use of cbit.vcell.math.MathDescription in project vcell by virtualcell.
the class MathDebuggerPanel method expandBoth.
private void expandBoth() throws PropertyVetoException, MappingException, MathException, ExpressionException {
setStatus("Canonical Math for both mathDescriptions: \n");
MathDescription[] canonicalMathDescs = MathUtilities.getCanonicalMathDescriptions(SimulationSymbolTable.createMathSymbolTableFactory(), getMathModel1().getMathDescription(), getMathModel2().getMathDescription());
MathModel newMathModel = new MathModel(null);
newMathModel.setName("Math1");
newMathModel.setMathDescription(canonicalMathDescs[0]);
setMathModel1(newMathModel);
newMathModel = new MathModel(null);
newMathModel.setName("Math2");
newMathModel.setMathDescription(canonicalMathDescs[1]);
setMathModel2(newMathModel);
}
use of cbit.vcell.math.MathDescription in project vcell by virtualcell.
the class MathDescEditor method setMathDescription.
/**
* Set the MathDescription to a new value.
* @param newValue cbit.vcell.math.MathDescription
*/
public void setMathDescription(MathDescription newValue) {
if (ivjMathDescription != newValue) {
try {
MathDescription oldValue = getMathDescription();
ivjMathDescription = newValue;
getVCMLPane().setText(getMathDescription().getVCML_database());
getVCMLPane().setCaretPosition(0);
firePropertyChange("mathDescription", oldValue, newValue);
} catch (java.lang.Throwable ivjExc) {
handleException(ivjExc);
}
}
}
use of cbit.vcell.math.MathDescription in project vcell by virtualcell.
the class MatlabOdeFileCoder method write_V6_MFile.
/**
* Insert the method's description here.
* Creation date: (3/8/00 10:31:52 PM)
*/
public void write_V6_MFile(java.io.PrintWriter pw, String functionName) throws MathException, ExpressionException {
MathDescription mathDesc = simulation.getMathDescription();
if (!mathDesc.isValid()) {
throw new MathException("invalid math description\n" + mathDesc.getWarning());
}
if (mathDesc.isSpatial()) {
throw new MathException("spatial math description, cannot create ode file");
}
if (mathDesc.hasFastSystems()) {
throw new MathException("math description contains algebraic constraints, cannot create .m file");
}
//
// print function declaration
//
pw.println("function [T,Y,yinit,param, allNames, allValues] = " + functionName + "(argTimeSpan,argYinit,argParam)");
pw.println("% [T,Y,yinit,param] = " + functionName + "(argTimeSpan,argYinit,argParam)");
pw.println("%");
pw.println("% input:");
pw.println("% argTimeSpan is a vector of start and stop times (e.g. timeSpan = [0 10.0])");
pw.println("% argYinit is a vector of initial conditions for the state variables (optional)");
pw.println("% argParam is a vector of values for the parameters (optional)");
pw.println("%");
pw.println("% output:");
pw.println("% T is the vector of times");
pw.println("% Y is the vector of state variables");
pw.println("% yinit is the initial conditions that were used");
pw.println("% param is the parameter vector that was used");
pw.println("% allNames is the output solution variable names");
pw.println("% allValues is the output solution variable values corresponding to the names");
pw.println("%");
pw.println("% example of running this file: [T,Y,yinit,param,allNames,allValues] = myMatlabFunc; <-(your main function name)");
pw.println("%");
VariableHash varHash = new VariableHash();
for (Variable var : simulationSymbolTable.getVariables()) {
varHash.addVariable(var);
}
Variable[] variables = varHash.getTopologicallyReorderedVariables();
CompartmentSubDomain subDomain = (CompartmentSubDomain) mathDesc.getSubDomains().nextElement();
//
// collect "true" constants (Constants without identifiers)
