if f(x) is continuous on [a, b] and differentiable on (a, b), the slope of tangent line equals the slope of the secant line at least once in the interval (a, b)
f '(c) = [f(b) - f(a)]/(b - a)
Back
f(x) above x-axis is
Front
accumulation is positive
Back
f(x) has a relative minimum
Front
If f '(x) = 0 and f"(x) > 0,
Back
Second derivative test for local maximum at x=a
Front
f'(a)=0 and f"(a)<0
Back
Formal definition of derivative
Front
Back
First derivative test for local maximum at x=a
Front
f(a) exists and f'(x) changes from f'(x)>0 to f'(x)<0 at x=a
Back
Instantenous Rate of Change
Front
Slope of tangent line at a point, value of derivative at a point
Back
Area under a curve
Front
A=∫ f(x) dx over interval a to b if f(x)>0 on a to b
Back
Area under velocity-time graph
Front
displacement
Back
absolute max/min
Front
Only occur at critical points or end points of a continuous function (guaranteed by the EVT)
Back
Derivative of an Inverse Function
Front
g'(x) = 1/ f'(g(x)) where g(x) is the inverse of f(x)
Back
Finds horizontal asymptotes of f(x)
Front
Find limit as x approaches infinity of f(x) and limit as x approaches negative infinity of f(x)
Back
Second derivative test for local minimum at x=a
Front
f'(a)=0 and f"(a)>0
Back
When f '(x) changes from negative to positive, f(x) has a
Front
possible relative minimum
Back
Slowing down
Front
Velocity and acceleration act in opposite directions
Back
right riemann sum
Front
use rectangles with right-endpoints to evaluate integrals (estimate area)
Back
average value of f(x)
Front
= 1/(b-a) ∫ f(x) dx on interval a to b
Back
Linearization
Front
use tangent line to approximate values of the function near the point of tangency
Back
Quotient Rule
Front
(uv'-vu')/v²
Back
definite integral
Front
has limits a & b, find antiderivative, F(b) - F(a)
Back
When f '(x) changes from positive to negative, f(x) has a
Front
possible relative maximum
Back
Particle is moving to the right/up
Front
velocity is positive
Back
When f '(x) is decreasing, f(x) is
Front
concave down (f"(x)<0)
Back
When f '(x) is negative, f(x) is
Front
decreasing
Back
When a limit does not exist
Front
1. f(x) approaches a different number from the right as it does from the left as x→c
2. f(x) increases or decreases without bound as x→c
3. f(x) oscillates between two fixed values as x→c
Back
First derivative test for local minimum at x=a
Front
f(a) exists and f'(x) changes from f'(x)<0 to f'(x)>0 at x=a
use rectangles with left-endpoints to evaluate integral (estimate area)
Back
instantaneous rate of change
Front
The derivative of a function at a point
Back
When f"(x) changes sign at x=a, f(x) has a
Front
possible point of inflection at x=a (f(a) must exist and f must be continuous at x=a)
Back
Derivative process for a function raised to a function (f(x))^(g(x))
Front
use logarithmic differentiation. Start process by taking Ln of both sides, use log rules to stretch, take derivative, isolate derivative. (used also for messy derivatives)
Velocity and Acceleration act in the same direction
Back
Average Rate of Change
Front
Slope of secant line between two points, use to estimate instantanous rate of change at a point.
Back
trapezoidal rule
Front
use trapezoids to evaluate integrals (estimate area)
Back
indefinite integral
Front
no limits, find antiderivative + C, use inital value to find C
Back
Speed
Front
absolute value of velocity
Back
f(x) below x-axis is
Front
accumulation is negative
Back
When f '(x) is increasing, f(x) is
Front
concave up (f"(x)>0)
Back
When a function is not differentiable
Front
cusp, vertical tangent, discontinuity
Back
Product Rule
Front
uv' + vu'
Back
When f '(x) is positive, f(x) is
Front
increasing
Back
Particle is moving to the left/down
Front
velocity is negative
Back
Area of a trapezoid
Front
[(h1 + h2)/2]*width
Back
f(x) has a relative maximum
Front
If f '(x) = 0 and f"(x) < 0,
Back
Finds vertical asymptotes of f(x)
Front
Unbounded behavior where denominator is equal to zero. Take limit as x approaches a from the left or right = infinity or neg infinity
Back
Limit exits if
Front
the limit from the left is equal to the limit from the right
Back
Section 2
(50 cards)
indeterminate forms
Front
0/0, ∞/∞, ∞*0, ∞ - ∞, 1^∞, 0⁰, ∞⁰
Back
second derivative of parametrically defined curve
Front
find first derivative, dy/dx = dy/dt / dx/dt, then find derivative of first derivative and divide by dx/dt
Back
Area of an equilateral triangle
Front
A=(√3)/4)s²
Back
Indeterminate power
Front
Take Ln of both sides, use log rules, change to quotient, use L'H, raise answer to base e.
