Unlock hundreds more features
Save your Quiz to the Dashboard
View and Export Results
Use AI to Create Quizzes and Analyse Results

Sign inSign in with Facebook
Sign inSign in with Google

Derivative quiz: practice rules and sharpen your calculus skills

Quick, free derivative rules quiz. Instant results.

Editorial: Review CompletedCreated By: Aaron HillebrandUpdated Aug 27, 2025
Difficulty: Moderate
Grade: Grade 12
Study OutcomesCheat Sheet
Colorful paper art promoting Derivatives Demystified, a calculus quiz for high school students.

This derivative quiz helps you practice power, product, quotient, and chain rules while building speed and accuracy. Answer 20 quick questions and get instant results to spot mistakes and review steps. For more practice, take our calculus quiz, try a focused differentiation practice test, or warm up with AP calculus unit 1 practice.

Find d/dx of f(x) = 7x^3.
14x^3
3x^6
7x^2
21x^2
undefined
The derivative of a constant c is 0.
False
True
undefined
Compute f'(x) if f(x) = 5x^2 - 4x + 1.
5x - 4
10x - 4
10x + 4
10x - 1
undefined
d/dx [sqrt(x)] equals which expression?
sqrt(x)/2
1/sqrt(x)
1/(2sqrt(x))
2sqrt(x)
undefined
If s(t) = 3t^2, then the instantaneous velocity is v(t) = 6t.
False
True
undefined
Product rule: d/dx [u(x)v(x)] = u'(x)v(x) + u(x)v'(x).
True
False
undefined
Find d/dx of f(x) = (2x + 3)(x^2).
(2x+3)(x)
2x^2 + 3x^2
2x + 6x
(2)(x^2) + (2x+3)(2x)
undefined
Compute derivative of q(x) = (5x - 1)/(x^2).
(5x^2 - 2x(5x - 1))/x^4
5/x^2
(5x - 1)'/(x^2)'
(5 - 2x)/(x^2)
undefined
Chain rule: d/dx [sin(x^2)] equals
cos(x^2)
cos(x)
2 sin(x)
2x cos(x^2)
undefined
If y = (3x+1)^4, then dy/dx =
(3x+1)^3
4(3x+1)^3
12(3x+1)^3
12x^3
undefined
If f(x) = x^x for x>0, then f(x) equals
x^x(1 + ln x)
x^{x-1}
ln(x)
x^x
undefined
Implicit differentiation: For x^2 + y^2 = 25, find dy/dx in simplest form.
-2x/2y
-y/x
y/x
-x/y
undefined
d/dx [arcsin(x)] for |x|<1 equals
1/(1 + x^2)
1/sqrt(1 - x^2)
-1/sqrt(1 - x^2)
1/(1 - x)
undefined
The derivative of sec(x) is sec(x)tan(x).
True
False
undefined
Find d/dx of y = ln(x^2 + 1).
2/(x^2 + 1)
(2x)/(x^2 + 1)
2x
(x^2 + 1)/(2x)
undefined
Differentiate y = x^2 e^{x^2}.
2x e^{x^2}
x^2 e^{x^2}
(2x + x^2) e^{x^2}
2x e^{x^2} + 2x^3 e^{x^2}
undefined
d/dx [ln|x|] for x ≠ 0 equals 1/x.
True
False
undefined
Implicitly differentiate xy = 1 to find dy/dx.
-x/y
-1/(x^2)
1/(xy)
-y/x
undefined
Find d/dx of y = (3x - 2)^-2.
-6(3x - 2)^-3
-2(3x - 2)^-3
-6(3x - 2)^-2
6(3x - 2)^-3
undefined
Find d/dx of y = ln(sin x) for 0 < x < π.
csc x
sec x
cot x
tan x
undefined
0

Study Outcomes

  1. Understand the fundamental concept of the derivative and its geometric interpretation.
  2. Compute derivatives for various functions using established differentiation rules.
  3. Apply differentiation techniques to solve practical calculus problems.
  4. Analyze function behavior by identifying critical points and rates of change.
  5. Evaluate problem-solving strategies to enhance test and exam preparation.

Derivative Practice Cheat Sheet

  1. Master the Power Rule - To differentiate x❿, multiply by the exponent and reduce the power by one: d/dx(x❿) = n·x❿❻¹. For instance, d/dx(x³) = 3x². It feels like a magic trick that makes tackling polynomials instantaneously easier!
  2. Sum & Difference Rules - Breaking down complex expressions is a snap since d/dx[f(x) ± g(x)] = f′(x) ± g′(x). You simply differentiate each term separately and keep the plus or minus sign. It's as satisfying as assembling building blocks one piece at a time!
  3. Utilize the Product Rule - When two functions u(x) and v(x) are multiplied, use d/dx[u·v] = u′·v + u·v′. This handy formula ensures you don't miss a beat when products pop up. Think of it as juggling two balls - keep both in motion with the right rhythm!
  4. Understand the Quotient Rule - For a fraction u(x)/v(x), apply d/dx[u/v] = [u′·v - u·v′] / v². It may look complex, but it's a straightforward subtraction and division routine. Just remember "low d‑high minus high d‑low, over low squared" to ace any fraction!
  5. Grasp the Chain Rule - Composite functions f(g(x)) use d/dx[f∘g] = f′(g(x))·g′(x). You peel back each layer like an onion, differentiating the outer function then plunging into the inner one. It's your go‑to move for nested formulas!
  6. Differentiate Trigonometric Functions - Memorize that d/dx[sin(x)] = cos(x) and d/dx[cos(x)] = - sin(x). Once you lock in these basics, every other trig derivative is a piece of cake. Who knew circles and waves could be so friendly?
  7. Differentiate Exponential Functions - Exponentials are your allies: d/dx[eˣ] = eˣ. That means the function and its derivative are identical - talk about effortless growth! It's like having an endless energy boost in calculus form.
  8. Differentiate Logarithmic Functions - For natural logs, d/dx[ln(x)] = 1/x. It's the neat inverse of exponentials and saves you every time you see ln popping up. Just remember the reciprocal trick and you're golden!
  9. Apply the Constant Multiple Rule - If you have a constant c times a function, d/dx[c·f(x)] = c·f′(x). The constant tags along happily while you do the real work on f(x). It's the ultimate shortcut for scaling derivatives!
  10. Practice with Real-World Applications - Use these rules to solve rate‑of‑change problems in physics, biology, and economics. Whether you're finding velocity from position or analyzing growth trends, hands‑on practice cements your skills. Grab some real data and watch calculus come to life!
Powered by: Quiz Maker