Rules of Differentiation flashcards
38 practice cards drawn from the Rules of Differentiation lessons. Tap a card to turn it over. Every answer is checked against the lesson it came from.
Read the Rules of Differentiation lessons in full →
For , what is the chord gradient from 6 to 7?
13
from “The Derivative As a Limit”
For , what is the chord gradient from 4 to 5?
9
from “The Derivative As a Limit”
The second derivative in Leibniz's style is
from “Derivative Notation”
Which symbol means the derivative of f?
f'(x)
from “Derivative Notation”
From first principles, differentiate
from “Differentiating From First Principles”
From first principles, differentiate
2x
from “Differentiating From First Principles”
f is differentiable at 3. Must f be continuous at 3?
yes
from “Where a Derivative Fails to Exist”
f is continuous at 3. Must f be differentiable at 3?
no
from “Where a Derivative Fails to Exist”
Differentiate 9x + 2
9
from “Differentiating Linear Functions”
Differentiate 4x + 1
4
from “Differentiating Linear Functions”
Differentiate
12x
from “The Power Rule”
Differentiate
from “The Power Rule”
Differentiate
12x + 6
from “The Constant Multiple and Sum Rules”
Differentiate
8x + 2
from “The Constant Multiple and Sum Rules”
of
from “The Product Rule”
of , using the product rule
from “The Product Rule”
The quotient rule denominator is
from “The Quotient Rule”
The quotient rule numerator is
u'v − uv'
from “The Quotient Rule”
Differentiate sin(3x)
3 cos(3x)
from “The Chain Rule”
Differentiate
from “The Chain Rule”
Differentiate −sin x
−cos x
from “Differentiating Trigonometric Functions”
Differentiate sin x
cos x
from “Differentiating Trigonometric Functions”
Differentiate cot x
from “Differentiating tan x and the Reciprocal Ratios”
Differentiate cosec x
−cosec x cot x
from “Differentiating tan x and the Reciprocal Ratios”
The gradient of at any point equals
its own height
from “The Number E”
Differentiate
from “The Number E”
Differentiate ln x
from “Differentiating Exponentials and Logarithms”
Differentiate
from “Differentiating Exponentials and Logarithms”
Differentiate
from “Differentiating aˣ and logₐ x”
Differentiate
from “Differentiating aˣ and logₐ x”
. What is ?
from “Implicit Differentiation”
. What is ?
from “Implicit Differentiation”
holds when
f(a) = b
from “The Derivative of an Inverse Function”
The inverse-derivative rule comes from differentiating
from “The Derivative of an Inverse Function”
Differentiate
from “Differentiating sin⁻¹ x and tan⁻¹ x”
For , equals
from “Differentiating sin⁻¹ x and tan⁻¹ x”
Differentiate twice
12x
from “Higher Derivatives”
Differentiate twice
30x
from “Higher Derivatives”