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  1. Home/
  2. Sai Sharan Thirunagari/
  3. DATA ANALYSIS

DATA ANALYSIS

INTRODUCTION:- Here we are writing a program for reading a data file and plotting the graph for whatever parameters we want EXPLANATION OF PROGRAM:- I imported matplotlib.pyplot, math, numpy to use them in the program. I created empty arrays of each parameter in the data file. By using try and except function we can tell…

    • Sai Sharan Thirunagari

      updated on 19 Oct 2019

    INTRODUCTION:-

    Here we are writing a program for reading a data file and plotting the graph for whatever parameters we want

    EXPLANATION OF PROGRAM:-

    I imported matplotlib.pyplot, math, numpy to use them in the program.

    I created empty arrays of each parameter in the data file.

    By using try and except function we can tell whether the file is recognized or not.

    By open function we can access and read the data file and assign all the values for respective parameters in the empty arrays created.

    As I was using sublime text 3, I had to install sublimeREPL package so that I can take input from the user for the plot which the user wants.

    input statement is used to take inputs.

    if statements are used for giving the outputs for the options selected by the user.

    trapz command is used to calculate the area under the graph.

    \"\"\"
	Data analyser for converge file
\"\"\"

import matplotlib.pyplot as plt 
import math
import numpy as np

Crank = []
Pressure = []
Max_pres = []
Min_pres = []
Mean_temp = []
Max_temp = []
Min_temp = []
Volume = []
Mass = []
Density = []
Integrated_HR = []
HR_Rate = []
C_p = []
C_v = []
Gamma = []
Kin_visc = []
Dyn_visc = []


try:
	open(\'engine_data.out\',\'r\')
except:
	print(\"file not recognized. Please provide valid input file\")

line_count = 1
for line in open(\'engine_data.out\'):
	if \'#\' not in line:
		Crank.append(float(line.split()[0]))
		Pressure.append(float(line.split()[1]))
		Max_pres.append(float(line.split()[2]))
		Min_pres.append(float(line.split()[3]))
		Mean_temp.append(float(line.split()[4]))
		Max_temp.append(float(line.split()[5]))
		Min_temp.append(float(line.split()[6]))
		Volume.append(float(line.split()[7]))
		Mass.append(float(line.split()[8]))
		Density.append(float(line.split()[9]))
		Integrated_HR.append(float(line.split()[10]))
		HR_Rate.append(float(line.split()[11]))
		C_p.append(float(line.split()[12]))
		C_v.append(float(line.split()[13]))
		Gamma.append(float(line.split()[14]))
		Kin_visc.append(float(line.split()[15]))
		Dyn_visc.append(float(line.split()[16]))
	line_count=line_count+1	

