def execute(self, context, paraList):
if (len(paraList) == 0):
context.setErrorMessage(self.get_name(),
R_string.error_invalid_parameter_count)
return False
result = Complex(0)
for c in paraList:
result = Complex.add(result, c)
result = Complex.div(result, Complex(len(paraList)))
context.setCurrentResult(result)
return self.checkResult(context)
def execute(self, context, paraList):
if len(paraList) != 1:
context.setErrorMessage(self.get_name(),
R_string.error_invalid_parameter_count)
return False
para = paraList[0]
if para.i != 0:
context.setErrorMessage(self.get_name(),
R_string.error_invalid_date_type)
return False
cycles = math.floor(para.r / 2 / math.pi)
if cycles < 0:
cycles = cycles + 1
angle = para.r - cycles * 2 * math.pi
if (math.fabs(angle - math.pi / 2) < self.MIN_NUMBER) \
or (math.fabs(angle - math.pi * 3 / 2) < self.MIN_NUMBER):
context.setErrorMessage(self.get_name(),
R_string.error_invalid_input)
return False
result = math.tan(angle)
context.setCurrentResult(Complex(result))
return True
def execute(self, context, paraList): if len(paraList) != 1: context.setErrorMessage(self.get_name(), R_string.error_invalid_parameter_count) return False para = paraList[0] if para.i: context.setErrorMessage(self.get_name(), R_string.error_invalid_date_type) return False result = math.cos(para.r) context.setCurrentResult(Complex(result)) return True
def execute(self, context, paraList):
if (len(paraList) != 1):
context.setErrorMessage(self.get_name(),
R_string.error_invalid_parameter_count)
return False
para = paraList[0]
if (para.i != 0):
context.setErrorMessage(self.get_name(),
R_string.error_invalid_date_type)
return False
context.setCurrentResult(Complex(math.atan(para.r)))
return self.checkResult(context)
def execute(self, context, paraList):
if len(paraList) != 1:
context.setErrorMessage(self.get_name(),
R_string.error_invalid_parameter_count)
return False
para = paraList[0]
if (para.i != 0):
context.setErrorMessage(self.get_name(),
R_string.error_invalid_parameter_count)
return False
context.setCurrentResult(
Complex((math.log(1 + para.r) - math.log(1 - para.r)) / 2))
return self.checkResult(context)
def evaluate(self, context):
context.pushResult(Complex(0))
paraList = []
for expr in self.exprList:
if expr.evaluate(context):
paraList.append(context.getCurrentResult())
else:
return False
context.popResult()
fun = context.getFunctionManager().getFunction(self.functionName)
if not fun:
context.setErrorMessage("Can't found the function:" + self.functionName)
return False
return fun.execute(context,paraList)
def calculate1(self, tokenList):
result = ''
unknownToken = ''
for token in tokenList:
if token.getType() == TokenType.NoType:
if len(unknownToken) > 0:
unknownToken = unknownToken + ','
unknownToken += token.getContent()
if len(unknownToken) > 0:
self.currentRecord.success = False
return str(R_string.error_unknown_keyword) + unknownToken
bContext = BuildContext(self.systemContext, self.constManager,
tokenList)
expr = AdditiveExpr.buildExpr(bContext)
if expr:
if len(bContext.tokenList) > 0:
tokenString = ''
for token in tokenList:
if len(tokenString) != 0:
tokenString += ","
tokenString += token.getContent()
self.currentRecord.success = False
result = R_string.error_unnecessary_keyword + tokenString
else:
eContext = EvaluateContext(self.systemContext, self)
eContext.pushResult(Complex(0))
if expr.evaluate(eContext):
value = eContext.popResult()
result = eContext.getFormatter().toString(value)
if result:
self.currentRecord.success = True
self.currentRecord.result = value
else:
self.currentRecord.success = False
result = R_string.error_invalid_input
else:
self.currentRecord.success = False
result = eContext.getErrorMessage()
else:
self.currentRecord.success = False
