Techniques of Integration flashcards
46 practice cards drawn from the Techniques of Integration lessons. Tap a card to turn it over. Every answer is checked against the lesson it came from.
Read the Techniques of Integration lessons in full →
Integrate
from “The Antiderivative”
Integrate
from “The Antiderivative”
Integrate
from “Integrating Powers”
Integrate
from “Integrating Powers”
f'(x) = 2x and the curve passes through (2, 7). C = ?
3
from “Finding the Constant of Integration”
f'(x) = 2x and the curve passes through (3, 11). C = ?
2
from “Finding the Constant of Integration”
is read aloud as
"the integral from 0 to 3 of x squared, dx"
from “Reading the Integral Sign”
The numbers top and bottom of the integral sign give
where the sweep starts and stops
from “Reading the Integral Sign”
. du = ?
from “Differentials”
. dy = ?
2x dx
from “Differentials”
Taking the strip width to zero turns the total into
an exact area
from “The Definite Integral”
The definite integral is
the limit those totals approach
from “The Definite Integral”
A left Riemann sum reads each rectangle’s height at
the left edge of the strip
from “Left, Right and Midpoint Riemann Sums”
For on [0, 4] in 4 strips, the right sum is
7.5
from “Left, Right and Midpoint Riemann Sums”
Letting in gives
the definite integral
from “The Riemann Sum in Sigma Notation”
The sample point of the strip numbered i is
from “The Riemann Sum in Sigma Notation”
16
from “The Fundamental Theorem of Calculus”
25
from “The Fundamental Theorem of Calculus”
An integral gives +3, then −3. The total area covered is
6
from “Area Below the Axis”
f stays below the axis on [2, 6]. Its integral there is
negative
from “Area Below the Axis”
If is 7, then is
−7
from “Properties of the Definite Integral”
equals
from “Properties of the Definite Integral”
For , let u be
from “Integration by Substitution”
Carry through . The answer is
from “Integration by Substitution”
from “Integrating f(ax + b)”
from “Integrating f(ax + b)”
For , the best choice of u is
x
from “Integration by Parts”
Integration by parts gives
from “Integration by Parts”
sin x + c
from “Integrating Trigonometric Functions”
−cos x + c
from “Integrating Trigonometric Functions”
To integrate it, rewrites as
from “Integrating sin² and cos²”
Which identity removes the square?
the double angle formula for cos 2A
from “Integrating sin² and cos²”
from “Integrating Exponentials and Logarithms”
ln|x| + c
from “Integrating Exponentials and Logarithms”
Over a repeated factor , the split needs
from “Integration by Partial Fractions”
Over an unfactorable , the numerator is
Ax + B
from “Integration by Partial Fractions”
from “Integrals of f′ over f”
The pattern needs the numerator to be
the derivative of the denominator
from “Integrals of f′ over f”
−ln|cos x| + c
from “Integrating sec²x, sec x tan x and tan x”
ln|sin x| + c
from “Integrating sec²x, sec x tan x and tan x”
from “Integrals That Give tan⁻¹ and sin⁻¹”
from “Integrals That Give tan⁻¹ and sin⁻¹”
Which identity does the substitution use?
from “Choosing a Trigonometric Substitution”
For , which substitution clears the root?
from “Choosing a Trigonometric Substitution”
Why may arsinh be written as a logarithm?
arsinh is a logarithm already
from “Integrals That Give arsinh and arcosh”
What is ?
arsinh x + c
from “Integrals That Give arsinh and arcosh”