print(\'select the two options for which you want see the plot\\n\',\'1. Crank\\n\',\'2. Pressure\\n\',\'3. Max_pres\\n\',\'4. Min_pres\\n\',\'5. Mean_temp\\n\',\'6. Max_temp\\n\',\'7. Min_temp\\n\',\'8. Volume\\n\',\'9. Mass\\n\',\'10. Density\\n\',\'11.Integrated_HR\\n\',\'12. HR_Rate\\n\',\'13. C_p\\n\',\'14. C_v\\n\',\'15. Gamma\\n\',\'16. Kin_visc\\n\',\'17. Dyn_visc\\n\')	
i = int(input(\"Enter: \"))
j = int(input(\"Enter: \"))
if (i==1 and j==1):
	print(\"error\")
if (i==1 and j==2):
	plt.plot(Crank,Pressure)
	plt.xlabel(\'Crank\')
	plt.ylabel(\'Pressure\')
	plt.show()
if (i==1 and j==3):
	plt.plot(Crank,Max_pres)
	plt.xlabel(\'Crank\')
	plt.ylabel(\'Max_pres\')
	plt.show()
if (i==1 and j==4):
	plt.plot(Crank,Min_pres)
	plt.xlabel(\'Crank\')
	plt.ylabel(\'Min_pres\')
	plt.show()
if (i==1 and j==5):
	plt.plot(Crank,Mean_temp)
	plt.xlabel(\'Crank\')
	plt.ylabel(\'Mean_temp\')
	plt.show()
if (i==1 and j==6):
	plt.plot(Crank,Max_temp)
	plt.xlabel(\'Crank\')
	plt.ylabel(\'Max_temp\')
	plt.show()
if (i==1 and j==7):
	plt.plot(Crank,Min_temp)
	plt.xlabel(\'Crank\')
	plt.ylabel(\'Min_temp\')
	plt.show()
if (i==1 and j==8):
	plt.plot(Crank,Volume)
	plt.xlabel(\'Crank\')
	plt.ylabel(\'Volume\')
	plt.show()
if (i==1 and j==9):
	plt.plot(Crank,Mass)
	plt.xlabel(\'Crank\')
	plt.ylabel(\'Mass\')
	plt.show()
if (i==1 and j==10):
	plt.plot(Crank,Density)
	plt.xlabel(\'Crank\')
	plt.ylabel(\'Density\')
	plt.show()
if (i==1 and j==11):
	plt.plot(Crank,Integrated_HR)
	plt.xlabel(\'Crank\')
	plt.ylabel(\'Integrated_HR\')
	plt.show()
if (i==1 and j==12):
	plt.plot(Crank,HR_Rate)
	plt.xlabel(\'Crank\')
	plt.ylabel(\'HR_Rate\')
	plt.show()
if (i==1 and j==13):
	plt.plot(Crank,C_p)
	plt.xlabel(\'Crank\')
	plt.ylabel(\'C_p\')
	plt.show()
if (i==1 and j==14):
	plt.plot(Crank,C_v)
	plt.xlabel(\'Crank\')
	plt.ylabel(\'C_v\')
	plt.show()
if (i==1 and j==15):
	plt.plot(Crank,Gamma)
	plt.xlabel(\'Crank\')
	plt.ylabel(\'Gamma\')
	plt.show()
if (i==1 and j==16):
	plt.plot(Crank,Kin_visc)
	plt.xlabel(\'Crank\')
	plt.ylabel(\'Kin_visc\')
	plt.show()
if (i==1 and j==17):
	plt.plot(Crank,Dyn_visc)
	plt.xlabel(\'Crank\')
	plt.ylabel(\'Dyn_visc\')
	plt.show()
if (i==2 and j==1):
	plt.plot(Pressure,Crank)
	plt.xlabel(\'Pressure\')
	plt.ylabel(\'Crank\')
	plt.show()	
if (i==2 and j==2):
	print(\"error\")
if (i==2 and j==3):
	print(\"no plot\")
if (i==2 and j==4):
	print(\"no plot\")
if (i==2 and j==5):
	plt.plot(Pressure,Mean_temp)
	plt.xlabel(\'Pressure\')
	plt.ylabel(\'Mean_temp\')
	plt.show()
if (i==2 and j==6):
	plt.plot(Pressure,Max_temp)
	plt.xlabel(\'Pressure\')
	plt.ylabel(\'Max_temp\')
	plt.show()
if (i==2 and j==7):
	plt.plot(Pressure,Min_temp)
	plt.xlabel(\'Pressure\')
	plt.ylabel(\'Min_temp\')
	plt.show()
if (i==2 and j==8):
	plt.plot(Pressure,Volume)
	plt.xlabel(\'Pressure\')
	plt.ylabel(\'Volume\')
	plt.show()
if (i==2 and j==9):
	plt.plot(Pressure,Mass)
	plt.xlabel(\'Pressure\')
	plt.ylabel(\'Mass\')
	plt.show()
if (i==2 and j==10):
	plt.plot(Pressure,Density)
	plt.xlabel(\'Pressure\')
	plt.ylabel(\'Density\')
	plt.show()
if (i==2 and j==11):
	plt.plot(Pressure,Integrated_HR)
	plt.xlabel(\'Pressure\')
	plt.ylabel(\'Integrated_HR\')
	plt.show()
if (i==2 and j==12):
	plt.plot(Pressure,HR_Rate)
	plt.xlabel(\'Pressure\')
	plt.ylabel(\'HR_Rate\')
	plt.show()
if (i==2 and j==13):
	plt.plot(Pressure,C_p)
	plt.xlabel(\'Pressure\')
	plt.ylabel(\'C_p\')
	plt.show()
if (i==2 and j==14):
	plt.plot(Pressure,C_v)
	plt.xlabel(\'Pressure\')
	plt.ylabel(\'C_v\')
	plt.show()
if (i==2 and j==15):
	plt.plot(Pressure,Gamma)
	plt.xlabel(\'Pressure\')
	plt.ylabel(\'Gamma\')
	plt.show()
if (i==2 and j==16):
	plt.plot(Pressure,Kin_visc)
	plt.xlabel(\'Pressure\')
	plt.ylabel(\'Kin_visc\')
	plt.show()
if (i==2 and j==17):
	plt.plot(Pressure,Dyn_visc)
	plt.xlabel(\'Pressure\')
	plt.ylabel(\'Dyn_visc\')
	plt.show()
if (i==3 and j==1):
	print(\"error\")
if (i==3 and j==2):
	print(\"error\")
if (i==3 and j==3):
	print(\"error\")
if (i==3 and j==4):
	print(\"error\")
if (i==3 and j==5):
	print(\"error\")
if (i==3 and j==6):
	print(\"error\")
if (i==3 and j==7):
	print(\"error\")
if (i==3 and j==8):
	print(\"error\")
if (i==3 and j==9):
	print(\"error\")
if (i==3 and j==10):
	print(\"error\")
if (i==3 and j==11):
	print(\"error\")
if (i==3 and j==12):
	print(\"error\")
if (i==3 and j==13):
