (IHistogram2D) tree.find(plotLocations2D[TRIGGERED][i] + " (Passed All Cuts)");
+
+ // Make a formatted plot for each.
+ FormattedPlot2D uncutFormattedPlot;
+ FormattedPlot2D triggeredFormattedPlot;
+ if(xAxisRanges2D[i] != -1) {
+ uncutFormattedPlot = new FormattedPlot2D(uncutPlot, true, xTitles2D[i], yTitles2D[i], plotName2D[i] + " (No Cuts)", xAxisRanges2D[i], yAxisRanges2D[i]);
+ triggeredFormattedPlot = new FormattedPlot2D(triggeredPlot, true, xTitles2D[i], yTitles2D[i], plotName2D[i] + " (Triggered)", xAxisRanges2D[i], yAxisRanges2D[i]);
+ } else {
+ uncutFormattedPlot = new FormattedPlot2D(uncutPlot, true, xTitles2D[i], yTitles2D[i], plotName2D[i] + " (No Cuts)");
+ triggeredFormattedPlot = new FormattedPlot2D(triggeredPlot, true, xTitles2D[i], yTitles2D[i], plotName2D[i] + " (Triggered)");
+ }
+
+ // Add the plots to the module.
+ module.addPlot2D(uncutFormattedPlot);
+ module.addPlot2D(triggeredFormattedPlot);
+ }
+
+ // Save the plots.
+ module.savePlots("C:\\Users\\Kyle\\Desktop\\EnergyShift\\MonteCarlo\\Trident\\Trigger\\");
+ }
}
Modified: java/trunk/users/src/main/java/org/hps/users/kmccarty/plots/formatter/TridentTrackFormatter.java
=============================================================================
--- java/trunk/users/src/main/java/org/hps/users/kmccarty/plots/formatter/TridentTrackFormatter.java (original)
+++ java/trunk/users/src/main/java/org/hps/users/kmccarty/plots/formatter/TridentTrackFormatter.java Tue Sep 27 08:50:14 2016
@@ -16,187 +16,187 @@
import hep.aida.ref.plotter.PlotterRegion;
public class TridentTrackFormatter {
- /**
- * Loads all plots in a file and formats them according to the
- * indicated style.
- * @param args - Unused default executable parameter.
- * @throws IOException Occurs if there is an issue opening the file.
- */
- public static void main(String[] args) throws IOException {
- // Define the root directory for the plots.
- String rootDir = "D:\\cygwin64\\home\\Kyle\\tmp\\";
-
- // Define the new name of the file containing the trigger plots.
- String plotFile = rootDir + "trident-out.aida";
-
- // Get the plots file and open it.
- IAnalysisFactory af = IAnalysisFactory.create();
- ITree tree = af.createTreeFactory().create(plotFile);
- if(tree == null) { throw new IllegalArgumentException("Unable to load plot file."); }
-
- // Declare the histogram names.
- String trackName = "Tracks in Event (All)";
- String posTrackName = "Tracks in Event (Positive)";
- String negTrackName = "Tracks in Event (Negative)";
- String posMomentumName = "Momentum (Positive)";
- String negMomentumName = "Momentum (Negative)";
- String energySumName = "Energy Sum";
- String momentumSumName = "Momentum Sum";
- String energyMomentumDiffName = "Energy-Momentum Difference";
- String invariantMassName = "Invariant Mass";
- String energySum2DName = "2D Energy Sum";
- String momentumSum2DName = "2D Momentum Sum";
- String positionName = "Track Cluster Position";
-
- // Get the histograms.
- IHistogram1D[] tracks = {
- (IHistogram1D) tree.find("Trident Analysis/All/" + trackName),
- (IHistogram1D) tree.find("Trident Analysis/Cluster/" + trackName)
- };
- IHistogram1D[] posTracks = {
- (IHistogram1D) tree.find("Trident Analysis/All/" + posTrackName),
- (IHistogram1D) tree.find("Trident Analysis/Cluster/" + posTrackName)
- };
- IHistogram1D[] negTracks = {
- (IHistogram1D) tree.find("Trident Analysis/All/" + negTrackName),
- (IHistogram1D) tree.find("Trident Analysis/Cluster/" + negTrackName)
- };
- IHistogram1D[] posMomentum = {
- (IHistogram1D) tree.find("Trident Analysis/All/" + posMomentumName),
- (IHistogram1D) tree.find("Trident Analysis/Cluster/" + posMomentumName)
- };
- IHistogram1D[] negMomentum = {
- (IHistogram1D) tree.find("Trident Analysis/All/" + negMomentumName),
- (IHistogram1D) tree.find("Trident Analysis/Cluster/" + negMomentumName)
- };
- IHistogram1D[] energySum = {
- (IHistogram1D) tree.find("Trident Analysis/All/" + energySumName),
- (IHistogram1D) tree.find("Trident Analysis/Cluster/" + energySumName)
- };
- IHistogram1D[] momentumSum = {
- (IHistogram1D) tree.find("Trident Analysis/All/" + momentumSumName),
- (IHistogram1D) tree.find("Trident Analysis/Cluster/" + momentumSumName)
- };
- IHistogram1D[] energyMomentumDiff = {
- (IHistogram1D) tree.find("Trident Analysis/All/" + energyMomentumDiffName),
- (IHistogram1D) tree.find("Trident Analysis/Cluster/" + energyMomentumDiffName)
- };
- IHistogram1D[] invariantMass = {
- (IHistogram1D) tree.find("Trident Analysis/All/" + invariantMassName),
- (IHistogram1D) tree.find("Trident Analysis/Cluster/" + invariantMassName)
- };
- IHistogram2D[] energySum2D = {
- (IHistogram2D) tree.find("Trident Analysis/All/" + energySum2DName),
- (IHistogram2D) tree.find("Trident Analysis/Cluster/" + energySum2DName)
- };
- IHistogram2D[] momentumSum2D = {
- (IHistogram2D) tree.find("Trident Analysis/All/" + momentumSum2DName),
- (IHistogram2D) tree.find("Trident Analysis/Cluster/" + momentumSum2DName)
- };
- IHistogram2D[] position = {
- (IHistogram2D) tree.find("Trident Analysis/All/" + positionName),
- (IHistogram2D) tree.find("Trident Analysis/Cluster/" + positionName)
- };
-
- // Re-bin the histograms to have 5-times larger bins. First,
- // get the bin count and upper and lower bounds of the plot.
