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The LIATE Rule
The LIATE Rule
The difficulty of integration by parts is in choosing u(x) and v (x)
correctly.
The LIATE Rule
The difficulty of integration by parts is in choosing u(x) and v (x)
correctly.
The LIATE rule is a rule of thumb that tells you which function
you should choose as u(x):
The LIATE Rule
The difficulty of integration by parts is in choosing u(x) and v (x)
correctly.
The LIATE rule is a rule of thumb that tells you which function
you should choose as u(x):
LIATE
The LIATE Rule
The difficulty of integration by parts is in choosing u(x) and v (x)
correctly.
The LIATE rule is a rule of thumb that tells you which function
you should choose as u(x):
L
Log
IATE
The LIATE Rule
The difficulty of integration by parts is in choosing u(x) and v (x)
correctly.
The LIATE rule is a rule of thumb that tells you which function
you should choose as u(x):
L I
Inv. Trig
ATE
The LIATE Rule
The difficulty of integration by parts is in choosing u(x) and v (x)
correctly.
The LIATE rule is a rule of thumb that tells you which function
you should choose as u(x):
LI A
Algebraic
TE
The LIATE Rule
The difficulty of integration by parts is in choosing u(x) and v (x)
correctly.
The LIATE rule is a rule of thumb that tells you which function
you should choose as u(x):
LIA T
Trig
E
The LIATE Rule
The difficulty of integration by parts is in choosing u(x) and v (x)
correctly.
The LIATE rule is a rule of thumb that tells you which function
you should choose as u(x):
LIAT E
Exp
The LIATE Rule
The difficulty of integration by parts is in choosing u(x) and v (x)
correctly.
The LIATE rule is a rule of thumb that tells you which function
you should choose as u(x):
LIATE
The LIATE Rule
The difficulty of integration by parts is in choosing u(x) and v (x)
correctly.
The LIATE rule is a rule of thumb that tells you which function
you should choose as u(x):
LIATE
The word itself tells you in which order of priority you should use
u(x).
Example 1
Example 1
x sin xdx
Example 1
x sin xdx
Here we have an algebraic and a trigonometric function:
Example 1
x sin xdx
Here we have an algebraic and a trigonometric function:
x sin xdx
Example 1
x sin xdx
Here we have an algebraic and a trigonometric function:
 
A
x sin xdx
Example 1
x sin xdx
Here we have an algebraic and a trigonometric function:
x$$$XT
sin xdx
Example 1
x sin xdx
Here we have an algebraic and a trigonometric function:
x sin xdx
Example 1
x sin xdx
Here we have an algebraic and a trigonometric function:
x sin xdx
According to LIATE, the A comes before the T, so we choose
u(x) = x.
Example 2
Example 2
ex
sin xdx
Example 2
ex
sin xdx
In this case we have E and T:
Example 2
ex
sin xdx
In this case we have E and T:
b
E
ex
sin xdx
Example 2
ex
sin xdx
In this case we have E and T:
ex$$$XT
sin xdx
Example 2
ex
sin xdx
In this case we have E and T:
ex
sin xdx
Example 2
ex
sin xdx
In this case we have E and T:
ex
sin xdx
According to LIATE, the T comes before the E, so we choose
u(x) = sin x.
Example 2
ex
sin xdx
In this case we have E and T:
ex
sin xdx
According to LIATE, the T comes before the E, so we choose
u(x) = sin x.
Let’s solve this integral to show that this works:
Example 2
ex
sin xdx
In this case we have E and T:
ex
sin xdx
According to LIATE, the T comes before the E, so we choose
u(x) = sin x.
Let’s solve this integral to show that this works:
u(x) = sin x
Example 2
ex
sin xdx
In this case we have E and T:
ex
sin xdx
According to LIATE, the T comes before the E, so we choose
u(x) = sin x.
Let’s solve this integral to show that this works:
u(x) = sin x v (x) = ex
Example 2
ex
sin xdx
In this case we have E and T:
ex
sin xdx
According to LIATE, the T comes before the E, so we choose
u(x) = sin x.