	print(\"error\")
if (i==3 and j==14):
	print(\"error\")
if (i==3 and j==15):
	print(\"error\")
if (i==3 and j==16):
	print(\"error\")
if (i==3 and j==17):
	print(\"error\")
if (i==4 and j==1):
	print(\"error\")
if (i==4 and j==2):
	print(\"error\")
if (i==4 and j==3):
	print(\"error\")
if (i==4 and j==4):
	print(\"error\")
if (i==4 and j==5):
	print(\"error\")
if (i==4 and j==6):
	print(\"error\")
if (i==4 and j==7):
	print(\"error\")
if (i==4 and j==8):
	print(\"error\")
if (i==4 and j==9):
	print(\"error\")
if (i==4 and j==10):
	print(\"error\")
if (i==4 and j==11):
	print(\"error\")
if (i==4 and j==12):
	print(\"error\")
if (i==4 and j==13):
	print(\"error\")
if (i==4 and j==14):
	print(\"error\")
if (i==4 and j==15):
	print(\"error\")
if (i==4 and j==16):
	print(\"error\")
if (i==4 and j==17):
	print(\"error\")
if (i==5 and j==1):
	plt.plot(Mean_temp,Crank)
	plt.xlabel(\'Mean_temp\')
	plt.ylabel(\'Crank\')
	plt.show()
if (i==5 and j==2):
	plt.plot(Mean_temp,Pressure)
	plt.xlabel(\'Mean_temp\')
	plt.ylabel(\'Pressure\')
	plt.show()
if (i==5 and j==3):
	plt.plot(Mean_temp,Max_pres)
	plt.xlabel(\'Mean_temp\')
	plt.ylabel(\'Max_pres\')
	plt.show()
if (i==5 and j==4):
	plt.plot(Mean_temp,Min_pres)
	plt.xlabel(\'Mean_temp\')
	plt.ylabel(\'Min_pres\')
	plt.show()
if (i==5 and j==5):
	print(\"error\")
if (i==5 and j==6):
	print(\"error\")
if (i==5 and j==7):
	print(\"error\")
if (i==5 and j==8):
	plt.plot(Mean_temp,Volume)
	plt.xlabel(\'Mean_temp\')
	plt.ylabel(\'Volume\')
	plt.show()
if (i==5 and j==9):
	plt.plot(Mean_temp,Mass)
	plt.xlabel(\'Mean_temp\')
	plt.ylabel(\'Mass\')
	plt.show()
if (i==5 and j==10):
	plt.plot(Mean_temp,Density)
	plt.xlabel(\'Mean_temp\')
	plt.ylabel(\'Density\')
	plt.show()
if (i==5 and j==11):
	plt.plot(Mean_temp,Integrated_HR)
	plt.xlabel(\'Mean_temp\')
	plt.ylabel(\'Integrated_HR\')
	plt.show()
if (i==5 and j==12):
	plt.plot(Mean_temp,HR_Rate)
	plt.xlabel(\'Mean_temp\')
	plt.ylabel(\'HR_Rate\')
	plt.show()
if (i==5 and j==13):
	plt.plot(Mean_temp,C_p)
	plt.xlabel(\'Mean_temp\')
	plt.ylabel(\'C_p\')
	plt.show()
if (i==5 and j==14):
	plt.plot(Mean_temp,C_v)
	plt.xlabel(\'Mean_temp\')
	plt.ylabel(\'C_v\')
	plt.show()
if (i==5 and j==15):
	plt.plot(Mean_temp,Gamma)
	plt.xlabel(\'Mean_temp\')
	plt.ylabel(\'Gamma\')
	plt.show()
if (i==5 and j==16):
	plt.plot(Mean_temp,Kin_visc)
	plt.xlabel(\'Mean_temp\')
	plt.ylabel(\'Kin_visc\')
	plt.show()
if (i==5 and j==17):
	plt.plot(Mean_temp,Dyn_visc)
	plt.xlabel(\'Mean_temp\')
	plt.ylabel(\'Dyn_visc\')
	plt.show()
if (i==6 and j==1):
	print(\"error\")
if (i==6 and j==2):
	print(\"error\")
if (i==6 and j==3):
	print(\"error\")
if (i==6 and j==4):
	print(\"error\")
if (i==6 and j==5):
	print(\"error\")
if (i==6 and j==6):
	print(\"error\")
if (i==6 and j==7):
	print(\"error\")
if (i==6 and j==8):
	print(\"error\")
if (i==6 and j==9):
	print(\"error\")
if (i==6 and j==10):
	print(\"error\")
if (i==6 and j==11):
	print(\"error\")
if (i==6 and j==12):
	print(\"error\")
if (i==6 and j==13):
	print(\"error\")
if (i==6 and j==14):
	print(\"error\")
if (i==6 and j==15):
	print(\"error\")
if (i==6 and j==16):
	print(\"error\")
if (i==6 and j==17):
	print(\"error\")
if (i==7 and j==1):
	print(\"error\")
if (i==7 and j==2):
	print(\"error\")
if (i==7 and j==3):
	print(\"error\")
if (i==7 and j==4):
	print(\"error\")
if (i==7 and j==5):
	print(\"error\")
if (i==7 and j==6):
	print(\"error\")
if (i==7 and j==7):
	print(\"error\")
if (i==7 and j==8):
	print(\"error\")
if (i==7 and j==9):
	print(\"error\")
if (i==7 and j==10):
	print(\"error\")
if (i==7 and j==11):
	print(\"error\")
if (i==7 and j==12):
	print(\"error\")
if (i==7 and j==13):
	print(\"error\")
if (i==7 and j==14):
	print(\"error\")
if (i==7 and j==15):
	print(\"error\")
if (i==7 and j==16):
	print(\"error\")
if (i==7 and j==17):
	print(\"error\")
if (i==8 and j==1):
	plt.plot(Volume,Crank)
	plt.xlabel(\'Volume\')
	plt.ylabel(\'Crank\')
	plt.show()
if (i==8 and j==2):
	plt.plot(Volume,Pressure)
	plt.xlabel(\'Volume\')
	plt.ylabel(\'Pressure\')
	plt.show()
if (i==8 and j==3):
	plt.plot(Volume,Max_pres)
	plt.xlabel(\'Volume\')
	plt.ylabel(\'Max_pres\')
	plt.show()
if (i==8 and j==4):
	plt.plot(Volume,Min_pres)
	plt.xlabel(\'Volume\')
	plt.ylabel(\'Min_pres\')
	plt.show()
if (i==8 and j==5):
	plt.plot(Volume,Mean_temp)
	plt.xlabel(\'Volume\')
