def getFunction(keyStr):
if keyStr in sympy_action_implementation:
noArgs = generic_cas_computations.getNoArgs(keyStr)
if noArgs == 1:
return lambda x: symbolic_object.symbolicObject(
sympy_action_implementation[keyStr](x.getComputableObject())
)
elif noArgs == 2:
return lambda x, y: symbolic_object.symbolicObject(
sympy_action_implementation[keyStr](x.getComputableObject(), y.getComputableObject())
)
else:
error_reporter.reportProgramError(
"sympy_actions.py:getFunction :- An unhandled number of arguments are required: " + noArgs
)
else:
error_reporter.reportProgramError(
"sympy_actions.py:getFunction :- Cannot find an entry with the given key: '" + keyStr + "'"
)
def computeResult(keyStr, args):
'''Calls the relevant function to perform the computation.
@param keyStr - the key string identifying the computation (operation)
@param args - the keys of the object on which to apply the computation'''
noArgs = generic_cas_computations.getNoArgs(keyStr)
if len(args) > 2:
error_reporter.reportProgramError("sympy_act.py:compute :- This function does not yet handle arguments of length greater than 2. noArgs = "+noArgs+", arge.length = "+len(args))
return
elif len(args) != noArgs:
error_reporter.reportProgramError("sympy_act.py:compute :- Number of arguments given does not match expected number of arguments. noArgs = "+noArgs+", len(args) = "+len(args))
return
try:
if noArgs == 1:
return generic_cas_computations.getFunction(keyStr)(args[0]) #sympy_computation_list.getFunction(keyStr)(args[0])
if noArgs == 2:
return generic_cas_computations.getFunction(keyStr)(args[0], args[1]) #sympy_computation_list.getFunction(keyStr)(args[0], args[1])
except NotImplementedError:
return []