Let’s solve this integral to show that this works:
u(x) = sin x v (x) = ex
u (x) = cos x
Example 2
ex
sin xdx
In this case we have E and T:
ex
sin xdx
According to LIATE, the T comes before the E, so we choose
u(x) = sin x.
Let’s solve this integral to show that this works:
u(x) = sin x v (x) = ex
u (x) = cos x v(x) = ex
Example 2
ex
sin xdx
In this case we have E and T:
ex
sin xdx
According to LIATE, the T comes before the E, so we choose
u(x) = sin x.
Let’s solve this integral to show that this works:
u(x) = sin x v (x) = ex
u (x) = cos x v(x) = ex
ex
sin xdx = ex
sin x − ex
cos xdx
Example 2
ex
sin xdx
In this case we have E and T:
ex
sin xdx
According to LIATE, the T comes before the E, so we choose
u(x) = sin x.
Let’s solve this integral to show that this works:
u(x) = sin x v (x) = ex
u (x) = cos x v(x) = ex
b
v (x)
ex
sin xdx = ex
sin x − ex
cos xdx
Example 2
ex
sin xdx
In this case we have E and T:
ex
sin xdx
According to LIATE, the T comes before the E, so we choose
u(x) = sin x.
Let’s solve this integral to show that this works:
u(x) = sin x v (x) = ex
u (x) = cos x v(x) = ex
ex$$$Xu(x)
sin xdx = ex
sin x − ex
cos xdx
Example 2
ex
sin xdx
In this case we have E and T:
ex
sin xdx
According to LIATE, the T comes before the E, so we choose
u(x) = sin x.
Let’s solve this integral to show that this works:
u(x) = sin x v (x) = ex
u (x) = cos x v(x) = ex
ex
sin xdx = b
v(x)
ex
sin x − ex
cos xdx
Example 2
ex
sin xdx
In this case we have E and T:
ex
sin xdx
According to LIATE, the T comes before the E, so we choose
u(x) = sin x.
Let’s solve this integral to show that this works:
u(x) = sin x v (x) = ex
u (x) = cos x v(x) = ex
ex
sin xdx = ex$$$Xu(x)
sin x − ex
cos xdx
Example 2
ex
sin xdx
In this case we have E and T:
ex
sin xdx
According to LIATE, the T comes before the E, so we choose
u(x) = sin x.
Let’s solve this integral to show that this works:
u(x) = sin x v (x) = ex
u (x) = cos x v(x) = ex
ex
sin xdx = ex
sin x − b
v(x)
ex
cos xdx
Example 2
ex
sin xdx
In this case we have E and T:
ex
sin xdx
According to LIATE, the T comes before the E, so we choose
u(x) = sin x.
Let’s solve this integral to show that this works:
u(x) = sin x v (x) = ex
u (x) = cos x v(x) = ex
ex
sin xdx = ex
sin x − ex
$$$Xu (x)
cos xdx
Example 2
ex
sin xdx
In this case we have E and T:
ex
sin xdx
According to LIATE, the T comes before the E, so we choose
u(x) = sin x.
Let’s solve this integral to show that this works:
u(x) = sin x v (x) = ex
u (x) = cos x v(x) = ex
ex
sin xdx = ex
sin x − ex
cos xdx
Example 2
Example 2
Now we need to solve that integral:
Example 2
Now we need to solve that integral:
ex
sin xdx = ex
sin x − ex
cos xdx
Example 2
Now we need to solve that integral:
ex
sin xdx = ex
sin x − ex
cos xdx
We need to use integration by parts again.
Example 2
Now we need to solve that integral:
ex
sin xdx = ex
sin x − ex
cos xdx
We need to use integration by parts again.
By using LIATE, we choose u(x) = cos x:
Example 2
Now we need to solve that integral:
ex
sin xdx = ex
sin x − ex
cos xdx
We need to use integration by parts again.
