def orbit_speed(body, distance_from_surface, periapsis, apoapsis):
if type(body) != bodies.Body:
raise TypeError("'body' argument was not a bodies.Body object")
semi_major_axis = ((periapsis * _kilo) + (body.equatorial_radius * 2) +
(apoapsis * _kilo)) / 2
orbit_speed = root(
body.mu * ((2 / (distance_from_surface + body.equatorial_radius)) -
(1 / semi_major_axis)))
pass
return (orbit_speed)
max_mag_x, max_mag_y, max_mag_z = 0, 0, 0
min_acc_x, min_acc_y, min_acc_z = 0, 0, 0
min_mag_x, min_mag_y, min_mag_z = 0, 0, 0
acc_x_range, acc_y_range, acc_z_range = 0, 0, 0
mag_x_range, mag_y_range, mag_z_range = 0, 0, 0
max_acc_magnitude = 0
max_mag_magnitude = 0
count = 0
t_end = time() + 60 * 3 # run for 3 minutes
while time() < t_end:
acc_x, acc_y, acc_z = acc_sensor.acceleration
mag_x, mag_y, mag_z = mag_sensor.magnetic
acc_magnitude = root((acc_x**2) + (acc_y**2) + (acc_z**2))
mag_magnitude = root((mag_x**2) + (mag_y**2) + (mag_z**2))
if max_acc_x < acc_x:
max_acc_x = acc_x
if max_acc_y < acc_y:
max_acc_y = acc_y
if max_acc_z < acc_z:
max_acc_z = acc_z
if max_mag_x < mag_x:
max_mag_x = mag_x
if max_mag_y < mag_y:
max_mag_y = mag_y
if max_mag_z < mag_z:
max_mag_z = mag_z
def generate_masks(self, batch): return self.sampler(batch, 3, *self.resolution) / root(self.resolution[0] * self.resolution[1])
from math import sqrt as root
x=float(input('Introduzca variable x: '))
y=float(input('introduzca variable y: '))
if (x < 0) or (y < 0):
print('variables no válidas')
elif (x == 0) and (y == 0):
print('variables no válidas')
else:
r=root(3*(x**2)+(6*y))
print(r)
import math
while True:
num = input("Please enter a number")
if (int(num) < 0):
raise RuntimeError("Don't use a negative...please")
else:
print(abs(math.root(int(num))))
def get_fall_time(d):
time = root(2 * d / GRAVITY)
return time
def get_fall_time(d, grav=GRAVITY):
time = root(2 * d / grav)
return time
from math import sqrt as root
while (1):
try:
a, b, c = map(int, input().split())
s = (a + b + c) / 2
ans = (4 * root(s * (s - a) * (s - b) * (s - c))) / 3
if ans > 0:
print("%.3f" % ans)
else:
print('-1.000')
except EOFError:
break
#multi line comment using """
"""
this is
a multi line
comment
in
pyhton
"""
print("------------------------\n")
#using modules
from math import sqrt as root
num = 36
print(root(num))
print("------------------------\n")
#excemption handlig
try:
num1 = 5
num2 = 0
print(num1 / num2)
print("line after excemption \n")
except ZeroDivisionError:
print("Error found\n Zero Division error \n")
finally:
print("this is finall print\n")
print("------------------------\n")
#assertion
from math import sqrt as root
a, b = map(int, input().split())
m = [-a + root(a**2 - b), -a - root(a**2 - b)]
if m[0] == m[1]:
print(int(m[0]))
else:
print(int(sorted(m)[0]), int(sorted(m)[1]))
def random_theta(self,i): units = self.units einit = root(6) / ( root( units[i]) + root(units[i+1]) ) theta = np.random.random(( units[i+1],units[i]+1) )*2*einit - einit return theta
def root(n):
from math import sqrt as root
return root(n)
def __call__(self, x):
h = self.a2(self.c2(self.a1(self.c1(x))))
return (self.skip(x) + self.down(h)) / root(2)
import random from math import pi,sqrt from math import sqrt as root print (random.randint(0,10)) print (sqrt(25)) print (pi) print (root(25))
from math import sqrt as root
suc=20
mer=0
i=0
while i<suc:
i=i+1
mer=1/(2+mer)
salida=1+mer
print("el resultado aproximado es "+salida)
print("El resultado exacto es "+str(root(2)))
def __init__(self, side_length=1):
super().__init__(8, side_length)
self.height = self.apothem * 3
self.width = self.side_length
self.long_diagonal = self.side_length * math.root(4 + 2 * math.root(2))
self.short_diagonal = math.root(3) * self.side_length