- int bins = invariantMass[0].axis().bins();
- double low = invariantMass[0].axis().binLowerEdge(0);
- double high = invariantMass[0].axis().binUpperEdge(invariantMass[0].axis().bins() - 1);
-
- // Create new plots with the larger bin sizes.
- AIDA aida = AIDA.defaultInstance();
- IHistogram1D[] newPlot = new IHistogram1D[2];
- newPlot[0] = aida.histogram1D(invariantMassName, bins / 5, low, high);
- newPlot[1] = aida.histogram1D("Cluster " + invariantMassName, bins / 5, low, high);
-
- // Populate the new plots with the data from the old ones.
- for(int j = 0; j < 2; j++) {
- for(int i = 0; i < bins; i++) {
- int entries = invariantMass[j].binEntries(i);
- double center = invariantMass[j].axis().binCenter(i);
- for(int k = 0; k < entries; k++) {
- newPlot[j].fill(center);
- }
- }
- }
-
- // Replace the old plots.
- invariantMass = newPlot;
-
- // Define the scaling factors for each plot.
- double scaleFactor = 1;
-
- // Define the plot titles and arrays for 1D plots.
- IHistogram[][] plots = { tracks, posTracks, negTracks, posMomentum, negMomentum, energySum, momentumSum, energyMomentumDiff, invariantMass };
- String[] titles = { trackName, posTrackName, negTrackName, posMomentumName, negMomentumName, energySumName, momentumSumName,
- energyMomentumDiffName, invariantMassName };
- String[] xTitles = { "Tracks", "Tracks", "Tracks", "Momentum (GeV)", "Momentum (GeV)", "Energy Sum (GeV)", "Momentum Sum (GeV)",
- "|E_Cluster - P_Track| (GeV)", "Invariant Mass (GeV)" };
- String yTitle = "Count";
-
- // Define the plot titles and arrays for 2D plots.
- IHistogram2D[][] plots2D = { energySum2D, momentumSum2D, position };
- String[] titles2D = { energySum2DName, momentumSum2DName, positionName };
- String[] xTitles2D = { "Positive Cluster Energy", "Positive Track Momentum", "x-Index" };
- String[] yTitles2D = { "Negative Cluster Energy", "Negative Track Momentum", "y-Index" };
- String zTitle2D = "Count";
-
- // Create a plotter factory.
- IPlotterFactory plotterFactory = af.createPlotterFactory();
-
- // Format and display the basic histograms.
- for(int i = 0; i < plots.length; i++) {
- for(int j = 0; j < 2; j++) {
- // Scale the histogram by the appropriate scaling factor.
- plots[i][j].scale(1.0 / scaleFactor);
-
- // Create a plotter and plotting region for the plot.
- IPlotter plotter = plotterFactory.create((j == 1 ? "Cluster " : "") + titles[i]);
- plotter.createRegions(1);
- plotter.region(0).plot(plots[i][j]);
-
- // Format the axis labels.
- PlotterRegion region = (PlotterRegion) plotter.region(0);
- region.getPlot().setTitle((j == 1 ? "Cluster " : "") + titles[i]);
- region.getPlot().getXAxis().setLabel(xTitles[i]);
- region.getPlot().getYAxis().setLabel(yTitle);
-
- // Format the fonts and general plot presentation.
- PlotsFormatter.setDefault1DStyle(region, new ColorStyle[] { ColorStyle.GREY });
-
- // Show the plot.
- plotter.setParameter("plotterWidth", "2000");
- plotter.setParameter("plotterHeight", "1200");
- plotter.show();
- }
- }
-
- // Format and display the 2D histogram.
- for(int i = 0; i < plots2D.length; i++) {
- for(int j = 0; j < 2; j++) {
- plots2D[i][j].scale(1.0 / scaleFactor);
- IPlotter plotter2D = plotterFactory.create((j == 1 ? "Cluster " : "") + titles2D[i]);
- plotter2D.createRegions(1);
- plotter2D.region(0).plot(plots2D[i][j]);
-
- // Format the axis labels.
- PlotterRegion region2D = (PlotterRegion) plotter2D.region(0);
- region2D.getPlot().setTitle((j == 1 ? "Cluster " : "") + titles2D[i]);
- region2D.getPlot().getXAxis().setLabel(xTitles2D[i]);
- region2D.getPlot().getYAxis().setLabel(yTitles2D[i]);
-
- // Format the fonts and general plot presentation.
- PlotsFormatter.setDefault2DStyle(region2D, true);
-
- // Show the plot.
- plotter2D.setParameter("plotterWidth", "2000");
- plotter2D.setParameter("plotterHeight", "1200");
- plotter2D.show();
- }
- }
-
- // Close the tree.
- tree.close();
- }
+ /**
+ * Loads all plots in a file and formats them according to the
+ * indicated style.
+ * @param args - Unused default executable parameter.
+ * @throws IOException Occurs if there is an issue opening the file.
+ */
+ public static void main(String[] args) throws IOException {
+ // Define the root directory for the plots.
+ String rootDir = "D:\\cygwin64\\home\\Kyle\\tmp\\";
+
+ // Define the new name of the file containing the trigger plots.
+ String plotFile = rootDir + "trident-out.aida";
+
+ // Get the plots file and open it.
+ IAnalysisFactory af = IAnalysisFactory.create();
+ ITree tree = af.createTreeFactory().create(plotFile);
+ if(tree == null) { throw new IllegalArgumentException("Unable to load plot file."); }
+
+ // Declare the histogram names.
+ String trackName = "Tracks in Event (All)";
+ String posTrackName = "Tracks in Event (Positive)";
+ String negTrackName = "Tracks in Event (Negative)";
+ String posMomentumName = "Momentum (Positive)";
+ String negMomentumName = "Momentum (Negative)";
+ String energySumName = "Energy Sum";
+ String momentumSumName = "Momentum Sum";
+ String energyMomentumDiffName = "Energy-Momentum Difference";
+ String invariantMassName = "Invariant Mass";
+ String energySum2DName = "2D Energy Sum";
+ String momentumSum2DName = "2D Momentum Sum";
+ String positionName = "Track Cluster Position";
+
+ // Get the histograms.
