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modelobject.py
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465 lines (323 loc) · 14.5 KB
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import math
from PID import *
class parameter(object):
def __init__(self, name,type,settable,units):
self.type = type
self.name = name
self.value = 0.0
self.settable = settable
self.unitstring = units
def change_name(self,name):
self.name = name
def setvalue(self, set_value):
self.value = set_value
def getvalue(self):
return(self.value)
def getname(self):
return(str(self.name))
class model(object):
def __init__(self):
self.objectlist = []
self.name = "Model"
self.equipment = True
def addparam(self, variable):
if(type(variable) == parameter):
self.objectlist.append(variable)
def getvalue(self,paramname):
for i in range(0,len(self.objectlist)):
if(self.objectlist[i].name == paramname):
return(self.objectlist[i].value)
return None
def setvalue(self,value, paraname):
for i in range(0,len(self.objectlist)):
#print (self.objectlist[i].name )
if(self.objectlist[i].name == paraname):
self.objectlist[i].value = value
#self.objectlist[i].setvalue(value)
def get_settable(self):
settable_arr = []
for i in range(0,len(self.objectlist)):
if(self.objectlist[i].settable == True):
settable_arr.append(self.objectlist[i].name)
return settable_arr
def print_list_type(self,type_c):
for i in range(0,len(self.objectlist)):
if(self.objectlist[i].type == type_c):
print(self.objectlist[i].name + " " + self.objectlist[i].value)
def print_list(self):
for i in range(0,len(self.objectlist)):
print(self.objectlist[i].name + " " + str(self.objectlist[i].value))
class tank(model):
def __init__(self,name):
super().__init__()
self.name = name
self.addparam(parameter("Area", "Setting",True, "m2"))
self.addparam(parameter("Height","Setting", False, 'meters'))
self.addparam(parameter("Inlet Flow", "Input", False, "m3/sec"))
self.addparam(parameter("Outlet Flow","Output", False, "m3/sec"))
self.addparam(parameter("Predicted Flow","Setting", False, "m3/sec"))
self.Quantity = 0
self.beta = 1.8
# self.teststart()
#def teststart(self):
# self.setvalue(2,"Inlet Flow")
# self.setvalue(5,"Area")
# print(self.getvalue("Inlet Flow"))
def start(self):
x = self.getvalue("Area")
self.setvalue(self.Quantity /x, "Height")
def update_model(self):
new_flow = self.beta * math.sqrt(self.getvalue("Height"))
self.setvalue(new_flow,"Predicted Flow")
#print(self.getvalue("Predicted Flow"))
def compute(self,timeslice):
delta = (self.getvalue("Inlet Flow") - self.getvalue("Outlet Flow")) * timeslice
self.Quantity = self.Quantity + delta
#print(self.getvalue("Inlet Flow"))
#print(self.getvalue("Outlet Flow"))
#print(" Quantity " + str(self.Quantity) + " Delta " + str(delta))
#print("Inlet flow : " + str(self.getvalue("Inlet Flow")) +" " + str(self.getvalue("Outlet Flow")))
x = self.getvalue("Area")
self.setvalue(self.Quantity /x, "Height")
def statusprint(self):
print("Inlet Flow : " + str(self.getvalue("Inlet Flow")) + "Quantity : " + str(self.Quantity))
print(" Height : " + str(self.getvalue("Height")) + "Outlet Flow : " + str(self.getvalue("Outlet Flow")))
class Pipe(model):
def __init__(self,name):
super().__init__()
self.name = name
self.addparam(parameter("Inlet Flow", "Input", True, "m3/sec"))
self.addparam(parameter("Outlet Flow","Output", False, "m3/sec"))
self.equipment = False
self.teststart()
def teststart(self):
self.setvalue(2,"Inlet Flow")
def start(self):
x = self.getvalue("Inlet Flow")
self.setvalue(x, "Outlet Flow")
def compute(self, timeslice):
x = self.getvalue("Inlet Flow")
self.setvalue(x, "Outlet Flow")
def statusprint(self):
print("Pipe : Inlet Flow : " + str(self.getvalue("Inlet Flow")) + "Outlet Flow : " + str(self.getvalue("Outlet Flow")))
class Pipewithvalve(model):
def __init__(self,name):
super().__init__()
self.name = name
self.addparam(parameter("Inlet Flow", "Input", True, "m3/sec"))
