Derivative Table.pdf, Summaries of Calculus

(Inverse function) If y = f(x) has a non-zero derivative at x and the inverse function x = f. -1. (y) is continuous at corresponding point y, then x = f.

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Derivative Table
1. dx
dv
dx
du
)vu(
dx
d±=±
2. dx
du
c)cu(
dx
d=
3. dx
du
v
dx
dv
u)uv(
dx
d+=
4. dx
dv
wu
dx
du
vw
dx
dw
uv)uvw(
dx
d++=
5. 2
vdx
dv
u
dx
du
v
v
u
dx
d
=
6. (Chain rule) If y = f(u) is differentiable on u = g(x) and u = g(x) is differentiable
on point x, then the composite function y = f(g(x)) is differentiable and
dx
du
du
dy
dx
dy =
7. (Chain rule)
dx
dw
dw
du
du
dy
dx
dy =
8. (Inverse function) If y = f(x) has a non-zero derivative at x and the inverse function
x = f -1(y) is continuous at corresponding point y, then x = f -1(y) is differentiable and:
dx
dy
1
dy
dx =
9. (Parametric equation) For the equation , f(t) and g(t) are differentiable
and f’(t) 0, then
=
=
)t(gy
)t(fx
dt
dx
dt
dy
dx
dy =.
10. (Parametric equation)
3
3
2
2
2
2
2
2
)'x(
'y''x''y'x
dt
dx dt
dy
dt
xd
dt
yd
dt
dx
dx
yd
=
=
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Derivative Table

dx

dv

dx

du (u v) dx

d ± = ±

dx

du (cu) c dx

d

dx

du v dx

dv (uv) u dx

d = +

dx

dv wu dx

du vw dx

dw (uvw) uv dx

d = + +

v

dx

dv u dx

du v

v

u

dx

d

6. (Chain rule) If y = f(u) is differentiable on u = g(x) and u = g(x) is differentiable

on point x, then the composite function y = f(g(x)) is differentiable and

dx

du

du

dy

dx

dy

7. (Chain rule)

dx

dw

dw

du

du

dy

dx

dy

8. (Inverse function) If y = f(x) has a non-zero derivative at x and the inverse function

x = f

  • (y) is continuous at corresponding point y, then x = f - (y) is differentiable and:

dx

dy

dy

dx

9. (Parametric equation) For the equation , f(t) and g(t) are differentiable

and f’(t) ≠ 0, then

y g(t )

x f(t)

dt

dx

dt

dy

dx

dy =.

10. (Parametric equation)

(^33)

2

2

2

2

2

2

(x')

x'y'' x''y'

dt

dx

dt

dy

dt

d x

dt

d y

dt

dx

dx

d y −

dx

dc

n n 1 x nx dx

d (^) −

2 x

x dx

d

2 x

x

dx

d =− 

n n 1 x

n

x

dx

d =− + 

n n 1

n

n x

x dx

d

x x e e dx

d

18. a a lna dx

d (^) x x

19. x x ( 1 lnx) dx

d (^) x x = +

x

lnx dx

d

xlna

log x dx

d a =

x

loge x

logx dx

d = ≈

23. sinx cosx dx

d

24. cosx sinx dx

d =−

25. tanx sec x dx

d (^2)

26. secx secxtanx dx

d

27. cotx csc x dx

d (^2) = −

28. cscx cscxcotx dx

d =−

2

1

1 x

sin x dx

d

2

1

1 x

cos x dx

d

1

1 x

tan x dx

d

x x 1

sec x dx

d

2

1

1

1 x

cot x dx

d

x x 1

csc x dx

d

2

1

35. sinhx coshx dx

d

36. coshx sinhx dx

d

37. tanhx sechx dx

d (^2)

38. cothx csch x dx

d (^2) = −

39. sechx sechxtanhx dx

d =−

40. cschx cschxcothx dx

d =−

2

1 2

1 x

lnx 1 x dx

d sinh x dx

d

42. (^ )^ , x^1

x 1

1 lnx x 1 dx

d cosh x dx

d 2

1 2 > −

= + − =±

43. (^) , x 1 1 x

1 x

1 x ln 2

dx

d tanh x dx

d 2

1 < −

44. , x 1 x 1

1

x 1

x 1 ln 2

1

dx

d coth x dx

d 2

1 > −

=− 

  

=

45. (^) , x 1 x 1 x

sech x dx

d

2

1 < −

x x 1

csch x dx

d

2

1

47. ln(sinhx) cothx dx

d = , ln(coshx) tanhx dx

d