+ IHistogram1D[] tracks = {
+ (IHistogram1D) tree.find("Trident Analysis/All/" + trackName),
+ (IHistogram1D) tree.find("Trident Analysis/Cluster/" + trackName)
+ };
+ IHistogram1D[] posTracks = {
+ (IHistogram1D) tree.find("Trident Analysis/All/" + posTrackName),
+ (IHistogram1D) tree.find("Trident Analysis/Cluster/" + posTrackName)
+ };
+ IHistogram1D[] negTracks = {
+ (IHistogram1D) tree.find("Trident Analysis/All/" + negTrackName),
+ (IHistogram1D) tree.find("Trident Analysis/Cluster/" + negTrackName)
+ };
+ IHistogram1D[] posMomentum = {
+ (IHistogram1D) tree.find("Trident Analysis/All/" + posMomentumName),
+ (IHistogram1D) tree.find("Trident Analysis/Cluster/" + posMomentumName)
+ };
+ IHistogram1D[] negMomentum = {
+ (IHistogram1D) tree.find("Trident Analysis/All/" + negMomentumName),
+ (IHistogram1D) tree.find("Trident Analysis/Cluster/" + negMomentumName)
+ };
+ IHistogram1D[] energySum = {
+ (IHistogram1D) tree.find("Trident Analysis/All/" + energySumName),
+ (IHistogram1D) tree.find("Trident Analysis/Cluster/" + energySumName)
+ };
+ IHistogram1D[] momentumSum = {
+ (IHistogram1D) tree.find("Trident Analysis/All/" + momentumSumName),
+ (IHistogram1D) tree.find("Trident Analysis/Cluster/" + momentumSumName)
+ };
+ IHistogram1D[] energyMomentumDiff = {
+ (IHistogram1D) tree.find("Trident Analysis/All/" + energyMomentumDiffName),
+ (IHistogram1D) tree.find("Trident Analysis/Cluster/" + energyMomentumDiffName)
+ };
+ IHistogram1D[] invariantMass = {
+ (IHistogram1D) tree.find("Trident Analysis/All/" + invariantMassName),
+ (IHistogram1D) tree.find("Trident Analysis/Cluster/" + invariantMassName)
+ };
+ IHistogram2D[] energySum2D = {
+ (IHistogram2D) tree.find("Trident Analysis/All/" + energySum2DName),
+ (IHistogram2D) tree.find("Trident Analysis/Cluster/" + energySum2DName)
+ };
+ IHistogram2D[] momentumSum2D = {
+ (IHistogram2D) tree.find("Trident Analysis/All/" + momentumSum2DName),
+ (IHistogram2D) tree.find("Trident Analysis/Cluster/" + momentumSum2DName)
+ };
+ IHistogram2D[] position = {
+ (IHistogram2D) tree.find("Trident Analysis/All/" + positionName),
+ (IHistogram2D) tree.find("Trident Analysis/Cluster/" + positionName)
+ };
+
+ // Re-bin the histograms to have 5-times larger bins. First,
+ // get the bin count and upper and lower bounds of the plot.
+ int bins = invariantMass[0].axis().bins();
+ double low = invariantMass[0].axis().binLowerEdge(0);
+ double high = invariantMass[0].axis().binUpperEdge(invariantMass[0].axis().bins() - 1);
+
+ // Create new plots with the larger bin sizes.
+ AIDA aida = AIDA.defaultInstance();
+ IHistogram1D[] newPlot = new IHistogram1D[2];
+ newPlot[0] = aida.histogram1D(invariantMassName, bins / 5, low, high);
+ newPlot[1] = aida.histogram1D("Cluster " + invariantMassName, bins / 5, low, high);
+
+ // Populate the new plots with the data from the old ones.
+ for(int j = 0; j < 2; j++) {
+ for(int i = 0; i < bins; i++) {
+ int entries = invariantMass[j].binEntries(i);
+ double center = invariantMass[j].axis().binCenter(i);
+ for(int k = 0; k < entries; k++) {
+ newPlot[j].fill(center);
+ }
+ }
+ }
+
+ // Replace the old plots.
+ invariantMass = newPlot;
+
+ // Define the scaling factors for each plot.
+ double scaleFactor = 1;
+
+ // Define the plot titles and arrays for 1D plots.
+ IHistogram[][] plots = { tracks, posTracks, negTracks, posMomentum, negMomentum, energySum, momentumSum, energyMomentumDiff, invariantMass };
+ String[] titles = { trackName, posTrackName, negTrackName, posMomentumName, negMomentumName, energySumName, momentumSumName,
+ energyMomentumDiffName, invariantMassName };
+ String[] xTitles = { "Tracks", "Tracks", "Tracks", "Momentum (GeV)", "Momentum (GeV)", "Energy Sum (GeV)", "Momentum Sum (GeV)",
+ "|E_Cluster - P_Track| (GeV)", "Invariant Mass (GeV)" };
+ String yTitle = "Count";
+
+ // Define the plot titles and arrays for 2D plots.
+ IHistogram2D[][] plots2D = { energySum2D, momentumSum2D, position };
+ String[] titles2D = { energySum2DName, momentumSum2DName, positionName };
+ String[] xTitles2D = { "Positive Cluster Energy", "Positive Track Momentum", "x-Index" };
+ String[] yTitles2D = { "Negative Cluster Energy", "Negative Track Momentum", "y-Index" };
+ String zTitle2D = "Count";
+
+ // Create a plotter factory.
+ IPlotterFactory plotterFactory = af.createPlotterFactory();
+
+ // Format and display the basic histograms.
+ for(int i = 0; i < plots.length; i++) {
+ for(int j = 0; j < 2; j++) {
+ // Scale the histogram by the appropriate scaling factor.
+ plots[i][j].scale(1.0 / scaleFactor);
+
+ // Create a plotter and plotting region for the plot.