Back
∫ u dv =
Front
uv - ∫ v du
Back
Integral Test
Front
If integral converges, series converges
If integral diverges, series diverges
must meet 3 conditions to use the test (positive, decreasing, continuous)
Back
given v(t) and initial position t = a, find final position when t = b
Front
s₁+ Δs = s
Δs = ∫ v(t) over interval a to b
Back
To draw a slope field,
Front
plug (x,y) coordinates into differential equation, draw short segments representing slope at each point
Back
nth term test
Front
If lim a[n] is not equal to 0, the series diverges. If lim a[n] =0 must use anther test to see if it converges or diverges
Back
Power Series
Front
polynomial with infinite number of terms, includes general term
Back
converges conditionally
Front
alternating series converges and positive form diverges with another test
Back
If g(x) = ∫ f(t) dt on interval a to x, then g'(x) =
Front
g'(x) = f(x)
Back
volume of solid with base in the plane and given cross-section
Front
∫ A(x) dx over interval a to b, where A(x) is the area of the given cross-section in terms of x
Back
alternating series test
Front
lim as n approaches zero of general term = 0 and terms decrease, series converges
Back
Elementary Series for e^x
Front
Back
Methods of integration
Front
simplification, substitution, integration by parts, partial fraction decomposition
Back
volume of solid of revolution - no washer
Front
π ∫ r² dx over interval a to b, where r = distance from curve to axis of revolution
Back
Taylor expansion
Front
Back
Area of Trapezoid
Front
Back
converges absolutely
Front
If both the alternating series its positive form converges with another test
Back
Euler's Method
Front
Back
Alt. Series Error:
Front
Back
volume of solid of revolution - washer
Front
π ∫ (R² - r²) dx over interval a to b, where R = distance from outside curve to axis of revolution, r = distance from inside curve to axis of revolution
Back
given rate equation, R(t) and inital condition when
t = a, y(a) = y₁ find y when
t = b
Front
y(b)=y₁ + Δy
Δy = ∫ R(t) over interval a to b
Back
Indeterminate products
Front
Change to a quotient and use L'Hopitals rule
Back
Find radius of convergence
Front
use ratio test, set <1 and solve absolute value equations, radius = 1/2 (length of interval)
Back
Lagrange Error
Front
Back
To find a particular solution to a differential equation, dy/dx = x/y
Front
separate variables, integrate + C, use initial condition to find C, solve for y
Back
given v(t) find displacement
Front
∫ v(t) over interval a to b
Back
area between two curves
Front
∫ (f(x) - g(x))dx over interval a to b, where f(x) is top function and g(x) is bottom function
Back
Average Rate of Change
Front
Back
logistic differential equation, M = carrying capacity)
Front
dP/dt = kP(1 - P/M)
Back
logistic growth equation
Front
P = M / (1 + Ae^(-kt))
A=(M-P0)/P0
Back
Elementary Series for cos x
Front
Back
Second Fundamental Theorem
Front
Back
Find interval of convergence
Front
use ratio test, set < 1 and solve absolute value equations, check endpoints
Back
Area of an isosceles right triangle with hypotenuse as a base
Front
s²/4
Back
use partial fractions to integrate when
Front
integrand is a rational function with a factorable denominator ( use LD first when needed)
Back
given velocity vectors dx/dt and dy/dt, find total distance travelled
Front
TD=∫ √ (dx/dt)² + (dy/dt)² dt over interval from a to b
Back
given v(t) find total distance travelled
Front
∫ abs[v(t)] over interval a to b
Back
derivative of parametrically defined curve
x(t) and y(t)
Front
dy/dx = dy/dt / dx/dt
Back
Fundamental Theorems of Calculus
Front
∫ f(x) dx on interval a to b = F(b) - F(a)
Back
given velocity vectors dx/dt and dy/dt, find speed
Front
speed =√(dx/dt)² + (dy/dt)² not an integral!
Back
Indeterminate difference
Front
Factor or Change to a quotient.
Back
Area of an isosceles right triangle with side as a base
Front
s²/2
Back
L'Hopitals rule
Front
used to find indeterminate limits(0/0, ∞/∞). Find derivative of numerator and denominator separately then re-evaluate limit
Back
use substitution to integrate when
Front
a function and it's derivative are in the integrand
Back
Elementary Series for sin x
Front
Back
use integration by parts when
Front
two different types of functions are multiplied and substitution does not work
Back
Limit Comparison Test (LCT)
Front
if lim as n approaches ∞ of ratio of comparison series/general term is positive (not equal to zero) and finite, then series behaves like comparison series
Back
Section 3
(31 cards)
Speed (Vector)
Front
Back
Geometric series test
Front
general term = a₁r^n,
Back
Arc Length Polar
Front
Back
MacLaurin Series: 1/(1-x)
Front
1-x+x^2 -x^3+...+(-1)^n(x^n)
Back
Direct comparison test
Front
Back
Intermediate Value Thm
Front
A function f that is continuous on [a,b] takes on every y-value between f(a) and f(b)
Back
Critical numbers are
Front
x-values where f'(x)=0. They must be in the domain of f(x)
Back
exponential growth (differential)
Front
dP/dt=kP
Back
Average Value of a Function
Front
Back
average velocity
Front
The change in position, divided by the time during which the change occurred; is the slope of an object's position-time graph.
Back
Polar Conversion for y
Front
Back
Total Dist. (parametric & vector)
Front
Use symmetry when possible
Back
pythagorean identity (sin and cos)
Front
sin^2x + cos^2x = 1
Back
average acceleration
Front
the change in velocity during some measurable time interval divided by that time interval
Back
Parametric Derivatives
Front
Back
Root Test
Front
limit as n approaches infinity of the nth root of the series, if <1 converges absolutely, >1 diverges, =1 no conclusion can be drawn
Back
Polar Area
Front
Back
Arc Length Cartesian
Front
Back
Power-Reducing Formulas
Front
sin^2 x = (1 - cos 2x)/(2)
cos^2 x = (1 + cos 2x)/(2)