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script.py

train_mass = 22680
train_acceleration = 10
train_distance = 100

bomb_mass = 1

# Turn up the Temperature-----------------------------------------

# STEP 1: Defining the function that converts Fahrenheit to Celsius

def f_to_c(f_temp):
  c_temp = (f_temp - 32) * 5/9
  return c_temp

# STEP 2: Testing the f_to_c function with an input of 100 Fahrenheit

f100_in_celsius = f_to_c(100)
print("100 °F converted to " + str(f100_in_celsius) + " °C")

# STEP 3: Defining the function that converts Celsius to Fahrenheit

def c_to_f(c_temp):
  f_temp = c_temp * (9/5) + 32
  return f_temp

# STEP 4: Testing the function c_to_f with an input of 0 Celsius

c0_in_fahrenheit = c_to_f(0)
print("0 °C converted to " + str(c0_in_fahrenheit) + " °F")

# Use the Force---------------------------------------------------

# STEP 5: Defining the function that calculate the F = m x a

def get_force(mass, acceleration):
  return mass * acceleration

# STEP 6 & 7: Testing the function with a given mass and acceleration (using the variables that were declared in the begining of the code)

train_force = get_force(train_mass, train_acceleration)
print("The GE train supplies " + str(train_force) + " Newtons of force.")

# STEP 8: Defining a function called get_energy that takes mass and c

def get_energy(mass, c=3*10**8):
  return mass * c**2

# STEP 9 & 10: Testing and printing out the energy function with the bomb_mass value declared in the begining of the code

bomb_energy = get_energy(bomb_mass)
print("A 1kg bomb supplies " + str(bomb_energy) + " Joules.")

# Do the Work---------------------------------------------------

# STEP 11, 12 & 13: Defining the final function get_work with the paramenters: mass, acceleration and distance. Printing out the result

def get_work(distance):
  force = get_force(train_mass, train_acceleration)
  return force * distance

train_work = get_work(train_distance)
print("The GE Train does " + str(train_work) + " Joules of work over " + str(train_distance) + " meters.")