Fourth Derivative Calculator

Want to calculate the fourth derivative of a given function? Try our fourth derivative calculator which can solve a different variety of function, including polynomial, trigonometric, exponential and logarithmic for free.

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Table of Contents:

Introduction to Fourth Derivative Calculator:

The fourth derivative calculator is a digital tool that is designed to compute the fourth derivative of a function. Our tool can solve a variety of functions, including polynomial, trigonometric, exponential, and logarithmic for fourth derivation.

Fourth Derivative Calculator with Steps

It is a useful tool for students, engineers, and scientists who need a reliable tool that can give them an accurate solution for the higher-order derivatives.

What is the Fourth Derivative?

The fourth derivative of a function is defined as a process of finding the differentiation of the given function four times. It provides insights about the behavior and nature of the function. It is particularly useful in Taylor series expansions and the analysis of differential equations.

The 4th derivative calculator provides valuable information for understanding and modeling complex behaviors in various fields such as engineering, physics, and signal processing. It is denoted as,

$$ f^4 (x) \;=\; \frac{d}{dx} \left(\frac{d}{dx} \left(\frac{d}{dx} \left(\frac{d}{dx} f(x) \right) \right) \right) $$

How to Find Fourth Derivative?

To find multivariable derivative function, you need to differentiate the function four times. Let's see the calculation process of the fourth derivative in steps.

Step 1: Identify the given function f(x), and choose the appropriate method for differentiation.

Step 2: Differentiate the function f(x) that you want to differentiate with respect to x as f`(x).
$$ f′(x) \;=\; \frac{d}{dx} (f(x)) $$

Step 3: Then again differentiate f′(x) to find the second derivative f′′(x).
$$ f′′(x) \;=\; \frac{d}{dx} f′(x) $$

Step 4: For third order derivation, differentiate f′′(x) with respect to x.
$$ f′′′(x) \;=\; \frac{d}{dx} (f′′(x)) $$

Step 5:Finally, differentiate f′′′(x) to find the fourth derivative f(4)(x).
$$ f^(4)(x) \;=\; \frac{d}{dx} (f′′′(x)) $$

Each step involves applying the differentiation rules (product rule, chain rule, etc.) as per the original function behavior f(x).

If f(x) is given in a specific form (polynomial, trigonometric, exponential, etc.), then the fourth degree derivative calculator applies the differentiation rules accordingly.

Practical Example Of Fourth Derivative:

The solved example of the fourth derivative function is given below to understand the calculation process of fourth derivative calculator.

Example:

$$ f(x) \;=\; cos (2x) $$

For fourth derivation, calculate the first, second, third, and fourth derivatives of f(x) = cos2(x).

Solution:

Use chain rule and differentiate the function f(x) with respect to x.

$$ f(x) \;=\; cos(2x) $$

$$ f’(x) \;=\; \frac{d}{dx} [cos(2x)] \;=\; -sin(2x) . \frac{d}{dx}[2x] \;=\; -2 sin(2x) $$

$$ f’(x) \;=\; -2 sin(2x) $$

Again take the derivative of f`(x) with respect to x.

$$ f’’(x) \;=\; \frac{d}{dx} [-2 sin(2x)] \;=\; -2 . \frac{d}{dx} [sin(2x)] \;=\; -2 . (2 cos(2x)) $$

$$ f’’(x) \;=\; -4 cos(2x) $$

Differentiate the function f```(x) with respect to x.

$$ f’’’(x) \;=\; \frac{d}{dx} [-4 cos(2x)] \;=\; -4 . \frac{d}{dx} [cos(2x)] \;=\; -4 . (-2 sin(2x)) $$

$$ f’’’(x) \;=\; 8 sin(2x) $$

To get the solution of the fourth derivative of a given function, differentiate the third derivative function f```(x) with respect to x.

$$ f^4 (x) \;=\; \frac{d}{dx} [8 sin (2x)] \;=\; 8 . \frac{d}{dx}[ sin(2x)] \;=\; 8 . (2 cos(2x)) $$

$$ f^4 (x) \;=\; 16 cos(2x) $$

Therefore the solution of f(x) = cos2(x) is given as,

$$ f^4(x) \;=\; 16 cos(2x) $$

How To Use 4th Derivative Calculator?

Fourth derivative calculator has a simple design that makes it easy for you to use it for the evaluation of fourth order derivative problems. Here are some steps to use it:

  • Enter the given fourth derivative function in the given input field that you want to evaluate.
  • Choose the variable of differentiation for the fourth derivative in the input field.
  • Check the given complex derivative function before clicking the calculate button to start the evaluation process.
  • Click the “Calculate” button to get the result of fourth order of differentiation problem .
  • If you are trying our fourth differentiation calculator for the first time then you can use the load example to learn more about this concept.
  • Click on the “Recalculate” button to get a new page for finding more solutions of fourth derivative problems.

Results of Fourth Degree Derivative Calculator:

It gives you the solution of given derivation function when you give it an input. The results include the following:

  • Result Option:

When you click on the result option, it gives you a solution of the differential function.

  • Possible Steps:

When you click on it, this option will provide you step by step solution of fourth derivative problem.

Benefits Of Using Fourth Derivative Calculator

The 4th derivative calculator provides you many benefits that help you to calculate the fourth derivative of given function problems. These benefits are:

  • Fourth differentiation calculator is a free-of-cost tool so you can use it for free to find fourth derivative problem solutions.
  • It gives you conceptual clarity for the fourth derivative process when you use it for practice.
  • It saves the time and effort that you consume in calculation of complex functions for finding the fourth derivative problems manually.
  • It is an adaptable tool that provides you with exact solutions whenever you use it to calculate higher order derivatives without any mistakes in calculation.
  • Fourth degree derivative calculator enables you to use it multiple times for the evaluation of fourth order derivative problem.
  • The 4th derivative calculator is a handy tool as you can access to it through online platform anywhere in the world.
Related References
Frequently Ask Questions

What is the fourth derivative of 3e^x 2?