self.addparam(parameter("Outlet Flow","Output", False, "m3/sec"))
self.addparam(parameter("ControlValveSetting","Settable", True, "%"))
self.equipment = False
def start(self):
x = self.getvalue("Inlet Flow")
y = self.getvalue("ControlValveSetting")
self.setvalue(x * (y/100), "Outlet Flow")
def compute(self,timeslice):
x = self.getvalue("Inlet Flow")
y = self.getvalue("ControlValveSetting")
self.setvalue(x * (y/100), "Outlet Flow")
#print( "Valve Setting " + str( y)+ str(self.getvalue("Outlet Flow")) )
def statusprint(self, timeslice):
print("Pipe with Control : Inlet Flow : " + str(self.getvalue("Inlet Flow")) + "Outlet Flow : " + str(self.getvalue("Outlet Flow")))
print("Valve Output Set : " + str(self.getvalue("ControlValveSetting")))
# class parameter(object):
# def __init__(self, name,type,settable,units):
# self.type = type
# self.name = name
# self.value = 0
# self.settable = settable
# self.unitstring = units
# def change_name(self,name):
# self.name = name
# def setvalue(self, set_value):
# self.value = set_value
# def getvalue(self):
# return(self.value)
# def getname(self):
# return(str(self.name))
# class model(object):
# def __init__(self):
# self.objectlist = []
# self.name = "Model"
# self.equipment = True
# def addparam(self, variable):
# if(type(variable) == parameter):
# self.objectlist.append(variable)
# def getvalue(self,paramname):
# for i in range(0,len(self.objectlist)):
# if(self.objectlist[i].name == paramname):
# return(self.objectlist[i].value)
# return None
# def setvalue(self,value, paraname):
# for i in range(0,len(self.objectlist)):
# print (self.objectlist[i].name )
# if(self.objectlist[i].name == paraname):
# self.objectlist[i].value = value
# #self.objectlist[i].setvalue(value)
# def get_settable(self):
# settable_arr = []
# for i in range(0,len(self.objectlist)):
# if(self.objectlist[i].settable == True):
# settable_arr.append(self.objectlist[i].name)
# return settable_arr
# def print_list_type(self,type_c):
# for i in range(0,len(self.objectlist)):
# if(self.objectlist[i].type == type_c):
# print(self.objectlist[i].name + " " + self.objectlist[i].value)
# def print_list(self):
# for i in range(0,len(self.objectlist)):
# print(self.objectlist[i].name + " " + str(self.objectlist[i].value))
# class tank(model):
# def __init__(self,name):
# super().__init__()
# self.name = "Tank"
# self.model.addparam(parameter.__init__("Area", "Setting", 0, True, "m2"))
# self.model.addparam(parameter.__init__("Height","Setting", 0, False, 'meters'))
# self.model.addparam(parameter.__init__("Inlet Flow", "Input", 0, False, "m3/sec"))
# self.model.addparam(parameter.__init__("Outlet Flow","Output", 0, False, "m3/sec"))
# self.Quantity = 0
# def start(self):
# x = self.getvalue("Area")
# self.setvalue(self.Quantity/x, "Height")
# def compute(self):
# Quantity = self.getvalue("Inlet Flow") - self.getvalue("Outlet Flow")
# x = self.getvalue("Area")
# self.setvalue(Quantity/x, "Height")
# class tank(model):
# def __init__(self,name):
# super().__init__()
# self.name = name
# self.addparam(parameter("Area", "Setting",True, "m2"))
# self.addparam(parameter("Height","Setting", False, 'meters'))
# self.addparam(parameter("Inlet Flow", "Input", False, "m3/sec"))
# self.addparam(parameter("Outlet Flow","Output", False, "m3/sec"))
# self.Quantity = 0
# def start(self):
# x = self.getvalue("Area")
# self.setvalue(self.Quantity/x, "Height")
# def compute(self):
# Quantity = self.getvalue("Inlet Flow") - self.getvalue("Outlet Flow")
# x = self.getvalue("Area")
# self.setvalue(self.Quantity /x, "Height")
# class Pipe(model):
# def __init__(self,name):
# super().__init__()
# self.name = name
# self.model.addparam(parameter("Inlet Flow", "Input", True, "m3/sec"))
# self.model.addparam(parameter("Outlet Flow","Output", False, "m3/sec"))
# self.equipment = False
# def start(self):
# x = self.getvalue("Inlet Flow")
# self.setvalue(x, "Outlet Flow")
# def compute(self):
# x = self.getvalue("Inlet Flow")
# self.setvalue(x, "Outlet Flow")
# class Pipewithvalve(model):
# def __init__(self,name):
# super().