AP Calculus Chapter 3

AP Calculus Chapter 3

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Section 1

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sech x=

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Cards (51)

Section 1

(50 cards)

sech x=

Front

1/ cosh x

Back

The product rule

Front

d/dx[f(x)•g(x)]= f(x) • d/dx[g(x)] + g(x) • d/dx [f(x)] or u • v' + v • u'

Back

The constant multiple rule

Front

If c is a constant and f is a differentiable function, the d/dx[cf(x)]= c•d/dx f(x)

Back

The sum rule

Front

If f and g are both differentiable, then d/dx[f(x) + g(x)]= d/dx f(x) + d/dx g(x)

Back

Implicit differentiation

Front

consists of differentiating both sides of the equation with respect to x and then solving the resulting equation for y'

Back

d/dx ln | x |

Front

1/x

Back

d/dx (cot x)

Front

-csc^2 x

Back

differential

Front

dy= f'(x)dx dx= change in x

Back

coth x=

Front

cosh x/ sinh x

Back

d/dx (csc x)

Front

-csc x cot x

Back

cosh^2(x)-sinh^2(x)

Front

1

Back

The only solutions of the differential equation dy/dt = ky are the exponential functions

Front

y(t)= y(0)e^kt

Back

d/dx (log b x)

Front

1/ x ln b

Back

law of natural growth

Front

dy/dt= ky if k>0

Back

d/dx (tanh x)

Front

sech^2 x

Back

csch x=

Front

1/ sinh x

Back

derivative of the natural exponential function

Front

d/dx (e^x)= e^x

Back

d/dx (cos x)

Front

-sin x

Back

steps in logarithmic differentiation

Front

1. take natural logarithms of both sides of an equation y=f(x) and use the laws of logarithms to simplify 2. differentiate respectfully to x 3. solve the resulting equation for y'

Back

d/dx (csch x)

Front

-csch x coth x

Back

Horizontal tangents

Front

occur where the derivative is 0

Back

sinh(-x)=

Front

-sinh x

Back

d/dx (cos^-1 x)

Front

- 1/sqrt (1-x^2)

Back

the chain rule

Front

if g is differentiable at x and f is differentiable at g(x), then the composite function F = f • g defined by F(x)= f(g(x)) is differentiable at x and F' is given by the product F'(x)= f'(g(x)) • g'(x)

Back

1-tanh^2(x)

Front

sech^2(x)

Back

sinh(x+y)=

Front

sinh(x)cosh(y)+cosh(x)sinh(y)

Back

d/dx (sec x)

Front

sec x tan x

Back

d/dx (sin^-1 x)

Front

1/ sqrt (1-x^2)

Back

The difference rule

Front

If f and g are both differentiable, then d/dx[f(x)-g(x)]= d/dx f(x) - d/dx g(x)

Back

The power rule

Front

If n is any real number, then d/dx(x^n) = nx^(n-1)

Back

d/dx (sinh x)=

Front

cosh x

Back

The quotient rule

Front

d/dx [f(x)/g(x)]= g(x) • d/dx[f(x)] - f(x) • d/dx [g(x)] / [g(x)^2] or v • u' - u • v' / v^2

Back

d/dx (sin x)

Front

cos x

Back

cosh(x+y)=

Front

cosh(x)cosh(y)+sinh(x)sinh(y)

Back

d/dx (csc^-1 x)

Front

-1/x sqrt (x^2-1)

Back

cosh x=

Front

(e^x + e^-x)/ 2

Back

law of natural decay

Front

dy/dt =ky if k<0

Back

d/dx (ln x)

Front

1/x

Back

Derivative of a constant function

Front

d/dx(c)= 0

Back

d/dx (cosh x)

Front

sinh x

Back

d/dx (cot^-1 x)

Front

- 1/ 1 + x^2

Back

linear approximation formula (linearization)

Front

L(x)= f(a)+f'(a)(x-a)

Back

sinh x=

Front

(e^x - e^-x)/ 2

Back

d/dx (sec^-1 x)

Front

1/ x sqrt(x^2-1)

Back

d/dx tan^-1 x

Front

1/1 + x^2

Back

d/dx (tan x)

Front

sec^2 x

Back

cosh(-x)=

Front

cosh x

Back

d/dx (sech x)

Front

-sech x tanh x

Back

the power rule combined with the chain rule

Front

if n is any real number and u= g(x) is differentiable, then d/dx [g(x)]^n = n[g(x)]^(n-1) • g'(x)

Back

tanh x=

Front

sinh x/ cosh x

Back

Section 2

(1 card)

d/dx (coth x)=

Front

-csch^2x

Back