//
//
// collect "variables" (VolVariables only)
//
//
// collect "functions" (Functions and Constants with identifiers)
//
Vector<Constant> constantList = new Vector<Constant>();
Vector<VolVariable> volVarList = new Vector<VolVariable>();
Vector<Variable> functionList = new Vector<Variable>();
for (int i = 0; i < variables.length; i++) {
if (variables[i] instanceof Constant) {
Constant constant = (Constant) variables[i];
String[] symbols = constant.getExpression().getSymbols();
if (symbols == null || symbols.length == 0) {
constantList.addElement(constant);
} else {
functionList.add(constant);
}
} else if (variables[i] instanceof VolVariable) {
volVarList.addElement((VolVariable) variables[i]);
} else if (variables[i] instanceof Function) {
functionList.addElement(variables[i]);
}
}
Constant[] constants = (Constant[]) BeanUtils.getArray(constantList, Constant.class);
VolVariable[] volVars = (VolVariable[]) BeanUtils.getArray(volVarList, VolVariable.class);
Variable[] functions = (Variable[]) BeanUtils.getArray(functionList, Variable.class);
int numVars = volVarList.size() + functionList.size();
String varNamesForStringArray = "";
String varNamesForValueArray = "";
for (Variable var : volVarList) {
varNamesForStringArray = varNamesForStringArray + "'" + var.getName() + "';";
varNamesForValueArray = varNamesForValueArray + var.getName() + " ";
}
for (Variable func : functionList) {
varNamesForStringArray = varNamesForStringArray + "'" + func.getName() + "';";
varNamesForValueArray = varNamesForValueArray + func.getName() + " ";
}
pw.println("");
pw.println("%");
pw.println("% Default time span");
pw.println("%");
double beginTime = 0.0;
double endTime = simulation.getSolverTaskDescription().getTimeBounds().getEndingTime();
pw.println("timeSpan = [" + beginTime + " " + endTime + "];");
pw.println("");
pw.println("% output variable lengh and names");
pw.println("numVars = " + numVars + ";");
pw.println("allNames = {" + varNamesForStringArray + "};");
pw.println("");
pw.println("if nargin >= 1");
pw.println("\tif length(argTimeSpan) > 0");
pw.println("\t\t%");
pw.println("\t\t% TimeSpan overridden by function arguments");
pw.println("\t\t%");
pw.println("\t\ttimeSpan = argTimeSpan;");
pw.println("\tend");
pw.println("end");
pw.println("%");
pw.println("% Default Initial Conditions");
pw.println("%");
pw.println("yinit = [");
for (int j = 0; j < volVars.length; j++) {
Expression initial = subDomain.getEquation(volVars[j]).getInitialExpression();
double defaultInitialCondition = 0;
try {
initial.bindExpression(mathDesc);
defaultInitialCondition = initial.evaluateConstant();
pw.println("\t" + defaultInitialCondition + ";\t\t% yinit(" + (j + 1) + ") is the initial condition for '" + cbit.vcell.parser.SymbolUtils.getEscapedTokenMatlab(volVars[j].getName()) + "'");
} catch (ExpressionException e) {
e.printStackTrace(System.out);
pw.println("\t" + initial.infix_Matlab() + ";\t\t% yinit(" + (j + 1) + ") is the initial condition for '" + cbit.vcell.parser.SymbolUtils.getEscapedTokenMatlab(volVars[j].getName()) + "'");
// throw new RuntimeException("error evaluating initial condition for variable "+volVars[j].getName());
}
}
pw.println("];");
pw.println("if nargin >= 2");
pw.println("\tif length(argYinit) > 0");
pw.println("\t\t%");
pw.println("\t\t% initial conditions overridden by function arguments");
pw.println("\t\t%");
pw.println("\t\tyinit = argYinit;");
pw.println("\tend");
pw.println("end");
pw.println("%");
pw.println("% Default Parameters");
pw.println("% constants are only those \"Constants\" from the Math Description that are just floating point numbers (no identifiers)");