__init__()
# self.name = name
# self.model.addparam(parameter("Inlet Flow", "Input", True, "m3/sec"))
# self.model.addparam(parameter("Outlet Flow","Output", False, "m3/sec"))
# self.model.addparam(parameter("ControlValveSetting","Settable", True, "%"))
# self.equipment = False
# def start(self):
# x = self.getvalue("Inlet Flow")
# y = self.getvalue("ControlValveSetting")
# self.setvalue(x * (y/100), "Outlet Flow")
# def compute(self):
# x = self.getvalue("Inlet Flow")
# y = self.getvalue("ControlValveSetting")
# self.setvalue(x * (y/100), "Outlet Flow")
# tank1 = tank("dasd")
# tank1.print_list()
# newparam = parameter("Area", "Setting",True, "m2")
# newparam.setvalue(12)
# print(newparam.value)
# model1 = model()
# model1.addparam(parameter("Area", "Setting",True, "m2"))
# model1.addparam(parameter("Height","Setting", False, 'meters'))
# model1.setvalue(24,"Area")
# print(model1.getvalue("Area"))
# model1.setvalue(245,"Area")
# print(model1.getvalue("Area"))
# tank1 = tank("tank121")
# #print(tank1.objectlist)
# tank1.objectlist[0].setvalue(10)
# tank1.objectlist[2].setvalue(39)
# tank1.objectlist[3].setvalue(23)
# tank1.compute()
# print(tank1.Quantity)
# print(tank1.objectlist[1].value)
# tank1.start()
# print(tank1.objectlist[1].value)
# We write a simulator
# create inlet , tank, outler
# set clock, set time step = .1 sec
# set connection -- pipe outler flow - set parameter
# tnk outlet - to p outlet pile
# the otflow has interlock
# class model(object):
# def __init__(self):
# self.model_dictionary = {}
# self.tank_id = 1
# self.interconnect_id = 1
# def addparam(self,__object):
# if(type(__object) == tank ):
# tank_string = "tank" + str(self.tank_id)
# self.model_dictionary[tank_string] = __object
# self.tank_id = self.tank_id + 1
# elif(type(__object) == interconnect):
# interconnect_string = "inter" + str(self.interconnect_id)
# self.model_dictionary[interconnect_string] = __object
# self.interconnect_id = self.interconnect_id + 1
# else:
# return None
# def deleteparam(self,dict_key):
# if dict_key in self.model_dictionary:
# self.model_dictionary.pop(dict_key)
# def viewcomponents(self):
# list1 = self.model_dictionary.keys()
# print(list1)
# In a simulator, we have equipments and interconnection
# The euipments and interconnection vary from what we want to model
# So both equipment and interconnection will have input variables, output variables and setting variables
# The number of each depends on type of equipment or ConnectionAbortedError
# First is get a base class
# base class for model
# - is it an equipment or interconnection - type
# input array of floating number, you can slso
# So to manager all this creatr mofrl
# it has an array of dictonary
# dictory object is name: string, value- Float no, type = input, output or PID_settings
# =Method - Addparameter - it add a dictonaru to array, remove param given a name
# get value given a name - getvalue(name: string)
# set value = (name: string, value which is no)
# getvalues( array of names) get an array of ValuesView
# simiarly for set
# two empy methods, init and compute
# class tank(object):
# def __init_(self):
# self.area = 0
# self.name = " default_tank"
# class interconnect(object):
# def __init__(self):
# self.flow = 0
# self.name = " defaultinterconnect"
# #tests
# tank1 = tank()
# tank1.__init__()
# print(tank1)
# tank2 = tank()
# tank2.__init__()
# print(type(tank2))
# #interconnect1 = interconnect.__init__()
# interconnect1 = interconnect()
# interconnect1.__init__()
# model1 = model()
# model1.__init__()
# print(model1.tank_id)
# print(model1.model_dictionary)
# model1.addparam(tank1)
# model1.addparam(tank2)
# model1.addparam(interconnect1)
# model1.deleteparam("inter1")