Create a function that finds the [integral](https://en.wikipedia.org/wiki/Integral) of the expression passed.

In order to find the integral all you need to do is add one to the `exponent` (the second argument), and divide the `coefficient` (the first argument) by that new number.

For example for `3x^2`, the integral would be `1x^3`: we added 1 to the exponent, and divided the coefficient by that new number).

Notes:
* The output should be a string.
* The coefficient and exponent is always a positive integer.


## Examples

```
 3, 2  -->  "1x^3"
12, 5  -->  "2x^6"
20, 1  -->  "10x^2"
40, 3  -->  "10x^4"
90, 2  -->  "30x^3"
```

Difficulty: EASY
Tags: Fundamentals

Starter code:
def integrate(coefficient, exponent):
	

Solutions:
def integrate(coef, exp):
	exp = exp + 1
	coef = coef / exp if coef % exp else coef // exp
	return f'{coef}x^{exp}'


def integrate(coefficient, exponent):
	return str(coefficient // (exponent + 1)) + 'x^' + str(exponent + 1)


def integrate(coefficient, exponent):
	return f'{coefficient // (exponent + 1)}x^{exponent + 1}'


def integrate(coefficient, exponent):
	exponent += 1
	coefficient /= exponent
	return '{}x^{}'.format(int(coefficient) if coefficient.is_integer() else coefficient, exponent)


def integrate(c, e):
	return f'{c / (e + 1)}x^{e + 1}'.replace('.0x', 'x')


def integrate(coefficient, exponent):
	return '{c}x^{e}'.format(c=coefficient // (exponent + 1), e=exponent + 1)


def integrate(coeff, index):
	return '{}x^{}'.format(coeff / (index + 1), index + 1).replace('.0x', 'x')


def integrate(coefficient, exponent):
	return '{:g}x^{}'.format(coefficient / (exponent + 1), exponent + 1)


def integrate(c, e):
	e += 1
	return f'{c // e}x^{e}'


def integrate(coefficient, exponent):
	new_exponent = exponent + 1
	new_coefficient = int(coefficient / new_exponent)
	return str(new_coefficient) + 'x^' + str(new_exponent)


def integrate(coef, exp):
	return '{}x^{}'.format(int(coef / (exp + 1)), exp + 1)


def integrate(coefficient, exponent):
	return str(coefficient / (exponent + 1)).rstrip('0').rstrip('.') + 'x^' + str(exponent + 1)


integrate = lambda c, e: '{}x^{}'.format(c / (e + 1), e + 1).replace('.0x', 'x')


def integrate(c, e):
	coefficient = str(c / (e + 1))
	return coefficient.rstrip('0').rstrip('.') + 'x^' + str(e + 1)


def integrate(c, e):
	return '{}x^{}'.format(int(c / (e + 1)), e + 1)


def integrate(coefficient: int, exponent: int) -> str:
	return f'{int(coefficient / (exponent + 1))}x^{exponent + 1}'


integrate = lambda c, e: f'{c // (e + 1)}x^{e + 1}'


def integrate(coefficient, exponent):
	exponent += 1
	coefficient /= exponent
	coefficient = (int if coefficient.is_integer() else float)(coefficient)
	return f'{coefficient}x^{exponent}'


integrate = lambda a, b: ''.join((str(i) for i in [a // (b + 1), 'x^', b + 1]))


def integrate(coefficient, exponent):
	return '{0:.0f}x^{1:.0f}'.format(coefficient / (exponent + 1), exponent + 1)


def integrate(coefficient, exponent):
	a = int(exponent + 1)
	b = int(coefficient / a)
	c = str(b) + 'x^' + str(a)
	return c


def integrate(coef, exp):
	return '{}x^{}'.format(int(coef / (exp + 1)) if int(coef / (exp + 1)) == coef / (exp + 1) else coef / (exp + 1), exp + 1)


def integrate(c, exp):
	if c / (exp + 1) % 1 == 0:
		return '{:g}x^{}'.format(c / (exp + 1), exp + 1)
	else:
		return '{}x^{}'.format(c / (exp + 1), exp + 1)