	plt.ylabel(\'Mean_temp\')
	plt.show()
if (i==8 and j==6):
	plt.plot(Volume,Max_temp)
	plt.xlabel(\'Volume\')
	plt.ylabel(\'Max_temp\')
	plt.show()
if (i==8 and j==7):
	plt.plot(Volume,Min_temp)
	plt.xlabel(\'Volume\')
	plt.ylabel(\'Min_temp\')
	plt.show()
if (i==8 and j==8):
	print(\"error\")
if (i==8 and j==9):
	plt.plot(Volume,Mass)
	plt.xlabel(\'Volume\')
	plt.ylabel(\'Mass\')
	plt.show()
if (i==8 and j==10):
	plt.plot(Volume,Density)
	plt.xlabel(\'Volume\')
	plt.ylabel(\'Density\')
	plt.show()
if (i==8 and j==11):
	plt.plot(Volume,Integrated_HR)
	plt.xlabel(\'Volume\')
	plt.ylabel(\'Integrated_HR\')
	plt.show()
if (i==8 and j==12):
	plt.plot(Volume,HR_Rate)
	plt.xlabel(\'Volume\')
	plt.ylabel(\'HR_Rate\')
	plt.show()
if (i==8 and j==13):
	plt.plot(Volume,C_p)
	plt.xlabel(\'Volume\')
	plt.ylabel(\'C_p\')
	plt.show()
if (i==8 and j==14):
	plt.plot(Volume,C_v)
	plt.xlabel(\'Volume\')
	plt.ylabel(\'C_v\')
	plt.show()
if (i==8 and j==15):
	plt.plot(Volume,Gamma)
	plt.xlabel(\'Volume\')
	plt.ylabel(\'Gamma\')
	plt.show()
if (i==8 and j==16):
	plt.plot(Volume,Kin_visc)
	plt.xlabel(\'Volume\')
	plt.ylabel(\'Kin_visc\')
	plt.show()
if (i==8 and j==17):
	plt.plot(Volume,Dyn_visc)
	plt.xlabel(\'Volume\')
	plt.ylabel(\'Dyn_visc\')
	plt.show()
if (i==9 and j==1):
	plt.plot(Mass,Crank)
	plt.xlabel(\'Mass\')
	plt.ylabel(\'Crank\')
	plt.show()
if (i==9 and j==2):
	plt.plot(Mass,Pressure)
	plt.xlabel(\'Mass\')
	plt.ylabel(\'Pressure\')
	plt.show()
if (i==9 and j==3):
	plt.plot(Mass,Max_pres)
	plt.xlabel(\'Mass\')
	plt.ylabel(\'Max_pres\')
	plt.show()
if (i==9 and j==4):
	plt.plot(Mass,Min_pres)
	plt.xlabel(\'Mass\')
	plt.ylabel(\'Min_pres\')
	plt.show()
if (i==9 and j==5):
	plt.plot(Mass,Mean_temp)
	plt.xlabel(\'Mass\')
	plt.ylabel(\'Mean_temp\')
	plt.show()
if (i==9 and j==6):
	plt.plot(Mass,Max_temp)
	plt.xlabel(\'Mass\')
	plt.ylabel(\'Max_temp\')
	plt.show()
if (i==9 and j==7):
	plt.plot(Mass,Min_temp)
	plt.xlabel(\'Mass\')
	plt.ylabel(\'Min_temp\')
	plt.show()
if (i==9 and j==8):
	plt.plot(Mass,Volume)
	plt.xlabel(\'Mass\')
	plt.ylabel(\'Volume\')
	plt.show()
if (i==9 and j==9):
	print(\"error\")
if (i==9 and j==10):
	plt.plot(Mass,Density)
	plt.xlabel(\'Mass\')
	plt.ylabel(\'Density\')
	plt.show()
if (i==9 and j==11):
	plt.plot(Mass,Integrated_HR)
	plt.xlabel(\'Mass\')
	plt.ylabel(\'Integrated_HR\')
	plt.show()
if (i==9 and j==12):
	plt.plot(Mass,HR_Rate)
	plt.xlabel(\'Mass\')
	plt.ylabel(\'HR_Rate\')
	plt.show()
if (i==9 and j==13):
	plt.plot(Mass,C_p)
	plt.xlabel(\'Mass\')
	plt.ylabel(\'C_p\')
	plt.show()
if (i==9 and j==14):
	plt.plot(Mass,C_v)
	plt.xlabel(\'Mass\')
	plt.ylabel(\'C_v\')
	plt.show()
if (i==9 and j==15):
	plt.plot(Mass,Gamma)
	plt.xlabel(\'Mass\')
	plt.ylabel(\'Gamma\')
	plt.show()
if (i==9 and j==16):
	plt.plot(Mass,Kin_visc)
	plt.xlabel(\'Mass\')
	plt.ylabel(\'Kin_visc\')
	plt.show()
if (i==9 and j==17):
	plt.plot(Mass,Dyn_visc)
	plt.xlabel(\'Mass\')
	plt.ylabel(\'Dyn_visc\')
	plt.show()
if (i==10 and j==1):
	plt.plot(Density,Crank)
	plt.xlabel(\'Density\')
	plt.ylabel(\'Crank\')	
	plt.show()
if (i==10 and j==2):
	plt.plot(Density,Pressure)
	plt.xlabel(\'Density\')
	plt.ylabel(\'Pressure\')	
	plt.show()
if (i==10 and j==3):
	plt.plot(Density,Max_pres)
	plt.xlabel(\'Density\')
	plt.ylabel(\'Max_pres\')	
	plt.show()
if (i==10 and j==4):
	plt.plot(Density,Min_pres)
	plt.xlabel(\'Density\')
	plt.ylabel(\'Min_pres\')	
	plt.show()
if (i==10 and j==5):
	plt.plot(Density,Mean_temp)
	plt.xlabel(\'Density\')
	plt.ylabel(\'Mean_temp\')	
	plt.show()
if (i==10 and j==6):
	plt.plot(Density,Max_temp)
	plt.xlabel(\'Density\')
	plt.ylabel(\'Max_temp\')	
	plt.show()
if (i==10 and j==7):
	plt.plot(Density,Min_temp)
	plt.xlabel(\'Density\')
	plt.ylabel(\'Min_temp\')	
	plt.show()
if (i==10 and j==8):
	plt.plot(Density,Volume)
	plt.xlabel(\'Density\')
	plt.ylabel(\'Volume\')	
	plt.show()
if (i==10 and j==9):
	plt.plot(Density,Mass)
	plt.xlabel(\'Density\')
	plt.ylabel(\'Mass\')	
	plt.show()
if (i==10 and j==10):
	print(\"error\")
if (i==10 and j==11):
	plt.plot(Density,Integrated_HR)
	plt.xlabel(\'Density\')
	plt.ylabel(\'Integrated_HR\')	
	plt.show()
if (i==10 and j==12):
	plt.plot(Density,HR_Rate)
	plt.xlabel(\'Density\')
	plt.ylabel(\'HR_Rate\')	
	plt.show()
if (i==10 and j==13):
	plt.plot(Density,C_p)
	plt.xlabel(\'Density\')
	plt.ylabel(\'C_p\')	
	plt.show()
