Enter your expression below:


ƒ()
ƒ'()

n =

Evaluate the function
ƒ(n) = n52
at ƒ(0)
Given ƒ(n) = n52
Determine the derivative ∫ƒ(n)
Given ƒ(n) = n52
Determine the 2nd derivative ∫ƒ(n)
Given ƒ(n) = n52dn
Determine the integral ∫ƒ(n)
Go through and integrate each term
Given the equation ƒ(n) = n52
use Simpsons Rule with n =
over the interval [0,1]

Substitute each n with 0

ƒ(0) = (0)52
ƒ(0) = (0)
ƒ(0) = 0

Start ƒ'(n)


Use the power rule

ƒ'(n) of ann = (a * n)n(n - 1)
For this term, a = 1, n = 52
and n is the variable we derive
ƒ'(n) = n52
ƒ'(n)( = 1 * 52)n(52 - 1)
ƒ'(n) = 52n51

Collecting all of our derivative terms

ƒ'(n) = 52n51

Start ƒ''(n)


Use the power rule

ƒ''(n) of ann = (a * n)n(n - 1)
For this term, a = 52, n = 51
and n is the variable we derive
ƒ''(n) = 52n51
ƒ''(n)( = 52 * 51)n(51 - 1)
ƒ''(n) = 2652n50

Collecting all of our derivative terms

ƒ''(n) = 2652n50

Start ƒ(3)(n)


Use the power rule

ƒ(3)(n) of ann = (a * n)n(n - 1)
For this term, a = 2652, n = 50
and n is the variable we derive
ƒ(3)(n) = 2652n50
ƒ(3)(n)( = 2652 * 50)n(50 - 1)
ƒ(3)(n) = 132600n49

Collecting all of our derivative terms

ƒ(3)(n) = 132600n49

Start ƒ(4)(n)


Use the power rule

ƒ(4)(n) of ann = (a * n)n(n - 1)
For this term, a = 132600, n = 49
and n is the variable we derive
ƒ(4)(n) = 132600n49
ƒ(4)(n)( = 132600 * 49)n(49 - 1)
ƒ(4)(n) = 6497400n48

Collecting all of our derivative terms

ƒ(4)(n) = 6497400n48

Evaluate ƒ(4)(0)

ƒ(4)(0) = 6497400(0)48
ƒ(4)(0) = 6497400(0)
ƒ(4)(0) = 0
Given ƒ(n) = n52dn
Determine the integral ∫ƒ(n)
Go through and integrate each term

Integrate term 1

ƒ(n) = 6497400n48

Use the power rule

∫ƒ(n) of the expression ann
an(n + 1)
n + 1

= 6497400, n = 48
and n is the variable we integrate
∫ƒ(n)  =  6497400n(48 + 1)
  48 + 1

∫ƒ(n)  =  6497400n49
  49

Simplify our fraction.
Divide top and bottom by 49
∫ƒ(n) = 132600n49

Collecting all of our integrated terms we get:

∫ƒ(n) = 6497400n49132600n49

Evaluate ∫ƒ(n) on the interval [0,1]

The value of the integral over an interval is ∫ƒ(1) - ∫ƒ(0)

Evaluate ∫ƒ(1)

∫ƒ(1) = 6497400(1)49132600(1)49
∫ƒ(1) = 6497400(1)132600(1)
∫ƒ(1) = 132600
∫ƒ(1) = 132600

Evaluate ∫ƒ(0)

∫ƒ(0) = 6497400(0)49132600(0)49
∫ƒ(0) = 6497400(0)132600(0)
∫ƒ(0) = 0
∫ƒ(0) = 0

Determine our answer

∫ƒ(n) on the interval [0,1] = ∫ƒ(1) - ∫ƒ(0)
∫ƒ(n) on the interval [0,1] = 132600 - 0

Final Answer


ƒ(0) = 0
ƒ(4)(0) = 0
∫ƒ(n) on the interval [0,1] = 132600