def integrate(coefficient, exponent):
	b = exponent + 1
	a = coefficient // b
	return f'{a}x^{b}'


def integrate(coefficient, exponent):
	inte = exponent + 1
	first = int(coefficient / inte)
	return f'{first}x^{inte}'


def integrate(coefficient, exponent):
	c = 1 + exponent
	newco = int(coefficient / c)
	return f'{newco}x^{c}'


def integrate(coefficient, exponent):
	a = coefficient / (exponent + 1)
	a = int(a)
	return f'{a}x^{exponent + 1}'


def integrate(coefficient, exponent):
	integred_exponent = exponent + 1
	return f'{int(coefficient / integred_exponent)}x^{integred_exponent}'


def integrate(coefficient, exponent):
	integral = coefficient // (exponent + 1)
	return '{}x^{}'.format(integral, exponent + 1)


def integrate(coefficient, exponent):
	exponent += 1
	a = int(coefficient / exponent)
	return str(a) + 'x^' + str(exponent)


def integrate(coefficient, exponent):
	return '{coef}x^{exp}'.format(coef=coefficient // (exponent + 1), exp=exponent + 1)


integrate = lambda c, e: 'x^'.join([str(c // (e + 1)), str(e + 1)])


def integrate(coefficient, exponent):
	number = str(int(coefficient / (exponent + 1)))
	power = str(exponent + 1)
	return number + 'x' + '^' + power


def integrate(coefficient, exponent):
	exp = exponent + 1
	coef = int(coefficient / exp)
	return f'{coef}x^{exp}'


def integrate(c, e):
	k = e + 1
	return '{}x^{}'.format(c // k, k)


def integrate(coefficient, exponent):
	new_ex = exponent + 1
	new_str = str(int(coefficient / new_ex)) + 'x^' + str(new_ex)
	return ''.join(new_str)


def integrate(coefficient, exponent):
	NewExp = exponent + 1
	NewCoe = int(coefficient / NewExp)
	integral = str(NewCoe) + 'x^' + str(NewExp)
	return integral


def integrate(coefficient, exponent):
	i_co = coefficient / (exponent + 1)
	i_ex = exponent + 1
	return str(int(i_co)) + 'x^' + str(int(i_ex))


def integrate(coefficient, exponent):
	e = exponent + 1
	f = round(coefficient * (1 / e))
	return str(f) + 'x^' + str(e)


def integrate(c, xp):
	return str(int(c / (xp + 1))) + 'x^' + str(xp + 1)


def integrate(coefficient, exponent):
	return '{co}x^{exp}'.format(co=coefficient // (exponent + 1), exp=exponent + 1)


integrate = lambda coefficient, exponent: f'{coefficient // (exponent + 1)}x^{exponent + 1}'


def integrate(coefficient, exponent):
	ex = exponent + 1
	cof = int(coefficient / ex)
	return str(cof) + 'x^' + str(ex)


def integrate(coefficient, exponent):
	exp = exponent + 1
	coef = coefficient // exp
	return str(coef) + 'x^' + str(exp)


def integrate(coefficient, exponent):
	coeff = int(coefficient / (exponent + 1))
	ans = str(coeff) + 'x^' + str(exponent + 1)
	return ans


def integrate(coe, ext):
	return f'{coe // (ext + 1)}x^{ext + 1}'


def integrate(coefficient, exponent):
	integ_coeff = coefficient / (exponent + 1)
	integ_expo = exponent + 1
	return str(int(integ_coeff)) + 'x^' + str(exponent + 1)


def integrate(co, ex):
	return '{}x^{}'.format(round(co / (ex + 1)), ex + 1)


def integrate(coefficient, exponent):
	coefficient = int(coefficient / (exponent + 1))
	exponent += 1
	return '{0}x^{1}'.format(coefficient, exponent)


def integrate(c, e):
	return f'{str(int(c / (e + 1)))}x^{e + 1}'