+ IPlotter plotter = plotterFactory.create((j == 1 ? "Cluster " : "") + titles[i]);
+ plotter.createRegions(1);
+ plotter.region(0).plot(plots[i][j]);
+
+ // Format the axis labels.
+ PlotterRegion region = (PlotterRegion) plotter.region(0);
+ region.getPlot().setTitle((j == 1 ? "Cluster " : "") + titles[i]);
+ region.getPlot().getXAxis().setLabel(xTitles[i]);
+ region.getPlot().getYAxis().setLabel(yTitle);
+
+ // Format the fonts and general plot presentation.
+ PlotsFormatter.setDefault1DStyle(region, new ColorStyle[] { ColorStyle.GREY }, PlotsFormatter.DisplayStyle.BAR);
+
+ // Show the plot.
+ plotter.setParameter("plotterWidth", "2000");
+ plotter.setParameter("plotterHeight", "1200");
+ plotter.show();
+ }
+ }
+
+ // Format and display the 2D histogram.
+ for(int i = 0; i < plots2D.length; i++) {
+ for(int j = 0; j < 2; j++) {
+ plots2D[i][j].scale(1.0 / scaleFactor);
+ IPlotter plotter2D = plotterFactory.create((j == 1 ? "Cluster " : "") + titles2D[i]);
+ plotter2D.createRegions(1);
+ plotter2D.region(0).plot(plots2D[i][j]);
+
+ // Format the axis labels.
+ PlotterRegion region2D = (PlotterRegion) plotter2D.region(0);
+ region2D.getPlot().setTitle((j == 1 ? "Cluster " : "") + titles2D[i]);
+ region2D.getPlot().getXAxis().setLabel(xTitles2D[i]);
+ region2D.getPlot().getYAxis().setLabel(yTitles2D[i]);
+
+ // Format the fonts and general plot presentation.
+ PlotsFormatter.setDefault2DStyle(region2D, true);
+
+ // Show the plot.
+ plotter2D.setParameter("plotterWidth", "2000");
+ plotter2D.setParameter("plotterHeight", "1200");
+ plotter2D.show();
+ }
+ }
+
+ // Close the tree.
+ tree.close();
+ }
}
Modified: java/trunk/users/src/main/java/org/hps/users/kmccarty/plots/formatter/TriggerPlotsFormat.java
=============================================================================
--- java/trunk/users/src/main/java/org/hps/users/kmccarty/plots/formatter/TriggerPlotsFormat.java (original)
+++ java/trunk/users/src/main/java/org/hps/users/kmccarty/plots/formatter/TriggerPlotsFormat.java Tue Sep 27 08:50:14 2016
@@ -20,331 +20,331 @@
import hep.aida.ref.plotter.PlotterRegion;
public class TriggerPlotsFormat {
- // Define plot fonts.
- private static final Font BASIC_FONT = new Font("Calibri", Font.PLAIN, 20);
- private static final Font AXIS_FONT = new Font("Calibri", Font.BOLD, 25);
- private static final Font TITLE_FONT = new Font("Calibri", Font.BOLD, 35);
-
- // Defines the color style options for plot data.
- private enum ColorStyle {
- MS_BLUE(new Color( 79, 129, 189), new Color( 36, 64, 97)), MS_ORANGE(new Color(247, 150, 70), new Color(152, 72, 6)),
- MS_RED(new Color(192, 80, 77), new Color( 99, 36, 35)), GREY(new Color(166, 166, 166), new Color( 89, 89, 89)),
- MS_GREEN(new Color(155, 187, 89), new Color( 79, 98, 40)), CRIMSON(new Color(161, 0, 0), new Color(104, 0, 0)),
- RUST(new Color(161, 80, 0), new Color(105, 80, 0)), YELLOW(new Color(161, 161, 0), new Color(122, 109, 8)),
- FOREST(new Color( 65, 102, 0), new Color( 37, 79, 0)), GREEN(new Color( 7, 132, 70), new Color( 7, 82, 30)),
- TEAL(new Color( 0, 130, 130), new Color( 0, 90, 100)), CERULEAN(new Color( 0, 86, 130), new Color( 0, 28, 83)),
- BLUE(new Color( 0, 33, 203), new Color( 0, 0, 137)), INDIGO(new Color( 68, 10, 127), new Color( 0, 0, 61)),
- PURPLE(new Color(106, 0, 106), new Color( 63, 0, 56)), FUSCHIA(new Color(119, 0, 60), new Color( 60, 0, 60));
-
- private final Color fillColor;
- private final Color lineColor;
-
- private ColorStyle(Color fillColor, Color lineColor) {
- this.fillColor = fillColor;
- this.lineColor = lineColor;
- }
-
- public Color getFillColor() { return fillColor; }
-
- public Color getLineColor() { return lineColor; }
- };
-
- /**
- * Loads all plots in a file and formats them according to the
- * indicated style.
- * @param args - Unused default executable parameter.
- * @throws IOException Occurs if there is an issue opening the file.
- */
- public static void main(String[] args) throws IOException {
- // Define the root directory for the plots.
- String rootDir = "D:\\cygwin64\\home\\Kyle\\beam-plots\\base\\";
- //String rootDir = "D:\\cygwin64\\home\\Kyle\\aprime-plots\\base\\readout-plots\\";
-
- // Define the new name of the file containing the trigger plots.
- String[] plotFile = {
- rootDir + "compiled-plots.aida"
- //rootDir + "15-MeV\\compiled-plots.aida",
- //rootDir + "20-MeV\\compiled-plots.aida",
- //rootDir + "30-MeV\\compiled-plots.aida",
- //rootDir + "40-MeV\\compiled-plots.aida",
- //rootDir + "50-MeV\\compiled-plots.aida"
- };
-
- // Define the names of each plot. This will be used for the
- // legend in the case of multiple plots.
- String[] treeName = {
- "Background",
- "15 MeV A'",
- "20 MeV A'",
- "30 MeV A'",
- "40 MeV A'",
- "50 MeV A'"
- };
-
- // Define the color style for the plots.