By using LIATE, we choose u(x) = cos x:
u(x) = cos x
Example 2
Now we need to solve that integral:
ex
sin xdx = ex
sin x − ex
cos xdx
We need to use integration by parts again.
By using LIATE, we choose u(x) = cos x:
u(x) = cos x v (x) = ex
Example 2
Now we need to solve that integral:
ex
sin xdx = ex
sin x − ex
cos xdx
We need to use integration by parts again.
By using LIATE, we choose u(x) = cos x:
u(x) = cos x v (x) = ex
u (x) = − sin x
Example 2
Now we need to solve that integral:
ex
sin xdx = ex
sin x − ex
cos xdx
We need to use integration by parts again.
By using LIATE, we choose u(x) = cos x:
u(x) = cos x v (x) = ex
u (x) = − sin x v(x) = ex
Example 2
Now we need to solve that integral:
ex
sin xdx = ex
sin x − ex
cos xdx
We need to use integration by parts again.
By using LIATE, we choose u(x) = cos x:
u(x) = cos x v (x) = ex
u (x) = − sin x v(x) = ex
ex
sin xdx = ex
sin x − ex
cos xdx
Example 2
Now we need to solve that integral:
ex
sin xdx = ex
sin x − ex
cos xdx
We need to use integration by parts again.
By using LIATE, we choose u(x) = cos x:
u(x) = cos x v (x) = ex
u (x) = − sin x v(x) = ex
ex
sin xdx = ex
sin x − b
v (x)
ex
cos xdx
Example 2
Now we need to solve that integral:
ex
sin xdx = ex
sin x − ex
cos xdx
We need to use integration by parts again.
By using LIATE, we choose u(x) = cos x:
u(x) = cos x v (x) = ex
u (x) = − sin x v(x) = ex
ex
sin xdx = ex
sin x − ex
$$$Xu(x)
cos xdx
Example 2
Now we need to solve that integral:
ex
sin xdx = ex
sin x − ex
cos xdx
We need to use integration by parts again.
By using LIATE, we choose u(x) = cos x:
u(x) = cos x v (x) = ex
u (x) = − sin x v(x) = ex
ex
sin xdx = ex
sin x − ex
cos xdx
Example 2
Now we need to solve that integral:
ex
sin xdx = ex
sin x − ex
cos xdx
We need to use integration by parts again.
By using LIATE, we choose u(x) = cos x:
u(x) = cos x v (x) = ex
u (x) = − sin x v(x) = ex
ex
sin xdx = ex
sin x − ex
cos xdx
= ex
sin x − ex
cos x − ex
(− sin x) dx
Example 2
Now we need to solve that integral:
ex
sin xdx = ex
sin x − ex
cos xdx
We need to use integration by parts again.
By using LIATE, we choose u(x) = cos x:
u(x) = cos x v (x) = ex
u (x) = − sin x v(x) = ex
ex
sin xdx = ex
sin x − ex
cos xdx
= ex
sin x − b
v(x)
ex
cos x − ex
(− sin x) dx
Example 2
Now we need to solve that integral:
ex
sin xdx = ex
sin x − ex
cos xdx
We need to use integration by parts again.
By using LIATE, we choose u(x) = cos x:
u(x) = cos x v (x) = ex
u (x) = − sin x v(x) = ex
ex
sin xdx = ex
sin x − ex
cos xdx
= ex
sin x − ex
$$$Xu(x)
cos x − ex
(− sin x) dx
Example 2
Now we need to solve that integral:
ex
sin xdx = ex
sin x − ex
cos xdx
We need to use integration by parts again.
By using LIATE, we choose u(x) = cos x:
u(x) = cos x v (x) = ex
u (x) = − sin x v(x) = ex
ex
sin xdx = ex
sin x − ex
cos xdx
= ex
sin x − ex
cos x − b
v(x)
ex
(− sin x) dx
Example 2
Now we need to solve that integral:
ex
sin xdx = ex
sin x − ex
cos xdx
We need to use integration by parts again.
