Example 1
Differentiate (3x^2 - 1)^5 with respect to xA composite function centered on the chain rule.
Use this differentiation solver when the main task is how to differentiate an expression. It focuses on recognizing the structure, choosing differentiation rules, and explaining each rule application.
differentiation solver
Rule selection
Composite functions
Products and quotients
Enter your differentiation problem below. Add the variable, conditions, and method you want so the AI can return a more relevant worked response.
Step
A complete prompt usually produces a more useful explanation than an isolated expression.
d/dxWrite the expression and say which variable to differentiate with respect to.
u(g(x))Identify sums, products, quotients, and nested functions before doing algebra.
rule₁ → rule₂Keep intermediate derivatives visible so chain-rule factors are not lost.
f′(x)After the derivative is established, simplify without changing its domain unexpectedly.
differentiation solver
The page is organized around the problem types people actually search for, while staying within the text-and-image solver's current capabilities.
Rule selection
d/dx [u + v]Identify whether power, product, quotient, chain, or implicit differentiation is needed.
Composite functions
d/dx [f(g(x))]Work from the outer function inward and keep each chain-rule factor visible.
Products and quotients
d/dx [u · v]Differentiate the parts separately before combining them with the correct formula.
Repeated differentiation
dⁿ/dxⁿ [f(x)]Continue from the first derivative when a second or higher derivative is requested.
Example
These examples reflect common search intent and can be inserted into the solver as a starting point.
Example 1
Differentiate (3x^2 - 1)^5 with respect to xA composite function centered on the chain rule.
Example 2
Differentiate x^3 ln(x)A product-rule problem with a logarithmic factor.
Example 3
Differentiate (x^2 + 1) / (x - 4)A quotient-rule problem where the numerator can be simplified afterward.
A worked answer is most useful when you know which details are easy to lose along the way.
The chain rule multiplies by the derivative of the inner function.
The derivative of fg is f'g + fg', not f'g'.
Premature algebra can hide the function structure and make the right rule harder to see.