if (i==10 and j==14):
	plt.plot(Density,C_v)
	plt.xlabel(\'Density\')
	plt.ylabel(\'C_v\')	
	plt.show()
if (i==10 and j==15):
	plt.plot(Density,Gamma)
	plt.xlabel(\'Density\')
	plt.ylabel(\'Gamma\')	
	plt.show()
if (i==10 and j==16):
	plt.plot(Density,Kin_visc)
	plt.xlabel(\'Density\')
	plt.ylabel(\'Kin_visc\')	
	plt.show()
if (i==10 and j==17):
	plt.plot(Density,Dyn_visc)
	plt.xlabel(\'Density\')
	plt.ylabel(\'Dyn_visc\')	
	plt.show()
if (i==11 and j==1):
	plt.plot(Integrated_HR,Crank)
	plt.xlabel(\'Integrated_HR\')
	plt.ylabel(\'Crank\')	
	plt.show()
if (i==11 and j==2):
	plt.plot(Integrated_HR,Pressure)
	plt.xlabel(\'Integrated_HR\')
	plt.ylabel(\'Pressure\')
	plt.show()
if (i==11 and j==3):
	plt.plot(Integrated_HR,Max_pres)
	plt.xlabel(\'Integrated_HR\')
	plt.ylabel(\'Max_pres\')
	plt.show()
if (i==11 and j==4):
	plt.plot(Integrated_HR,Min_pres)
	plt.xlabel(\'Integrated_HR\')
	plt.ylabel(\'Min_pres\')
	plt.show()
if (i==11 and j==5):
	plt.plot(Integrated_HR,Mean_temp)
	plt.xlabel(\'Integrated_HR\')
	plt.ylabel(\'Mean_temp\')
	plt.show()
if (i==11 and j==6):
	plt.plot(Integrated_HR,Max_temp)
	plt.xlabel(\'Integrated_HR\')
	plt.ylabel(\'Max_temp\')
	plt.show()
if (i==11 and j==7):
	plt.plot(Integrated_HR,Min_temp)
	plt.xlabel(\'Integrated_HR\')
	plt.ylabel(\'Min_temp\')
	plt.show()
if (i==11 and j==8):
	plt.plot(Integrated_HR,Volume)
	plt.xlabel(\'Integrated_HR\')
	plt.ylabel(\'Volume\')
	plt.show()
if (i==11 and j==9):
	plt.plot(Integrated_HR,Mass)
	plt.xlabel(\'Integrated_HR\')
	plt.ylabel(\'Mass\')
	plt.show()
if (i==11 and j==10):
	plt.plot(Integrated_HR,Density)
	plt.xlabel(\'Integrated_HR\')
	plt.ylabel(\'Density\')
	plt.show()
if (i==11 and j==11):
	print(\"error\")
if (i==11 and j==12):
	plt.plot(Integrated_HR,HR_Rate)
	plt.xlabel(\'Integrated_HR\')
	plt.ylabel(\'HR_Rate\')
	plt.show()
if (i==11 and j==13):
	plt.plot(Integrated_HR,C_p)
	plt.xlabel(\'Integrated_HR\')
	plt.ylabel(\'C_p\')
	plt.show()
if (i==11 and j==14):
	plt.plot(Integrated_HR,C_v)
	plt.xlabel(\'Integrated_HR\')
	plt.ylabel(\'C_v\')
	plt.show()
if (i==11 and j==15):
	plt.plot(Integrated_HR,Gamma)
	plt.xlabel(\'Integrated_HR\')
	plt.ylabel(\'Gamma\')
	plt.show()
if (i==11 and j==16):
	plt.plot(Integrated_HR,Kin_visc)
	plt.xlabel(\'Integrated_HR\')
	plt.ylabel(\'Kin_visc\')
	plt.show()
if (i==11 and j==17):
	plt.plot(Integrated_HR,Dyn_visc)
	plt.xlabel(\'Integrated_HR\')
	plt.ylabel(\'Dyn_visc\')
	plt.show()
if (i==12 and j==1):
	plt.plot(HR_Rate,Crank)
	plt.xlabel(\'HR_Rate\')
	plt.ylabel(\'Crank\')
	plt.show()
if (i==12 and j==2):
	plt.plot(HR_Rate,Pressure)
	plt.xlabel(\'HR_Rate\')
	plt.ylabel(\'Pressure\')
	plt.show()
if (i==12 and j==3):
	plt.plot(HR_Rate,Max_pres)
	plt.xlabel(\'HR_Rate\')
	plt.ylabel(\'Max_pres\')
	plt.show()
if (i==12 and j==4):
	plt.plot(HR_Rate,Min_pres)
	plt.xlabel(\'HR_Rate\')
	plt.ylabel(\'Min_pres\')
	plt.show()
if (i==12 and j==5):
	plt.plot(HR_Rate,Mean_temp)
	plt.xlabel(\'HR_Rate\')
	plt.ylabel(\'Mean_temp\')
	plt.show()
if (i==12 and j==6):
	plt.plot(HR_Rate,Max_temp)
	plt.xlabel(\'HR_Rate\')
	plt.ylabel(\'Max_temp\')
	plt.show()
if (i==12 and j==7):
	plt.plot(HR_Rate,Min_temp)
	plt.xlabel(\'HR_Rate\')
	plt.ylabel(\'Min_temp\')
	plt.show()
if (i==12 and j==8):
	plt.plot(HR_Rate,Volume)
	plt.xlabel(\'HR_Rate\')
	plt.ylabel(\'Volume\')
	plt.show()
if (i==12 and j==9):
	plt.plot(HR_Rate,Mass)
	plt.xlabel(\'HR_Rate\')
	plt.ylabel(\'Mass\')
	plt.show()
if (i==12 and j==10):
	plt.plot(HR_Rate,Density)
	plt.xlabel(\'HR_Rate\')
	plt.ylabel(\'Density\')
	plt.show()
if (i==12 and j==11):
	plt.plot(HR_Rate,Integrated_HR)
	plt.xlabel(\'HR_Rate\')
	plt.ylabel(\'Integrated_HR\')
	plt.show()
if (i==12 and j==12):
	print(\"error\")
if (i==12 and j==13):
	plt.plot(HR_Rate,C_p)
	plt.xlabel(\'HR_Rate\')
	plt.ylabel(\'C_p\')
	plt.show()
if (i==12 and j==14):
	plt.plot(HR_Rate,C_v)
	plt.xlabel(\'HR_Rate\')
	plt.ylabel(\'C_v\')
	plt.show()
if (i==12 and j==15):
	plt.plot(HR_Rate,Gamma)
	plt.xlabel(\'HR_Rate\')
	plt.ylabel(\'Gamma\')
	plt.show()
if (i==12 and j==16):
	plt.plot(HR_Rate,Kin_visc)
	plt.xlabel(\'HR_Rate\')
	plt.ylabel(\'Kin_visc\')
	plt.show()
if (i==12 and j==17):
	plt.plot(HR_Rate,Dyn_visc)
	plt.xlabel(\'HR_Rate\')
	plt.ylabel(\'Dyn_visc\')
	plt.show()
if (i==13 and j==1):
	plt.plot(C_p,Crank)
	plt.xlabel(\'C_p\')
	plt.ylabel(\'Crank\')