By using LIATE, we choose u(x) = cos x:
u(x) = cos x v (x) = ex
u (x) = − sin x v(x) = ex
ex
sin xdx = ex
sin x − ex
cos xdx
= ex
sin x − ex
cos x − ex
$$$$$Xu (x)
(− sin x)dx
Example 2
Now we need to solve that integral:
ex
sin xdx = ex
sin x − ex
cos xdx
We need to use integration by parts again.
By using LIATE, we choose u(x) = cos x:
u(x) = cos x v (x) = ex
u (x) = − sin x v(x) = ex
ex
sin xdx = ex
sin x − ex
cos xdx
= ex
sin x − ex
cos x − ex
(− sin x) dx
Example 2
Example 2
So, we have that:
Example 2
So, we have that:
ex
sin xdx = ex
sin x − ex
cos x − ex
sin xdx
Example 2
So, we have that:
ex
sin xdx
!!
= ex
sin x − ex
cos x − ex
sin xdx
!!
Example 2
So, we have that:
ex
sin xdx
!!
= ex
sin x − ex
cos x − ex
sin xdx
!!
So, we add ex sin xdx to both sides of the equation:
Example 2
So, we have that:
ex
sin xdx
!!
= ex
sin x − ex
cos x − ex
sin xdx
!!
So, we add ex sin xdx to both sides of the equation:
2 ex
sin xdx = ex
(sin x − cos x)
Example 2
So, we have that:
ex
sin xdx
!!
= ex
sin x − ex
cos x − ex
sin xdx
!!
So, we add ex sin xdx to both sides of the equation:
2 ex
sin xdx = ex
(sin x − cos x)
ex
sin xdx =
ex
2
(sin x − cos x) + C
Example 2
So, we have that:
ex
sin xdx
!!
= ex
sin x − ex
cos x − ex
sin xdx
!!
So, we add ex sin xdx to both sides of the equation:
2 ex
sin xdx = ex
(sin x − cos x)
ex
sin xdx =
ex
2
(sin x − cos x) + C
This is in fact an example of Trick number 2.
Example 3
Example 3
Let’s do another example:
Example 3
Let’s do another example:
x2
ex
dx
Example 3
Let’s do another example:
x2
ex
dx
We have an A and an E:
Example 3
Let’s do another example:
x2
ex
dx
We have an A and an E:
  
A
x2
ex
dx
Example 3
Let’s do another example:
x2
ex
dx
We have an A and an E:
x2
b
E
ex
dx
Example 3
Let’s do another example:
x2
ex
dx
We have an A and an E:
x2
ex
dx
Example 3
Let’s do another example:
x2
ex
dx
We have an A and an E:
x2
ex
dx
LIATE says that the A comes before the E. So, we choose
u(x) = x2:
Example 3
Let’s do another example:
x2
ex
dx
We have an A and an E:
x2
ex
dx
LIATE says that the A comes before the E. So, we choose
u(x) = x2:
u(x) = x2
Example 3
Let’s do another example:
x2
ex
dx
We have an A and an E:
x2
ex
dx
LIATE says that the A comes before the E. So, we choose
u(x) = x2:
u(x) = x2 v (x) = ex
Example 3
Let’s do another example:
x2
ex
dx
We have an A and an E:
x2
ex
dx
LIATE says that the A comes before the E. So, we choose
u(x) = x2:
u(x) = x2 v (x) = ex
u (x) = 2x
Example 3
Let’s do another example:
x2
ex
dx
We have an A and an E:
x2
ex
dx
LIATE says that the A comes before the E. So, we choose
u(x) = x2:
u(x) = x2 v (x) = ex
u (x) = 2x v(x) = ex
Example 3
Let’s do another example:
x2
ex
dx
We have an A and an E:
x2
ex
dx