To find the fourth derivative of f(x) = 3ex2, follow the differentiation steps

Solution:

Identify the given function and apply the appropriate rule for differentiation,

$$ f(x) = 3e^{x^2} $$

Differentiation of the function f(x) with respect to x, and applying chain rule,

To find f’(x), we use the chain rule. Let g(x) = x2 and h(u) = eu,

$$ f’(x) \;=\; h’(g(x)) . g’(x) $$

$$ h’(u) \;=\; e^u $$

$$ g’(x) \;=\; 2x $$

So,

$$ f’(x) \;=\; {e^x}^2 . 2x \;=\; 2x{e^x}^2 $$

Again differentiate f`(x) with respect to x,

$$ f’’(x) \;=\; \frac{d}{dx} (2x{e^x}^2) \;=\; 2{e^x}^2 + 4x^2 e^{x^2} \;=\; e^{x^2} (2 + 4x^2) $$

For third order derivative, differentiate the function f``(x) with respect to x.

$$ f’’’(x) \;=\; \frac{d}{dx} (e^{x^2} (2 + 4x^2)) \;=\; e^{x^2} . 2(2 + 4x^2) + e^{x^2} . 8x \;=\; e^{x^2} (4 + 8x^2 + 8x) $$

For the fourth-order derivative, differentiate the function f```(x) with respect to x,

$$ f^4(x) \;=\; \frac{d}{dx} (e^{x^2} (4 + 8x^2 + 8x)) $$

Use the product rule for differentiation,

$$ f^4 (x) \;=\; e^{x^2} . (8x + 16x + 8) + e^{x^2} . (16x + 16) $$

$$ f^4 (x) \;=\; e^{x^2} . (24x + 24) $$

Therefore the given fourth derivative function f(x) is,

$$ f(x) \;=\; 3e^{x^2} is f^4 (x) \;=\; 24x e^{x^2} + 24 e^{x^2} $$

What is the fourth derivative of cos x?

To find the fourth derivative of f(x) = cos⁡(x), you proceed with successive differentiation:

Solution:

Identify the given function and apply the appropriate rule for differentiation

$$ f(x) \;=\; cos(x) $$

Differentiation of the function f(x) with respect to x, and applying the direct rule for derivation,

$$ f’(x) \;=\; \frac{d}{dx} (cos(x)) \;=\; -sin(x) $$

Again differentiate f`(x) with respect to x,

$$ f’’(x) \;=\; \frac{d}{dx} (-sin(x)) \;=\; -cos(x) $$

For third order derivative, differentiate the function f``(x) with respect to x.

$$ f’’’(x) \;=\; \frac{d}{dx} (-cos(x)) \;=\; sin(x) $$

For the fourth-order derivative, differentiate the function f```(x) with respect to x,

$$ f^4(x) \;=\; \frac{d}{dx} (sin(x)) \;=\; cos(x) $$

Therefore the given fourth derivative function f(x) is,

$$ f(x) \;=\; cos(x)\; is\; f^4(x) \;=\; cos(x) $$

What is the fourth derivative of sinx?

To find the fourth derivative of f(x) = sin⁡(x)), let's do the successive differentiation

Solution:

Identify the given function and apply the appropriate rule for differentiation,

$$ f(x) \;=\; sin(x) $$

Differentiation of the function f(x) with respect to x, and applying the direct rule,

$$ f’(x) \;=\; \frac{d}{dx} (sin(x)) \;=\; cos(x) $$

Again differentiate f`(x) with respect to x,

$$ f’’(x) \;=\; \frac{d}{dx} (cos(x)) \;=\; -sin(x) $$

For third order derivative, differentiate the function f``(x) with respect to x.

$$ f’’’(x) \;=\; \frac{d}{dx} (-sin(x)) \;=\; -cos(x) $$

For the fourth-order derivative, differentiate the function f```(x) with respect to x,

$$ f^4(x) \;=\; \frac{d}{dx} (-cos(x)) \;=\; sin(x) $$

Therefore the given fourth derivative function f(x) is,

$$ f(x) \;=\; sin(x)\; is\; F^4 (x) \;=\; sin(x) $$

Can you divide a fourth derivative by a second derivative?

Yes, you can divide derivatives of a function by one another. When dividing derivatives, you see the function is the ratio of its values at a particular point x such as:

  • f(2)(x) as the second derivative of f(x)
  • f(4)(x) as the fourth derivative of f(x).

The division of the fourth derivative by the second derivative at a point x is expressed as:

$$ \frac{f^4 (x)}{f^2 (x)} $$

This ratio can be computed directly using the values of f4(x) and f(2)(x) obtained from differentiation.

How to find the maximum value of the fourth derivative?

To find the maximum value of the fourth derivative f(4)(x) of a function f(x), follow these steps:

  1. First, find the critical points of f4(x) by solving f4(x) = 0.
  2. Use the second derivative test or higher-order derivative tests to classify the critical points as maxima, minima, or saddle points.
  3. If the function f(x) is defined over a closed interval [a, b] evaluate f4(x) at the endpoints x = a and x = b
  4. Compare the values of f4(x) at the critical points and endpoints to determine which one is the maximum value.

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