pw.println("% note: constants of the form \"A_init\" are really initial conditions and are treated in \"yinit\"");
pw.println("%");
pw.println("param = [");
int paramIndex = 0;
for (int i = 0; i < constants.length; i++) {
pw.println("\t" + constants[i].getExpression().infix_Matlab() + ";\t\t% param(" + (paramIndex + 1) + ") is '" + cbit.vcell.parser.SymbolUtils.getEscapedTokenMatlab(constants[i].getName()) + "'");
paramIndex++;
}
pw.println("];");
pw.println("if nargin >= 3");
pw.println("\tif length(argParam) > 0");
pw.println("\t\t%");
pw.println("\t\t% parameter values overridden by function arguments");
pw.println("\t\t%");
pw.println("\t\tparam = argParam;");
pw.println("\tend");
pw.println("end");
pw.println("%");
pw.println("% invoke the integrator");
pw.println("%");
pw.println("[T,Y] = ode15s(@f,timeSpan,yinit,odeset('OutputFcn',@odeplot),param,yinit);");
pw.println("");
pw.println("% get the solution");
pw.println("all = zeros(size(T), numVars);");
pw.println("for i = 1:size(T)");
pw.println("\tall(i,:) = getRow(T(i), Y(i,:), yinit, param);");
pw.println("end");
pw.println("");
pw.println("allValues = all;");
pw.println("end");
// get row data for solution
pw.println("");
pw.println("% -------------------------------------------------------");
pw.println("% get row data");
pw.println("function rowValue = getRow(t,y,y0,p)");
//
// print volVariables (in order and assign to var vector)
//
pw.println("\t% State Variables");
for (int i = 0; i < volVars.length; i++) {
pw.println("\t" + cbit.vcell.parser.SymbolUtils.getEscapedTokenMatlab(volVars[i].getName()) + " = y(" + (i + 1) + ");");
}
//
// print constants
//
pw.println("\t% Constants");
paramIndex = 0;
for (int i = 0; i < constants.length; i++) {
pw.println("\t" + cbit.vcell.parser.SymbolUtils.getEscapedTokenMatlab(constants[i].getName()) + " = p(" + (paramIndex + 1) + ");");
paramIndex++;
}
//
// print variables
//
pw.println("\t% Functions");
for (int i = 0; i < functions.length; i++) {
pw.println("\t" + cbit.vcell.parser.SymbolUtils.getEscapedTokenMatlab(functions[i].getName()) + " = " + functions[i].getExpression().infix_Matlab() + ";");
}
pw.println("");
pw.println("\trowValue = [" + varNamesForValueArray + "];");
pw.println("end");
//
// print ode-rate
//
pw.println("");
pw.println("% -------------------------------------------------------");
pw.println("% ode rate");
pw.println("function dydt = f(t,y,p,y0)");
//
// print volVariables (in order and assign to var vector)
//
pw.println("\t% State Variables");
for (int i = 0; i < volVars.length; i++) {
pw.println("\t" + cbit.vcell.parser.SymbolUtils.getEscapedTokenMatlab(volVars[i].getName()) + " = y(" + (i + 1) + ");");
}
//
// print constants
//
pw.println("\t% Constants");
paramIndex = 0;
for (int i = 0; i < constants.length; i++) {
pw.println("\t" + cbit.vcell.parser.SymbolUtils.getEscapedTokenMatlab(constants[i].getName()) + " = p(" + (paramIndex + 1) + ");");
paramIndex++;
}
//
// print variables
//
pw.println("\t% Functions");
for (int i = 0; i < functions.length; i++) {
pw.println("\t" + cbit.vcell.parser.SymbolUtils.getEscapedTokenMatlab(functions[i].getName()) + " = " + functions[i].getExpression().infix_Matlab() + ";");
}
pw.println("\t% Rates");
pw.println("\tdydt = [");
for (int i = 0; i < volVars.length; i++) {
pw.println("\t\t" + subDomain.getEquation(volVars[i]).getRateExpression().infix_Matlab() + "; % rate for " + cbit.vcell.parser.SymbolUtils.getEscapedTokenMatlab(volVars[i].getName()));
}
pw.println("\t];");
pw.println("end");
}
use of cbit.vcell.math.MathDescription in project vcell by virtualcell.
the class MathDescriptionDbDriver method getMathDescriptionSQL.
/**
* This method was created in VisualAge.