- ColorStyle[] dataColorStyle = {
- ColorStyle.GREY,
- ColorStyle.MS_GREEN,
- ColorStyle.MS_BLUE,
- ColorStyle.MS_ORANGE,
- ColorStyle.MS_RED,
- ColorStyle.TEAL,
- ColorStyle.CRIMSON,
- ColorStyle.FOREST
- };
-
- // Get the plots file and open it.
- IAnalysisFactory af = IAnalysisFactory.create();
- ITree[] tree = new ITree[plotFile.length];
- for(int i = 0; i < plotFile.length; i++) {
- tree[i] = af.createTreeFactory().create(plotFile[i]);
- if(tree[i] == null) { throw new IllegalArgumentException("Unable to load plot file."); }
- }
-
- // Get a list of all the histograms in the file.
- List<List<String>> treeHistograms = new ArrayList<List<String>>(plotFile.length);
- for(int i = 0; i < plotFile.length; i++) {
- treeHistograms.add(getHistograms(tree[i], "/NoCuts/"));//, "/PassedAll/"));
- }
-
- // Create a plotter factory.
- IPlotterFactory plotterFactory = af.createPlotterFactory();
-
- // Plot each histogram and format it.
- for(String histogram : treeHistograms.get(0)) {
- // Get the plot from the tree and verify that it is a 1D
- // or 2D histogram. Other types are not supported.
- IManagedObject histObject = tree[0].find(histogram);
- if(!(histObject instanceof IHistogram1D) && !(histObject instanceof IHistogram2D)) {
- continue;
- }
-
- // Obtain the histogram object.
- IBaseHistogram hist;
- if(histObject instanceof IHistogram1D) { hist = (IHistogram1D) histObject; }
- else { hist = (IHistogram2D) histObject; }
-
- // Define whether this is an overlay plot and whether
- // this is a one or two dimensional plot.
- boolean overlay = plotFile.length > 1;
- boolean twoDimensional = hist instanceof IHistogram2D;
-
- // Generate the plotter and set its title. The plotter will
- // use the title of the first tree's plot.
- String plotTitle = hist.title();
- IPlotter plotter = plotterFactory.create(plotTitle);
-
- // For single plots and one-dimensional overlay plots,
- // there should only be a single plotter region.
- if(!twoDimensional || !overlay) { plotter.createRegions(1); }
-
- // For two-dimensional overlay plots, create a region for
- // each plot individually.
- else { plotter.createRegions(2, (int) Math.ceil(plotFile.length / 2.0)); }
-
- // Find the histogram in each of the trees and plot them
- // all on the same region.
- for(int i = 0; i < plotFile.length; i++) {
- // Get the histogram from the tree.
- IManagedObject treeObject = tree[i].find(histogram);
- IBaseHistogram treeHist;
- if(treeObject instanceof IHistogram1D) { treeHist = (IHistogram1D) treeObject; }
- else { treeHist = (IHistogram2D) treeObject; }
-
- // Display the plot.
- if(treeHist != null) {
- // Set the title of plot to the name associated with
- // its tree. This ensures that the correct name will
- // appear on the legend.
- if(plotFile.length > 1) {
- treeHist.setTitle(treeName[i]);
- }
-
- // Plot the tree's data in the plotter region.
- if(!twoDimensional || !overlay) { plotter.region(0).plot(treeHist); }
- else {
- plotter.region(i).plot(treeHist);
- setDefault2DStyle(((PlotterRegion) plotter.region(i)), dataColorStyle);
- }
- }
- }
-
- // Format the plot region.
- if(!twoDimensional) { setDefault1DStyle(((PlotterRegion) plotter.region(0)), dataColorStyle); }
- else { setDefault2DStyle(((PlotterRegion) plotter.region(0)), dataColorStyle); }
-
- // Show the plotter.
- plotter.region(0).setTitle(plotTitle);
- plotter.setParameter("plotterWidth", "750");
- plotter.setParameter("plotterHeight", "600");
- //plotter.setParameter("plotterWidth", "2000");
- //plotter.setParameter("plotterHeight", "1200");
- plotter.show();
- }
-
- // Close the trees.
- for(int i = 0; i < plotFile.length; i++) {
- tree[i].close();
- }
- }
-
- /**
- * Sets the plot display formatting for 1D plots.
- * @param region - The plotter region to format.
- * @param color - The data color settings to use.
- */
- private static final void setDefault1DStyle(PlotterRegion region, ColorStyle[] color) {
- // Get the names of each plot on in the region.
- String[] dataNames = region.getAllDataNames();
-
- // Check whether this is an overlay plot. Overlay plots contain
- // more than one data name.
- boolean overlay = (dataNames.length > 1 ? true : false);
-
- // Iterate over each plot in the region.
- for(int i = 0; i < dataNames.length; i++) {
- // Set the overlay style if needed.
- if(overlay) {
- // Get the fill style for the current data type.
- JASHist1DHistogramStyle fillStyle = (JASHist1DHistogramStyle) region.getDataForName(dataNames[i]).getStyle();
-
- // Set the histogram style to display thick-lined bars
- // with no fill. The color is set by the "color" argument.
- fillStyle.setHistogramFill(false);
- fillStyle.setHistogramBarLineWidth(3);
- fillStyle.setHistogramBarLineColor(color[i].getFillColor());
-
- // Set the legend text style.
- region.getPlot().getLegend().setFont(new Font("Calibri", Font.PLAIN, 20));
- }
-
- // Otherwise, set the fill style for a single plot.
- else {
- // Get the fill style for the current data type.
- JASHist1DHistogramStyle fillStyle = (JASHist1DHistogramStyle) region.getDataForName(dataNames[i]).getStyle();
-
- // Set the histogram style to display thick-lined bars
- // with a fill color. The colors are defined by the
- // "color" argument.
- fillStyle.setHistogramBarLineWidth(3);
- fillStyle.setHistogramBarColor(color[i].getFillColor());
- fillStyle.setHistogramBarLineColor(color[i].getLineColor());
- }
-
- // Set the statistics box style.
- region.getPlot().getStats().setVisible(true);
- region.getPlot().getStats().setFont(BASIC_FONT);
-
- // Set the title font.
- region.getPlot().getTitleObject().setFont(TITLE_FONT);
-
- // Set generic axis titles.