	plt.show()
if (i==13 and j==2):
	plt.plot(C_p,Pressure)
	plt.xlabel(\'C_p\')
	plt.ylabel(\'Pressure\')
	plt.show()
if (i==13 and j==3):
	plt.plot(C_p,Max_pres)
	plt.xlabel(\'C_p\')
	plt.ylabel(\'Max_pres\')
	plt.show()
if (i==13 and j==4):
	plt.plot(C_p,Min_pres)
	plt.xlabel(\'C_p\')
	plt.ylabel(\'Min_pres\')
	plt.show()
if (i==13 and j==5):
	plt.plot(C_p,Mean_temp)
	plt.xlabel(C_p)
	plt.ylabel(\'Mean_temp\')
	plt.show()
if (i==13 and j==6):
	plt.plot(C_p,Max_temp)
	plt.xlabel(\'C_p\')
	plt.ylabel(\'Max_temp\')
	plt.show()
if (i==13 and j==7):
	plt.plot(C_p,Min_temp)
	plt.xlabel(\'C_p\')
	plt.ylabel(\'Min_temp\')
	plt.show()
if (i==13 and j==8):
	plt.plot(C_p,Volume)
	plt.xlabel(\'C_p\')
	plt.ylabel(\'Volume\')
	plt.show()
if (i==13 and j==9):
	plt.plot(C_p,Mass)
	plt.xlabel(\'C_p\')
	plt.ylabel(\'Mass\')
	plt.show()
if (i==13 and j==10):
	plt.plot(C_p,Density)
	plt.xlabel(\'C_p\')
	plt.ylabel(\'Density\')
	plt.show()
if (i==13 and j==11):
	plt.plot(C_p,Integrated_HR)
	plt.xlabel(\'C_p\')
	plt.ylabel(\'Integrated_HR\')
	plt.show()
if (i==13 and j==12):
	plt.plot(C_p,HR_Rate)
	plt.xlabel(\'C_p\')
	plt.ylabel(\'HR_Rate\')
	plt.show()
if (i==13 and j==13):
	print(\"error\")
if (i==13 and j==14):
	plt.plot(C_p,C_v)
	plt.xlabel(\'C_p\')
	plt.ylabel(\'C_v\')
	plt.show()
if (i==13 and j==15):
	plt.plot(C_p,Gamma)
	plt.xlabel(\'C_p\')
	plt.ylabel(\'Gamma\')
	plt.show()
if (i==13 and j==16):
	plt.plot(C_p,Kin_visc)
	plt.xlabel(\'C_p\')
	plt.ylabel(\'Kin_visc\')
	plt.show()
if (i==13 and j==17):
	plt.plot(C_p,Dyn_visc)
	plt.xlabel(\'C_p\')
	plt.ylabel(\'Dyn_visc\')
	plt.show()
if (i==14 and j==1):
	plt.plot(C_v,Crank)
	plt.xlabel(\'C_v\')
	plt.ylabel(\'Crank\')
	plt.show()
if (i==14 and j==2):
	plt.plot(C_v,Pressure)
	plt.xlabel(\'C_v\')
	plt.ylabel(\'Pressure\')
	plt.show()
if (i==14 and j==3):
	plt.plot(C_v,Max_pres)
	plt.xlabel(\'C_v\')
	plt.ylabel(\'Max_pres\')
	plt.show()
if (i==14 and j==4):
	plt.plot(C_v,Min_pres)
	plt.xlabel(\'C_v\')
	plt.ylabel(\'Min_pres\')
	plt.show()
if (i==14 and j==5):
	plt.plot(C_v,Mean_temp)
	plt.xlabel(\'C_v\')
	plt.ylabel(\'Mean_temp\')
	plt.show()
if (i==14 and j==6):
	plt.plot(C_v,Max_temp)
	plt.xlabel(\'C_v\')
	plt.ylabel(\'Max_temp\')
	plt.show()
if (i==14 and j==7):
	plt.plot(C_v,Min_temp)
	plt.xlabel(\'C_v\')
	plt.ylabel(\'Min_temp\')
	plt.show()
if (i==14 and j==8):
	plt.plot(C_v,Volume)
	plt.xlabel(\'C_v\')
	plt.ylabel(\'Volume\')
	plt.show()
if (i==14 and j==9):
	plt.plot(C_v,Mass)
	plt.xlabel(\'C_v\')
	plt.ylabel(\'Mass\')
	plt.show()
if (i==14 and j==10):
	plt.plot(C_v,Density)
	plt.xlabel(\'C_v\')
	plt.ylabel(\'Density\')
	plt.show()
if (i==14 and j==11):
	plt.plot(C_v,Integrated_HR)
	plt.xlabel(\'C_v\')
	plt.ylabel(\'Integrated_HR\')
	plt.show()
if (i==14 and j==12):
	plt.plot(C_v,HR_Rate)
	plt.xlabel(\'C_v\')
	plt.ylabel(\'HR_Rate\')
	plt.show()
if (i==14 and j==13):
	plt.plot(C_v,C_p)
	plt.xlabel(\'C_v\')
	plt.ylabel(\'C_p\')
	plt.show()
if (i==14 and j==15):
	plt.plot(C_v,Gamma)
	plt.xlabel(\'C_v\')
	plt.ylabel(\'Gamma\')
	plt.show()
if (i==14 and j==16):
	plt.plot(C_v,Kin_visc)
	plt.xlabel(\'C_v\')
	plt.ylabel(\'Kin_visc\')
	plt.show()
if (i==14 and j==17):
	plt.plot(C_v,Dyn_visc)
	plt.xlabel(\'C_v\')
	plt.ylabel(\'Dyn_visc\')
	plt.show()
if (i==15 and j==1):
	plt.plot(Gamma,Crank)
	plt.xlabel(\'Gamma\')
	plt.ylabel(\'Crank\')
	plt.show()
if (i==15 and j==2):
	plt.plot(Gamma,Pressure)
	plt.xlabel(\'Gamma\')
	plt.ylabel(\'Pressure\')
	plt.show()
if (i==15 and j==3):
	plt.plot(Gamma,Max_pres)
	plt.xlabel(\'Gamma\')
	plt.ylabel(\'Max_pres\')
	plt.show()
if (i==15 and j==4):
	plt.plot(Gamma,Min_pres)
	plt.xlabel(\'Gamma\')
	plt.ylabel(\'Min_pres\')
	plt.show()
if (i==15 and j==5):
	plt.plot(Gamma,Mean_temp)
	plt.xlabel(\'Gamma\')
	plt.ylabel(\'Mean_temp\')
	plt.show()
if (i==15 and j==6):
	plt.plot(Gamma,Max_temp)
	plt.xlabel(\'Gamma\')
	plt.ylabel(\'Max_temp\')
	plt.show()
if (i==15 and j==7):
	plt.plot(Gamma,Min_temp)
	plt.xlabel(\'Gamma\')
	plt.ylabel(\'Min_temp\')
	plt.show()
if (i==15 and j==8):
	plt.plot(Gamma,Volume)
	plt.xlabel(\'Gamma\')
	plt.ylabel(\'Volume\')
	plt.show()
if (i==15 and j==9):
	plt.plot(Gamma,Mass)
	plt.xlabel(\'Gamma\')
	plt.ylabel(\'Mass\')
	plt.show()
if (i==15 and j==10):
	plt.plot(Gamma,Density)
	plt.xlabel(\'Gamma\')
	plt.ylabel(\'Density\')
	plt.show()
if (i==15 and j==11):