* @return cbit.vcell.math.MathDescription
* @param user cbit.vcell.server.User
* @param mathDescKey cbit.sql.KeyValue
*/
private MathDescription getMathDescriptionSQL(QueryHashtable dbc, Connection con, User user, KeyValue mathDescKey) throws SQLException, DataAccessException, ObjectNotFoundException {
String sql;
Field[] f = { userTable.userid, new cbit.sql.StarField(mathDescTable) };
Table[] t = { mathDescTable, userTable };
String condition = mathDescTable.id.getQualifiedColName() + " = " + mathDescKey + " AND " + userTable.id.getQualifiedColName() + " = " + mathDescTable.ownerRef.getQualifiedColName();
sql = DatabasePolicySQL.enforceOwnershipSelect(user, f, t, (OuterJoin) null, condition, null, dbSyntax);
// System.out.println(sql);
MathDescription mathDescription = null;
Statement stmt = con.createStatement();
try {
ResultSet rset = stmt.executeQuery(sql);
if (rset.next()) {
//
// note: must call mathDescTable.getMathDescription() first (rset.getBytes(language) must be called first)
//
mathDescription = mathDescTable.getMathDescription(rset, con, dbSyntax);
//
// get Geometry reference and assign to mathDescription
//
java.math.BigDecimal bigD = rset.getBigDecimal(MathDescTable.table.geometryRef.toString());
KeyValue geomRef = null;
if (!rset.wasNull()) {
geomRef = new KeyValue(bigD);
} else {
throw new DataAccessException("Error: Geometry Reference Cannot be Null for MathDescription");
}
Geometry geom = (Geometry) geomDB.getVersionable(dbc, con, user, VersionableType.Geometry, geomRef, false);
try {
mathDescription.setGeometry(geom);
} catch (java.beans.PropertyVetoException e) {
e.printStackTrace(System.out);
throw new DataAccessException("DataAccess Exception: " + e.getMessage());
}
} else {
throw new ObjectNotFoundException("MathDescription id=" + mathDescKey + " not found for user '" + user + "'");
}
} finally {
// Release resources include resultset
stmt.close();
}
return mathDescription;
}
use of cbit.vcell.math.MathDescription in project vcell by virtualcell.
the class MathVerifier method testMathGeneration.
public MathGenerationResults testMathGeneration(KeyValue simContextKey) throws SQLException, ObjectNotFoundException, DataAccessException, XmlParseException, MappingException, MathException, MatrixException, ExpressionException, ModelException, PropertyVetoException {
User adminUser = new User(PropertyLoader.ADMINISTRATOR_ACCOUNT, new org.vcell.util.document.KeyValue(PropertyLoader.ADMINISTRATOR_ID));
if (lg.isTraceEnabled())
lg.trace("Testing SimContext with key '" + simContextKey + "'");
// get biomodel refs
java.sql.Connection con = null;
java.sql.Statement stmt = null;
con = conFactory.getConnection(new Object());
cbit.vcell.modeldb.BioModelSimContextLinkTable bmscTable = cbit.vcell.modeldb.BioModelSimContextLinkTable.table;
cbit.vcell.modeldb.BioModelTable bmTable = cbit.vcell.modeldb.BioModelTable.table;
cbit.vcell.modeldb.UserTable userTable = cbit.vcell.modeldb.UserTable.table;
String sql = "SELECT " + bmscTable.bioModelRef.getQualifiedColName() + "," + bmTable.ownerRef.getQualifiedColName() + "," + userTable.userid.getQualifiedColName() + " FROM " + bmscTable.getTableName() + "," + bmTable.getTableName() + "," + userTable.getTableName() + " WHERE " + bmscTable.simContextRef.getQualifiedColName() + " = " + simContextKey + " AND " + bmTable.id.getQualifiedColName() + " = " + bmscTable.bioModelRef.getQualifiedColName() + " AND " + bmTable.ownerRef.getQualifiedColName() + " = " + userTable.id.getQualifiedColName();
ArrayList<KeyValue> bioModelKeys = new ArrayList<KeyValue>();
stmt = con.createStatement();
User owner = null;
try {
ResultSet rset = stmt.executeQuery(sql);
while (rset.next()) {
KeyValue key = new KeyValue(rset.getBigDecimal(bmscTable.bioModelRef.getUnqualifiedColName()));
bioModelKeys.add(key);
KeyValue ownerRef = new KeyValue(rset.getBigDecimal(bmTable.ownerRef.getUnqualifiedColName()));
String userid = rset.getString(userTable.userid.getUnqualifiedColName());
owner = new User(userid, ownerRef);
}
} finally {
if (stmt != null) {
stmt.close();
}
con.close();
}
// use the first biomodel...
