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WorksheetsAP Calculus AB Full Year Review
Total questions: 50
Worksheet time: 5mins
Derivative of y=x7
y′=7x6
y′=x7⋅7
y′=81x8
Derivative of y=sinx
y′=cosx
y′=−sinx
y′=sec2x
y′=−cosx
Derivative of y=cosx
y′=sinx
y′=−sinx
y′=sec2x
y′=−csc2x
Derivative of y=tanx
y′=sec2x
y′=−csc2x
y′=sinx
y′=−cosx
Derivative of y=cotx
y′=−csc2x
y′=sec2x
y′=cosx
y′=−sinx
Derivative of y=secx
y′=secxtanx
y′=−cscxcotx
y′=sec2x
y′=−csc2x
Derivative of y=cscx
y′=−cscxcotx
y′=secxtanx
y′=sec2x
y′=−csc2x
Derivative of y=lnx
y′=x1
y′=ex
y′=lnx
y′=lnx1
Derivative of y=e5x
y′=5e5x
y′=5e4x
y′=e5x
y′=5e5x−1
Derivative of y=5x
y′=x5x−1
y′=5x⋅ln5
y′=ln55x
y′=ex⋅ln5
Derivative of y=sin(x3)
y′=sin(3x2)
y′=cos(3x2)
y′=cos(x3)⋅3x2
y′=cos(x3)
Derivative of y=x3sinx
y′=x3cosx+3x2sinx
y′=3x2cosx
y′=x3cosx−3x2sinx
y′=x3sinx+3x2cosx
Derivative of y=g(x)f(x)
y′=(g(x))2g(x)f′(x)−f(x)g′(x)
y′=g′(x)f′(x)
y′= (g(x))2f(x)g′(x)−g(x)f′(x)
Fundamental Theorem:
∫abf′(x)dx=
f(a)−f(b)
f(b)−f(a)
f′(b)−f′(a)
f′(a)−f′(b)
Fundamental Theorem:
f(b)=
f(a)+∫abf′(x)dx
f(a)−∫abf′(x)dx
f(a)+∫abf(x)dx
f(a)−∫abf(x)dx
Derivative of f(x)=∫4xsin(t)dt
f′(x)=sin(x)
f′(x)=cos(x)
f′(x)=sinx−sin4
f′(x)=−cosx+cos4
Area of a Trapezoid
A=21h(b1+b2)
A=2l+2w
A=41h(b1+b2)
A=21bh
Area of a Circle
A=πr2
A=2πr
A=r2
A=πd
Average rate of change formula
b−af(b)−f(a)
b−a1∫abf(x)dx
2f(b)−f(a)
Average value of a function
b−af(b)−f(a)
b−a1∫abf(x)dx
2f(b)−f(a)
Derivative of Position
velocity
speed
acceleration
displacement
Derivative of Velocity
velocity
speed
acceleration
displacement
Absolute value of Velocity
velocity
speed
acceleration
displacement
Average Velocity
change in timefinal position - initial position
change in timefinal velocity - initial velocity
2final velocity - initial velocity
Which is best for finding the area under a curve?
Limit
Derivative
Integral
Set equation equal to zero
If we know the rate, how do we find the amount?
Limit
Derivative
Integral
Second Derivative
Which is best for finding the instantaneous rate of change?
Limit
Derivative
Integral
Second Derivative
Which is the best for finding the slope of a tangent line?
Limit
Derivative
Integral
Second Derivative
∫sinx dx=
cosx+C
−cosx+C
tanx+C
sec2x+C
∫cosx dx=
sinx+C
−sinx+C
sec2x+C
secxtanx+C
∫secxtanx dx=
secx+C
−sinx+C
sec2x+C
secxtanx+C
∫cscxcotx dx=
−cscx+C
csc2x+C
sinx+C
−cosx+C
∫sec2x dx=
tanx+C
31sec3x +C
2secx+C
cotx+C
∫csc2x dx=
31csc3x+C
−cotx+C
tanx+C
2cscx+C
∫x1 dx=
lnx+C
−x21+C
x−1+C
−1x−2+C
∫ex dx=
ex+C
ln(x)+C
21e2x+C
x+11ex+1 +C
∫e4x dx=
41e4x+C
4e4x+C
4e3x+C
51e5x+C
lne=
1
0
undefined
ln0=
1
0
undefined
ln1=
1
0
undefined
sin(0)=
0
1
−1
cos(0)=
0
1
−1
cos(2π)=
0
1
−1
sin(2π)=
0
1
−1
sin(π)=
0
1
−1
cos(π)=
0
1
−1
Which is the best for finding minimums or maximums?
Limit
Derivative
Integral
Second Derivative
Which is the best for finding points of inflection?
Limit
Derivative
Integral
Second Derivative
What equation do we use to find the equation of a tangent line?
y−y1=m(x−x1)
x−x1=m(y−y1)
y+y1=m(x+x1)
x+x2=m(y+y1)
Volume of Revolution between two curves
V=π∫ab[R(x)−r(x)]2 dx
V=π∫ab([R(x)]2−[r(x)]2) dx
V=π∫ab[R(x)+r(x)]2 dx
V=π∫ab([R(x)]2+[r(x)]2) dx