- region.getPlot().getXAxis().setLabel("Data Label (Unit)");
- region.getPlot().getYAxis().setLabel("Count");
-
- // Set the axis tick-mark fonts.
- region.getPlot().getXAxis().setFont(BASIC_FONT);
- region.getPlot().getYAxis().setFont(BASIC_FONT);
- region.getPlot().getXAxis().getLabelObject().setFont(AXIS_FONT);
- region.getPlot().getYAxis().getLabelObject().setFont(AXIS_FONT);
- }
- }
-
- /**
- * Sets the plot display formatting for 1D plots.
- * @param region - The plotter region to format.
- * @param color - The data color settings to use.
- */
- private static final void setDefault2DStyle(PlotterRegion region, ColorStyle[] color) {
- // Get the fill style object. 2D plots should never be overlay
- // plots, so there should only ever be one data name.
- JASHist2DHistogramStyle fillStyle = (JASHist2DHistogramStyle) region.getDataForName(region.getAllDataNames()[0]).getStyle();
-
- // Set the fill style for a two-dimensional plot.
- fillStyle.setLogZ(true);
- fillStyle.setHistStyle(JASHist2DHistogramStyle.STYLE_COLORMAP);
- fillStyle.setColorMapScheme(JASHist2DHistogramStyle.COLORMAP_RAINBOW);
-
- // Make the statistics box invisible.
- region.getPlot().getStats().setVisible(false);
-
- // Set the general plot font (which is also the z-axis font).
- region.getPlot().setFont(BASIC_FONT);
-
- // Set the title font.
- region.getPlot().getTitleObject().setFont(TITLE_FONT);
-
- // Set generic axis titles.
- region.getPlot().getXAxis().setLabel("Data Label (Unit)");
- region.getPlot().getYAxis().setLabel("Data Label (Unit)");
-
- // Set the axis tick-mark fonts.
- region.getPlot().getXAxis().setFont(BASIC_FONT);
- region.getPlot().getYAxis().setFont(BASIC_FONT);
- region.getPlot().getXAxis().getLabelObject().setFont(AXIS_FONT);
- region.getPlot().getYAxis().getLabelObject().setFont(AXIS_FONT);
- }
-
- /**
- * Gets a list of all objects that are not directories in a tree.
- * @param tree - The tree from which to extract the object names.
- * @return Returns the object names as <code>String</code> objects
- * in a <code>List</code> collection.
- */
- private static final List<String> getHistograms(ITree tree) {
- return getHistograms(tree, "/");
- }
-
- /**
- * Gets a list of all objects that are not directories in a tree.
- * @param tree - The tree from which to extract the object names.
- * @return Returns the object names as <code>String</code> objects
- * in a <code>List</code> collection.
- */
- private static final List<String> getHistograms(ITree tree, String rootDir) {
- return getHistograms(tree, rootDir, new ArrayList<String>());
- }
-
- /**
- * Recursive method that gets all object names from a tree that
- * are not directories. Method should not be called directly, but
- * rather called only through the <code>getHistograms(ITree)</code>
- * method.
- * @param tree - The tree from which to obtain the object names.
- * @param directory - The directory in which to search for objects.
- * @param list - The list in which to place the objects.
- * @return Returns the <code>List</code> collection that was given
- * as an argument.
- */
- private static final List<String> getHistograms(ITree tree, String directory, List<String> list) {
- // Get the list of objects in the directory.
- String[] treeObjects = tree.listObjectNames(directory);
-
- // Print the objects.
- for(String objectName : treeObjects) {
- // Check if the object is a directory.
- boolean isDirectory = isDirectory(objectName);
-
- // If the object is a directory, get the histograms from it.
- if(isDirectory) {
- getHistograms(tree, objectName, list);
- }
-
- // If the object is a plot, add it to the list.
- else { list.add(objectName); }
- }
-
- // Return the list.
- return list;
- }
-
- /**
- * Checks whether a tree object is a directory.
- * @param object - The object to check.
- * @return Returns <code>true</code> if the object is a directory
- * and <code>false</code> otherwise.
- */
- private static final boolean isDirectory(String object) {
- return (object.toCharArray()[object.length() - 1] == '/');
- }
+ // Define plot fonts.
+ private static final Font BASIC_FONT = new Font("Calibri", Font.PLAIN, 20);
+ private static final Font AXIS_FONT = new Font("Calibri", Font.BOLD, 25);
+ private static final Font TITLE_FONT = new Font("Calibri", Font.BOLD, 35);
+
+ // Defines the color style options for plot data.
+ private enum ColorStyle {
+ MS_BLUE(new Color( 79, 129, 189), new Color( 36, 64, 97)), MS_ORANGE(new Color(247, 150, 70), new Color(152, 72, 6)),
+ MS_RED(new Color(192, 80, 77), new Color( 99, 36, 35)), GREY(new Color(166, 166, 166), new Color( 89, 89, 89)),
+ MS_GREEN(new Color(155, 187, 89), new Color( 79, 98, 40)), CRIMSON(new Color(161, 0, 0), new Color(104, 0, 0)),
+ RUST(new Color(161, 80, 0), new Color(105, 80, 0)), YELLOW(new Color(161, 161, 0), new Color(122, 109, 8)),
+ FOREST(new Color( 65, 102, 0), new Color( 37, 79, 0)), GREEN(new Color( 7, 132, 70), new Color( 7, 82, 30)),
+ TEAL(new Color( 0, 130, 130), new Color( 0, 90, 100)), CERULEAN(new Color( 0, 86, 130), new Color( 0, 28, 83)),
+ BLUE(new Color( 0, 33, 203), new Color( 0, 0, 137)), INDIGO(new Color( 68, 10, 127), new Color( 0, 0, 61)),
+ PURPLE(new Color(106, 0, 106), new Color( 63, 0, 56)), FUSCHIA(new Color(119, 0, 60), new Color( 60, 0, 60));
+
+ private final Color fillColor;
+ private final Color lineColor;
+
+ private ColorStyle(Color fillColor, Color lineColor) {
+ this.fillColor = fillColor;
+ this.lineColor = lineColor;
+ }
+
+ public Color getFillColor() { return fillColor; }
+
+ public Color getLineColor() { return lineColor; }
+ };
+
+ /**
+ * Loads all plots in a file and formats them according to the
+ * indicated style.