	plt.plot(Gamma,Integrated_HR)
	plt.xlabel(\'Gamma\')
	plt.ylabel(\'Integrated_HR\')
	plt.show()
if (i==15 and j==12):
	plt.plot(Gamma,HR_Rate)
	plt.xlabel(\'Gamma\')
	plt.ylabel(\'HR_Rate\')
	plt.show()
if (i==15 and j==13):
	plt.plot(Gamma,C_p)
	plt.xlabel(\'Gamma\')
	plt.ylabel(\'C_p\')
	plt.show()
if (i==15 and j==14):
	plt.plot(Gamma,C_v)
	plt.xlabel(\'Gamma\')
	plt.ylabel(\'C_v\')
	plt.show()
if (i==15 and j==15):
	print(\"error\")
if (i==15 and j==16):
	plt.plot(Gamma,Kin_visc)
	plt.xlabel(\'Gamma\')
	plt.ylabel(\'Kin_visc\')
	plt.show()
if (i==15 and j==17):
	plt.plot(Gamma,Dyn_visc)
	plt.xlabel(\'Gamma\')
	plt.ylabel(\'Dyn_visc\')
	plt.show()
if (i==16 and j==1):
	plt.plot(Kin_visc,Crank)
	plt.xlabel(\'Kin_visc\')
	plt.ylabel(\'Crank\')
	plt.show()
if (i==16 and j==2):
	plt.plot(Kin_visc,Pressure)
	plt.xlabel(\'Kin_visc\')
	plt.ylabel(\'Pressure\')
	plt.show()
if (i==16 and j==3):
	plt.plot(Kin_visc,Max_pres)
	plt.xlabel(\'Kin_visc\')
	plt.ylabel(\'Max_pres\')	
	plt.show()
if (i==16 and j==4):
	plt.plot(Kin_visc,Min_pres)
	plt.xlabel(\'Kin_visc\')
	plt.ylabel(\'Min_pres\')
	plt.show()
if (i==16 and j==5):
	plt.plot(Kin_visc,Mean_temp)
	plt.xlabel(\'Kin_visc\')
	plt.ylabel(\'Mean_temp\')
	plt.show()
if (i==16 and j==6):
	plt.plot(Kin_visc,Max_temp)
	plt.xlabel(\'Kin_visc\')
	plt.ylabel(\'Max_temp\')
	plt.show()
if (i==16 and j==7):
	plt.plot(Kin_visc,Min_temp)
	plt.xlabel(\'Kin_visc\')
	plt.ylabel(\'Min_temp\')
	plt.show()
if (i==16 and j==8):
	plt.plot(Kin_visc,Volume)
	plt.xlabel(\'Kin_visc\')
	plt.ylabel(\'Volume\')
	plt.show()
if (i==16 and j==9):
	plt.plot(Kin_visc,Mass)
	plt.xlabel(\'Kin_visc\')
	plt.ylabel(\'Mass\')
	plt.show()
if (i==16 and j==10):
	plt.plot(Kin_visc,Density)
	plt.xlabel(\'Kin_visc\')
	plt.ylabel(\'Density\')
	plt.show()
if (i==16 and j==11):
	plt.plot(Kin_visc,Integrated_HR)
	plt.xlabel(\'Kin_visc\')
	plt.ylabel(\'Integrated_HR\')
	plt.show()
if (i==16 and j==12):
	plt.plot(Kin_visc,HR_Rate)
	plt.xlabel(\'Kin_visc\')
	plt.ylabel(\'HR_Rate\')
	plt.show()
if (i==16 and j==13):
	plt.plot(Kin_visc,C_p)
	plt.xlabel(\'Kin_visc\')
	plt.ylabel(\'C_p\')
	plt.show()
if (i==16 and j==14):
	plt.plot(Kin_visc,C_v)
	plt.xlabel(\'Kin_visc\')
	plt.ylabel(\'C_v\')
	plt.show()
if (i==16 and j==15):
	plt.plot(Kin_visc,Gamma)
	plt.xlabel(\'Kin_visc\')
	plt.ylabel(\'Gamma\')
	plt.show()
if (i==16 and j==16):
	print(\"error\")
if (i==16 and j==17):
	plt.plot(Kin_visc,Dyn_visc)
	plt.xlabel(\'Kin_visc\')
	plt.ylabel(\'Dyn_visc\')
	plt.show()
if (i==17 and j==1):
	plt.plot(Dyn_visc,Crank)
	plt.xlabel(\'Dyn_visc\')
	plt.ylabel(\'Crank\')
	plt.show()
if (i==17 and j==2):
	plt.plot(Dyn_visc,Pressure)
	plt.xlabel(\'Dyn_visc\')
	plt.ylabel(\'Pressure\')
	plt.show()
if (i==17 and j==3):
	plt.plot(Dyn_visc,Max_pres)
	plt.xlabel(\'Dyn_visc\')
	plt.ylabel(\'Max_pres\')
	plt.show()
if (i==17 and j==4):
	plt.plot(Dyn_visc,Min_pres)
	plt.xlabel(\'Dyn_visc\')
	plt.ylabel(\'Min_pres\')
	plt.show()
if (i==17 and j==5):
	plt.plot(Dyn_visc,Mean_temp)
	plt.xlabel(\'Dyn_visc\')
	plt.ylabel(\'Mean_temp\')
	plt.show()
if (i==17 and j==6):
	plt.plot(Dyn_visc,Max_temp)
	plt.xlabel(\'Dyn_visc\')
	plt.ylabel(\'Max_temp\')
	plt.show()
if (i==17 and j==7):
	plt.plot(Dyn_visc,Min_temp)
	plt.xlabel(\'Dyn_visc\')
	plt.ylabel(\'Min_temp\')
	plt.show()
if (i==17 and j==8):
	plt.plot(Dyn_visc,Volume)
	plt.xlabel(\'Dyn_visc\')
	plt.ylabel(\'Volume\')
	plt.show()
if (i==17 and j==9):
	plt.plot(Dyn_visc,Mass)
	plt.xlabel(\'Dyn_visc\')
	plt.ylabel(\'Mass\')
	plt.show()
if (i==17 and j==10):
	plt.plot(Dyn_visc,Density)
	plt.xlabel(\'Dyn_visc\')
	plt.ylabel(\'Density\')
	plt.show()
if (i==17 and j==11):
	plt.plot(Dyn_visc,Integrated_HR)
	plt.xlabel(\'Dyn_visc\')
	plt.ylabel(\'Integrated_HR\')
	plt.show()
if (i==17 and j==12):
	plt.plot(Dyn_visc,HR_Rate)
	plt.xlabel(\'Dyn_visc\')
	plt.ylabel(\'HR_Rate\')
	plt.show()
if (i==17 and j==13):
	plt.plot(Dyn_visc,C_p)
	plt.xlabel(\'Dyn_visc\')
	plt.ylabel(\'C_p\')
	plt.show()
if (i==17 and j==14):
	plt.plot(Dyn_visc,C_v)
	plt.xlabel(\'Dyn_visc\')
	plt.ylabel(\'C_v\')
	plt.show()
if (i==17 and j==15):
	plt.plot(Dyn_visc,Gamma)
	plt.xlabel(\'Dyn_visc\')
	plt.ylabel(\'Gamma\')
	plt.show()
if (i==17 and j==16):
	plt.plot(Dyn_visc,Kin_visc)
	plt.xlabel(\'Dyn_visc\')
	plt.ylabel(\'Kin_visc\')
	plt.show()
if (i==17 and j==17):
	print(\"error\")