result = bContext.errorMessage
return result
def execute(self, paraList):
if (len(paraList) != 2):
context.setErrorMessage(self.get_name(),
R_string.error_invalid_parameter_count)
return False
x = paraList[0]
if (x.i != 0):
context.setErrorMessage(self.get_name(),
R_string.error_invalid_date_type)
return False
y = paraList[1]
if (y.i != 0):
context.setErrorMessage(self.get_name(),
R_string.error_invalid_date_type)
return False
context.setCurrentResult(Complex(math.pow(x.r, y.r)))
return self.checkResult(context)
def buildExpr(context):
#value = context.tokenList.removeFirst().getContent()
value = context.tokenList.pop(0).getContent()
constValue = context.constManager.find(value)
if constValue:
return NumberExpr(constValue)
else:
#index = value.indexOf("∠")
index = value.find("∠")
if (index != -1):
radius = float(value.substring(0, index))
angle = 0
if (value.substring(value.length() - 1).compareTo("°") == 0):
degrees = float(
value.substring(index + 1,
value.length() - 1))
cycles = math.floor(degrees / 360)
if (degrees < 0):
cycles = cycles + 1
angle = math.radians(degrees - cycles * 360)
else:
angle = float(value.substring(index + 1))
return NumberExpr(
Complex(radius * math.cos(angle),
radius * math.sin(angle)))
#elif (value.substring(value.length() - 1).compareTo("i") == 0):
elif (value[len(value) - 1] == ("i")):
if (value.length() == 1):
return NumberExpr(Complex(0, 1))
else:
return NumberExpr(
Complex(0,
float(value.substring(0,
value.length() - 1))))
#elif (value.substring(value.length() - 1).compareTo("°") == 0):
elif (value[len(value) - 1] == ("°")):
return NumberExpr(
Complex(
math.radians(
float(value.substring(0,
value.length() - 1)))))
#elif (value.substring(value.length() - 1).compareTo("%") == 0):
elif (value[len(value) - 1] == ("%")):
return NumberExpr(
Complex(
float(value.substring(0,
value.length() - 1)) / 100))
else:
return NumberExpr(Complex(float(value)))
def execute(self, context,paraList):
if len(paraList) != 1:
context.setErrorMessage(self.get_name(), R_string.error_invalid_parameter_count)
return False
para = paraList[0]
if (para.i != 0):
context.setErrorMessage(self.get_name(), R_string.error_invalid_date_type)
return False
if (para.r < 1):
context.setErrorMessage(self.get_name(), R_string.error_invalid_input)
return False
value = math.sqrt((para.r + 1) / 2) + math.sqrt((para.r - 1) / 2)
if (value == 0):
context.setErrorMessage(self.get_name(), R_string.error_invalid_input)
return False
context.setCurrentResult(Complex(math.log(value) * 2))
return self.checkResult(context)
def evaluate(self, context):
if len(self.exprList) - len(self.operatorList) != 1:
context.clearResult()
context.setErrorMessage('Operator count and Expr count is not match.')
return False
ex_index = 0
context.pushResult(Complex())
if not self.exprList[ex_index].evaluate(context):
return False
ex_index = ex_index + 1
op_index = 0
while ex_index < len(self.exprList):
expr = self.exprList[ex_index]
token = self.operatorList[op_index]
ex_index = ex_index + 1
op_index = op_index + 1
if op_index >= len(self.operatorList):
op_index = len(self.operatorList) -1
res_prev = context.getCurrentResult()
if expr.evaluate(context):
res_cur = context.popResult()
valueOperator = self.getValueOperator(token.getContent())
if valueOperator.evaluate(res_prev, res_cur):
context.pushResult(valueOperator.getResult())
else:
context.clearResult()
context.setErrorMessage(valueOperator.getOperatorString(),
valueOperator.getErrorMessage())
return False
else:
return False
context.setCurrentResult(context.popResult())
return True
def __init__(self, string):
self.operatorString = string
self.evaluateResult = Complex()
self.errorMessage = 0
from Interpreter.CalculateFunction import *