+ * @param args - Unused default executable parameter.
+ * @throws IOException Occurs if there is an issue opening the file.
+ */
+ public static void main(String[] args) throws IOException {
+ // Define the root directory for the plots.
+ String rootDir = "D:\\cygwin64\\home\\Kyle\\beam-plots\\base\\";
+ //String rootDir = "D:\\cygwin64\\home\\Kyle\\aprime-plots\\base\\readout-plots\\";
+
+ // Define the new name of the file containing the trigger plots.
+ String[] plotFile = {
+ rootDir + "compiled-plots.aida"
+ //rootDir + "15-MeV\\compiled-plots.aida",
+ //rootDir + "20-MeV\\compiled-plots.aida",
+ //rootDir + "30-MeV\\compiled-plots.aida",
+ //rootDir + "40-MeV\\compiled-plots.aida",
+ //rootDir + "50-MeV\\compiled-plots.aida"
+ };
+
+ // Define the names of each plot. This will be used for the
+ // legend in the case of multiple plots.
+ String[] treeName = {
+ "Background",
+ "15 MeV A'",
+ "20 MeV A'",
+ "30 MeV A'",
+ "40 MeV A'",
+ "50 MeV A'"
+ };
+
+ // Define the color style for the plots.
+ ColorStyle[] dataColorStyle = {
+ ColorStyle.GREY,
+ ColorStyle.MS_GREEN,
+ ColorStyle.MS_BLUE,
+ ColorStyle.MS_ORANGE,
+ ColorStyle.MS_RED,
+ ColorStyle.TEAL,
+ ColorStyle.CRIMSON,
+ ColorStyle.FOREST
+ };
+
+ // Get the plots file and open it.
+ IAnalysisFactory af = IAnalysisFactory.create();
+ ITree[] tree = new ITree[plotFile.length];
+ for(int i = 0; i < plotFile.length; i++) {
+ tree[i] = af.createTreeFactory().create(plotFile[i]);
+ if(tree[i] == null) { throw new IllegalArgumentException("Unable to load plot file."); }
+ }
+
+ // Get a list of all the histograms in the file.
+ List<List<String>> treeHistograms = new ArrayList<List<String>>(plotFile.length);
+ for(int i = 0; i < plotFile.length; i++) {
+ treeHistograms.add(getHistograms(tree[i], "/NoCuts/"));//, "/PassedAll/"));
+ }
+
+ // Create a plotter factory.
+ IPlotterFactory plotterFactory = af.createPlotterFactory();
+
+ // Plot each histogram and format it.
+ for(String histogram : treeHistograms.get(0)) {
+ // Get the plot from the tree and verify that it is a 1D
+ // or 2D histogram. Other types are not supported.
+ IManagedObject histObject = tree[0].find(histogram);
+ if(!(histObject instanceof IHistogram1D) && !(histObject instanceof IHistogram2D)) {
+ continue;
+ }
+
+ // Obtain the histogram object.
+ IBaseHistogram hist;
+ if(histObject instanceof IHistogram1D) { hist = (IHistogram1D) histObject; }
+ else { hist = (IHistogram2D) histObject; }
+
+ // Define whether this is an overlay plot and whether
+ // this is a one or two dimensional plot.
+ boolean overlay = plotFile.length > 1;
+ boolean twoDimensional = hist instanceof IHistogram2D;
+
+ // Generate the plotter and set its title. The plotter will
+ // use the title of the first tree's plot.
+ String plotTitle = hist.title();
+ IPlotter plotter = plotterFactory.create(plotTitle);
+
+ // For single plots and one-dimensional overlay plots,
+ // there should only be a single plotter region.
+ if(!twoDimensional || !overlay) { plotter.createRegions(1); }
+
+ // For two-dimensional overlay plots, create a region for
+ // each plot individually.
+ else { plotter.createRegions(2, (int) Math.ceil(plotFile.length / 2.0)); }
+
+ // Find the histogram in each of the trees and plot them
+ // all on the same region.
+ for(int i = 0; i < plotFile.length; i++) {
+ // Get the histogram from the tree.
+ IManagedObject treeObject = tree[i].find(histogram);
+ IBaseHistogram treeHist;
+ if(treeObject instanceof IHistogram1D) { treeHist = (IHistogram1D) treeObject; }
+ else { treeHist = (IHistogram2D) treeObject; }
+
+ // Display the plot.
+ if(treeHist != null) {
+ // Set the title of plot to the name associated with
+ // its tree. This ensures that the correct name will
+ // appear on the legend.
+ if(plotFile.length > 1) {
+ treeHist.setTitle(treeName[i]);
+ }
+
+ // Plot the tree's data in the plotter region.
+ if(!twoDimensional || !overlay) { plotter.region(0).plot(treeHist); }
+ else {
+ plotter.region(i).plot(treeHist);
+ setDefault2DStyle(((PlotterRegion) plotter.region(i)), dataColorStyle);
+ }
+ }
+ }
+
+ // Format the plot region.
+ if(!twoDimensional) { setDefault1DStyle(((PlotterRegion) plotter.region(0)), dataColorStyle); }
+ else { setDefault2DStyle(((PlotterRegion) plotter.region(0)), dataColorStyle); }
+
+ // Show the plotter.
+ plotter.region(0).setTitle(plotTitle);
+ plotter.setParameter("plotterWidth", "750");
+ plotter.setParameter("plotterHeight", "600");
+ //plotter.setParameter("plotterWidth", "2000");
+ //plotter.setParameter("plotterHeight", "1200");
+ plotter.show();
+ }
+
+ // Close the trees.
+ for(int i = 0; i < plotFile.length; i++) {
+ tree[i].close();
+ }
+ }
+
+ /**
+ * Sets the plot display formatting for 1D plots.
+ * @param region - The plotter region to format.
+ * @param color - The data color settings to use.
+ */
+ private static final void setDefault1DStyle(PlotterRegion region, ColorStyle[] color) {
+ // Get the names of each plot on in the region.
+ String[] dataNames = region.getAllDataNames();
+
+ // Check whether this is an overlay plot. Overlay plots contain
+ // more than one data name.