if (bioModelKeys.size() == 0) {
throw new RuntimeException("zombie simContext ... no biomodels");
}
BioModelInfo bioModelInfo = dbServerImpl.getBioModelInfo(owner, bioModelKeys.get(0));
//
// read in the BioModel from the database
//
BigString bioModelXML = dbServerImpl.getBioModelXML(owner, bioModelInfo.getVersion().getVersionKey());
BioModel bioModelFromDB = XmlHelper.XMLToBioModel(new XMLSource(bioModelXML.toString()));
BioModel bioModelNewMath = XmlHelper.XMLToBioModel(new XMLSource(bioModelXML.toString()));
bioModelFromDB.refreshDependencies();
bioModelNewMath.refreshDependencies();
//
// get all Simulations for this model
//
Simulation[] modelSimsFromDB = bioModelFromDB.getSimulations();
//
// ---> only for the SimContext we started with...
// recompute mathDescription, and verify it is equivalent
// then check each associated simulation to ensure math overrides are applied in an equivalent manner also.
//
SimulationContext[] simContextsFromDB = bioModelFromDB.getSimulationContexts();
SimulationContext[] simContextsNewMath = bioModelNewMath.getSimulationContexts();
SimulationContext simContextFromDB = null;
SimulationContext simContextNewMath = null;
for (int k = 0; k < simContextsFromDB.length; k++) {
// find it...
if (simContextsFromDB[k].getKey().equals(simContextKey)) {
simContextFromDB = simContextsFromDB[k];
simContextNewMath = simContextsNewMath[k];
break;
}
}
if (simContextFromDB == null) {
throw new RuntimeException("BioModel referred to by this SimContext does not contain this SimContext");
} else {
MathDescription origMathDesc = simContextFromDB.getMathDescription();
//
try {
if (simContextNewMath.getGeometry().getDimension() > 0 && simContextNewMath.getGeometry().getGeometrySurfaceDescription().getGeometricRegions() == null) {
simContextNewMath.getGeometry().getGeometrySurfaceDescription().updateAll();
}
} catch (Exception e) {
e.printStackTrace(System.out);
}
//
// updated mathDescription loaded into copy of bioModel, then test for equivalence.
//
cbit.vcell.mapping.MathMapping mathMapping = simContextNewMath.createNewMathMapping();
MathDescription mathDesc_latest = mathMapping.getMathDescription();
MathMapping_4_8 mathMapping_4_8 = new MathMapping_4_8(simContextNewMath);
MathDescription mathDesc_4_8 = mathMapping_4_8.getMathDescription();
String issueString = null;
org.vcell.util.Issue[] issues = mathMapping.getIssues();
if (issues != null && issues.length > 0) {
StringBuffer buffer = new StringBuffer("Issues(" + issues.length + "):\n");
for (int l = 0; l < issues.length; l++) {
buffer.append(" <<" + issues[l].toString() + ">>\n");
}
issueString = buffer.toString();
}
simContextNewMath.setMathDescription(mathDesc_latest);
MathCompareResults mathCompareResults_latest = MathDescription.testEquivalency(SimulationSymbolTable.createMathSymbolTableFactory(), origMathDesc, mathDesc_latest);
MathCompareResults mathCompareResults_4_8 = null;
try {
mathCompareResults_4_8 = MathDescription.testEquivalency(SimulationSymbolTable.createMathSymbolTableFactory(), origMathDesc, mathDesc_4_8);
} catch (Exception e) {
e.printStackTrace(System.out);
mathCompareResults_4_8 = new MathCompareResults(Decision.MathDifferent_FAILURE_UNKNOWN, e.getMessage());
}
return new MathGenerationResults(bioModelFromDB, simContextFromDB, origMathDesc, mathDesc_latest, mathCompareResults_latest, mathDesc_4_8, mathCompareResults_4_8);
}
}
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