/**
* Another satisfy for continuous data types. Indicates whether a particular value is higher or
* lower (as specified by theDirection) than the upper or lower threshold.
*
* <p>
*
* @param theGeneticDataType
* @return true if the value is satisfied by the specified inequalities in the spec
*/
public boolean satisfy(GeneticDataTypes theGeneticDataType, float value, Direction theDirection)
throws IllegalArgumentException {
if (!theGeneticDataType.getTheDataTypeCategory().equals(DataTypeCategory.Continuous)) {
throw new IllegalArgumentException(
"satisfy for continuous data types only takes continuous GeneticDataTypes");
}
ResultDataTypeSpec theResultDataTypeSpec = finalDataTypeSpecs.get(theGeneticDataType);
if (null == theResultDataTypeSpec) {
return false;
}
if (theResultDataTypeSpec.acceptAll) {
return true;
}
switch (theDirection) {
case higher:
return (theResultDataTypeSpec.combinedGreaterContinuousDataTypeSpec != null
&& finalDataTypeSpecs
.get(theGeneticDataType)
.combinedGreaterContinuousDataTypeSpec
.satisfy(value));
case lower:
return (theResultDataTypeSpec.combinedLesserContinuousDataTypeSpec != null
&& finalDataTypeSpecs
.get(theGeneticDataType)
.combinedLesserContinuousDataTypeSpec
.satisfy(value));
}
// unreachable code; keep compiler happy
// TODO: throw an exception
return false;
}
/**
* satisfy for continuous data types.
*
* @param theGeneticDataType
* @return true if the value is in one of the inequalities passed by the spec
*/
public boolean satisfy(GeneticDataTypes theGeneticDataType, float value)
throws IllegalArgumentException {
if (theGeneticDataType.getTheDataTypeCategory().equals(DataTypeCategory.Discrete)) {
throw new IllegalArgumentException(
"satisfy for continuous data types only takes continuous GeneticDataTypes");
}
ResultDataTypeSpec theResultDataTypeSpec = finalDataTypeSpecs.get(theGeneticDataType);
if (null == theResultDataTypeSpec) {
return false;
}
if (theResultDataTypeSpec.acceptAll) {
return true;
}
if (theResultDataTypeSpec.combinedLesserContinuousDataTypeSpec != null
&& finalDataTypeSpecs
.get(theGeneticDataType)
.combinedLesserContinuousDataTypeSpec
.satisfy(value)) {
return true;
}
if (theResultDataTypeSpec.combinedGreaterContinuousDataTypeSpec != null
&& finalDataTypeSpecs
.get(theGeneticDataType)
.combinedGreaterContinuousDataTypeSpec
.satisfy(value)) {
return true;
}
return false;
}
@Override
public String toString() {
StringBuffer sb = new StringBuffer();
for (GeneticDataTypes aGeneticDataTypes : GeneticDataTypes.values()) {
// out.format("checking %s%n", aGeneticDataTypes);
ResultDataTypeSpec theResultDataTypeSpec = this.finalDataTypeSpecs.get(aGeneticDataTypes);
if (null != theResultDataTypeSpec) {
// out.format(" for gt %s%n", aGeneticDataTypes);
sb.append(theResultDataTypeSpec.toString()).append(" ");
}
}
return sb.append(";").toString();
}
/**
* satisfy for discrete data types.
*
* @param theGeneticDataType
* @param theGeneticTypeLevel
* @return indicates whether this display spec classifies the given data types' level as an
* alteration
* @throws IllegalArgumentException
*/
public boolean satisfy(
GeneticDataTypes theGeneticDataType, Object level) // GeneticTypeLevel theGeneticTypeLevel )
throws IllegalArgumentException {
if (!theGeneticDataType.getTheDataTypeCategory().equals(DataTypeCategory.Discrete)) {
throw new IllegalArgumentException(
"satisfy for discrete data types only takes Discrete GeneticDataTypes");
}
ResultDataTypeSpec theResultDataTypeSpec = finalDataTypeSpecs.get(theGeneticDataType);
if (null == theResultDataTypeSpec) {
return false;
}
if (theResultDataTypeSpec.acceptAll) {
return true;
}
if (theResultDataTypeSpec.theDiscreteDataTypeSetSpec != null
&& theResultDataTypeSpec.theDiscreteDataTypeSetSpec.satisfy(level)) {
return true;
}
return false;
}