def integrate(coefficient, exponent):
	x = exponent + 1
	y = round(coefficient / x)
	return '{}x^{}'.format(y, x)


def integrate(c, e):
	e = e + 1
	return str(c // e) + 'x^' + str(e)


def integrate(coefficient, exponent):
	n = exponent + 1
	return f'{int(coefficient / n)}x^{n}'


def integrate(coefficient, exponent):
	new_exponent = exponent + 1
	new_coeff = coefficient / new_exponent
	s = str(int(new_coeff)) + 'x^' + str(new_exponent)
	return s


def integrate(coefficient, exponent):
	aa = int(coefficient / (exponent + 1))
	bb = exponent + 1
	return f'{aa}x^{bb}'


def integrate(coefficient, exponent):
	e = exponent + 1
	coef = coefficient / e
	return '{}x^{}'.format(int(coef), e)


def integrate(coefficient, exponent):
	ex = exponent + 1
	coe = coefficient / ex
	return str(int(coe)) + 'x^' + str(ex)


def integrate(coefficient, exponent):
	exponent = exponent + 1
	coefficient = coefficient / exponent if coefficient % exponent else coefficient // exponent
	return f'{coefficient}x^{exponent}'


def integrate(coefficient, exponent):
	new_exp = exponent + 1
	new_coef = int(coefficient / new_exp)
	return f'{new_coef}x^{new_exp}'


integrate = lambda co, ex: f'{int(co / (ex + 1))}x^{ex + 1}'


def integrate(c, e):
	integral = int(c / (e + 1))
	return f'{integral}x^{e + 1}'


def integrate(coefficient, exponent):
	return '%ix^%i' % (coefficient / (exponent + 1), exponent + 1)


def integrate(coefficient, exponent):
	new_coefficient = str(coefficient // (exponent + 1))
	new_exponent = str(exponent + 1)
	return f'{new_coefficient}x^{new_exponent}'


def integrate(coefficient, exponent):
	exp = exponent + 1
	cof = int(coefficient / exp)
	list = [str(cof), 'x^', str(exp)]
	return ''.join(list)


def integrate(coefficient, exponent):
	a = round(coefficient / (exponent + 1))
	b = exponent + 1
	return '{}x^{}'.format(a, b)


def integrate(coef, ex):
	return f'{int(coef / (ex + 1))}x^{ex + 1}'


integrate = lambda coeff, exp: f'{coeff // (exp + 1)}x^{exp + 1}'


def integrate(coefficient, exponent):
	s = int(coefficient / (exponent + 1))
	d = exponent + 1
	return str(s) + 'x' + '^' + str(d)
w = integrate(12, 5)
print(w)


def integrate(c, e):
	e = e + 1
	c = c / e
	i = ''
	return i + str(int(c)) + 'x^' + str(int(e))


def integrate(coefficient, exponent):
	result_1 = coefficient / (exponent + 1)
	result_2 = exponent + 1
	result = str(int(result_1)) + 'x^' + str(result_2)
	return result
	return result


def integrate(c, exp):
	return f'{str(round(c / (1 + exp)))}x^{str(1 + exp)}'


def integrate(coefficient, exponent):
	exponent += 1
	num = int(coefficient / exponent)
	return f'{num}x^{exponent}'


def integrate(coefficient, exponent):
	e1 = exponent + 1
	r = int(coefficient / e1)
	return '{}x^{}'.format(r, e1)


integrate = lambda coefficient, exponent: str(coefficient // (exponent + 1)) + 'x^' + str(exponent + 1)


def integrate(co, ex):
	return '{}x^{}'.format(int(co / (ex + 1)), ex + 1)


def integrate(coefficient, exponent):
	exp = exponent + 1
	coeff = int(coefficient / exp)
	return f'{coeff}x^{exp}'


def integrate(coefficient, exponent):
	end = exponent + 1
	begin = coefficient // end
	return str(begin) + 'x^' + str(end)


def integrate(x, y):
	z = y + 1
	v = x // z
	return '{}x^{}'.format(v, z)