+ boolean overlay = (dataNames.length > 1 ? true : false);
+
+ // Iterate over each plot in the region.
+ for(int i = 0; i < dataNames.length; i++) {
+ // Set the overlay style if needed.
+ if(overlay) {
+ // Get the fill style for the current data type.
+ JASHist1DHistogramStyle fillStyle = (JASHist1DHistogramStyle) region.getDataForName(dataNames[i]).getStyle();
+
+ // Set the histogram style to display thick-lined bars
+ // with no fill. The color is set by the "color" argument.
+ fillStyle.setHistogramFill(false);
+ fillStyle.setHistogramBarLineWidth(3);
+ fillStyle.setHistogramBarLineColor(color[i].getFillColor());
+
+ // Set the legend text style.
+ region.getPlot().getLegend().setFont(new Font("Calibri", Font.PLAIN, 20));
+ }
+
+ // Otherwise, set the fill style for a single plot.
+ else {
+ // Get the fill style for the current data type.
+ JASHist1DHistogramStyle fillStyle = (JASHist1DHistogramStyle) region.getDataForName(dataNames[i]).getStyle();
+
+ // Set the histogram style to display thick-lined bars
+ // with a fill color. The colors are defined by the
+ // "color" argument.
+ fillStyle.setHistogramBarLineWidth(3);
+ fillStyle.setHistogramBarColor(color[i].getFillColor());
+ fillStyle.setHistogramBarLineColor(color[i].getLineColor());
+ }
+
+ // Set the statistics box style.
+ region.getPlot().getStats().setVisible(true);
+ region.getPlot().getStats().setFont(BASIC_FONT);
+
+ // Set the title font.
+ region.getPlot().getTitleObject().setFont(TITLE_FONT);
+
+ // Set generic axis titles.
+ region.getPlot().getXAxis().setLabel("Data Label (Unit)");
+ region.getPlot().getYAxis().setLabel("Count");
+
+ // Set the axis tick-mark fonts.
+ region.getPlot().getXAxis().setFont(BASIC_FONT);
+ region.getPlot().getYAxis().setFont(BASIC_FONT);
+ region.getPlot().getXAxis().getLabelObject().setFont(AXIS_FONT);
+ region.getPlot().getYAxis().getLabelObject().setFont(AXIS_FONT);
+ }
+ }
+
+ /**
+ * Sets the plot display formatting for 1D plots.
+ * @param region - The plotter region to format.
+ * @param color - The data color settings to use.
+ */
+ private static final void setDefault2DStyle(PlotterRegion region, ColorStyle[] color) {
+ // Get the fill style object. 2D plots should never be overlay
+ // plots, so there should only ever be one data name.
+ JASHist2DHistogramStyle fillStyle = (JASHist2DHistogramStyle) region.getDataForName(region.getAllDataNames()[0]).getStyle();
+
+ // Set the fill style for a two-dimensional plot.
+ fillStyle.setLogZ(true);
+ fillStyle.setHistStyle(JASHist2DHistogramStyle.STYLE_COLORMAP);
+ fillStyle.setColorMapScheme(JASHist2DHistogramStyle.COLORMAP_RAINBOW);
+
+ // Make the statistics box invisible.
+ region.getPlot().getStats().setVisible(false);
+
+ // Set the general plot font (which is also the z-axis font).
+ region.getPlot().setFont(BASIC_FONT);
+
+ // Set the title font.
+ region.getPlot().getTitleObject().setFont(TITLE_FONT);
+
+ // Set generic axis titles.
+ region.getPlot().getXAxis().setLabel("Data Label (Unit)");
+ region.getPlot().getYAxis().setLabel("Data Label (Unit)");
+
+ // Set the axis tick-mark fonts.
+ region.getPlot().getXAxis().setFont(BASIC_FONT);
+ region.getPlot().getYAxis().setFont(BASIC_FONT);
+ region.getPlot().getXAxis().getLabelObject().setFont(AXIS_FONT);
+ region.getPlot().getYAxis().getLabelObject().setFont(AXIS_FONT);
+ }
+
+ /**
+ * Gets a list of all objects that are not directories in a tree.
+ * @param tree - The tree from which to extract the object names.
+ * @return Returns the object names as <code>String</code> objects
+ * in a <code>List</code> collection.
+ */
+ private static final List<String> getHistograms(ITree tree) {
+ return getHistograms(tree, "/");
+ }
+
+ /**
+ * Gets a list of all objects that are not directories in a tree.
+ * @param tree - The tree from which to extract the object names.
+ * @return Returns the object names as <code>String</code> objects
+ * in a <code>List</code> collection.
+ */
+ private static final List<String> getHistograms(ITree tree, String rootDir) {
+ return getHistograms(tree, rootDir, new ArrayList<String>());
+ }
+
+ /**
+ * Recursive method that gets all object names from a tree that
+ * are not directories. Method should not be called directly, but
+ * rather called only through the <code>getHistograms(ITree)</code>
+ * method.
+ * @param tree - The tree from which to obtain the object names.
+ * @param directory - The directory in which to search for objects.
+ * @param list - The list in which to place the objects.
+ * @return Returns the <code>List</code> collection that was given
+ * as an argument.
+ */
+ private static final List<String> getHistograms(ITree tree, String directory, List<String> list) {
+ // Get the list of objects in the directory.
+ String[] treeObjects = tree.listObjectNames(directory);
+
+ // Print the objects.
+ for(String objectName : treeObjects) {
+ // Check if the object is a directory.
+ boolean isDirectory = isDirectory(objectName);
+
+ // If the object is a directory, get the histograms from it.
+ if(isDirectory) {
+ getHistograms(tree, objectName, list);
+ }
+
+ // If the object is a plot, add it to the list.
+ else { list.add(objectName); }
+ }
+
+ // Return the list.
+ return list;
+ }
+
+ /**
+ * Checks whether a tree object is a directory.
+ * @param object - The object to check.
+ * @return Returns <code>true</code> if the object is a directory
+ * and <code>false</code> otherwise.
+ */
+ private static final boolean isDirectory(String object) {
+ return (object.toCharArray()[object.length() - 1] == '/');
+ }
}