area = np.trapz(Pressure,Volume)
print(\'Area under PV diagram\', area)


rpm = 1500
rps = rpm/60
power_watt = area*rps*1000
print(\'power of the engine is\', power_watt)

sfc = (20*pow(10,-6)*3600)/(0.08*power_watt)
print(\'Specific fuel consumption is\',sfc)

     

    RESULTS:-

    Below figure is out put shown by the figure when inputs are 1 and 8.

    \"\"

    and the plot obtained between 1 and 8 is shown below.

    \"\"

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        AIM:To run the Flow simulations on NACA0017 airfoil at an angle of attacks 0, 2, 4, 6, 8, 10 degrees. And compare the change in lift force and drag force at these angles of attacks.  INTRODUCTION:An airfoil or aerofoil is the cross-sectional shape of a wing, blade (of a propeller, rotor,…

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        14 Jul 2020 03:39 PM IST

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          Flow over a cylinder

          Objective:

          AIM: To Understand and Simulate the Transient Flow over a Cylinder in SolidWorks and observe the variation of velocity and pressure in a domain for three different Reynolds Numbers. INTRODUCTION:Flow over a cylinder is a classical problem for understanding the flow over an obstacle. The geometry of the cylinder is simple…

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          03 Jul 2020 04:13 PM IST

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