LIATE says that the A comes before the E. So, we choose
u(x) = x2:
u(x) = x2 v (x) = ex
u (x) = 2x v(x) = ex
x2
ex
dx =
Example 3
Let’s do another example:
x2
ex
dx
We have an A and an E:
x2
ex
dx
LIATE says that the A comes before the E. So, we choose
u(x) = x2:
u(x) = x2 v (x) = ex
u (x) = 2x v(x) = ex
  
u(x)
x2
ex
dx =
Example 3
Let’s do another example:
x2
ex
dx
We have an A and an E:
x2
ex
dx
LIATE says that the A comes before the E. So, we choose
u(x) = x2:
u(x) = x2 v (x) = ex
u (x) = 2x v(x) = ex
x2
b
v (x)
ex
dx =
Example 3
Let’s do another example:
x2
ex
dx
We have an A and an E:
x2
ex
dx
LIATE says that the A comes before the E. So, we choose
u(x) = x2:
u(x) = x2 v (x) = ex
u (x) = 2x v(x) = ex
x2
ex
dx = x2
ex
− 2xex
dx
Example 3
Let’s do another example:
x2
ex
dx
We have an A and an E:
x2
ex
dx
LIATE says that the A comes before the E. So, we choose
u(x) = x2:
u(x) = x2 v (x) = ex
u (x) = 2x v(x) = ex
x2
ex
dx =   
u(x)
x2
ex
− 2xex
dx
Example 3
Let’s do another example:
x2
ex
dx
We have an A and an E:
x2
ex
dx
LIATE says that the A comes before the E. So, we choose
u(x) = x2:
u(x) = x2 v (x) = ex
u (x) = 2x v(x) = ex
x2
ex
dx = x2
b
v(x)
ex
− 2xex
dx
Example 3
Let’s do another example:
x2
ex
dx
We have an A and an E:
x2
ex
dx
LIATE says that the A comes before the E. So, we choose
u(x) = x2:
u(x) = x2 v (x) = ex
u (x) = 2x v(x) = ex
x2
ex
dx = x2
ex
− b
u (x)
2xex
dx
Example 3
Let’s do another example:
x2
ex
dx
We have an A and an E:
x2
ex
dx
LIATE says that the A comes before the E. So, we choose
u(x) = x2:
u(x) = x2 v (x) = ex
u (x) = 2x v(x) = ex
x2
ex
dx = x2
ex
− 2xb
v(x)
ex
dx
Example 3
Let’s do another example:
x2
ex
dx
We have an A and an E:
x2
ex
dx
LIATE says that the A comes before the E. So, we choose
u(x) = x2:
u(x) = x2 v (x) = ex
u (x) = 2x v(x) = ex
x2
ex
dx = x2
ex
− 2xex
dx
Example 3
Example 3
x2
ex
dx = x2
ex
− 2 xex
dx
Example 3
x2
ex
dx = x2
ex
− 2 xex
dx
Now we need to solve that integral by integration by parts again:
Example 3
x2
ex
dx = x2
ex
− 2 xex
dx
Now we need to solve that integral by integration by parts again:
u(x) = x
Example 3
x2
ex
dx = x2
ex
− 2 xex
dx
Now we need to solve that integral by integration by parts again:
u(x) = x v (x) = ex
Example 3
x2
ex
dx = x2
ex
− 2 xex
dx
Now we need to solve that integral by integration by parts again:
u(x) = x v (x) = ex
u (x) = 1
Example 3
x2
ex
dx = x2
ex
− 2 xex
dx
Now we need to solve that integral by integration by parts again:
u(x) = x v (x) = ex
u (x) = 1 v(x) = ex
Example 3
x2
ex
dx = x2
ex
− 2 xex
dx
Now we need to solve that integral by integration by parts again:
u(x) = x v (x) = ex
u (x) = 1 v(x) = ex
x2
ex
dx = x2
ex
− 2 xex
− 1.ex
dx
Example 3
x2
ex
dx = x2
ex
− 2 xex
dx
Now we need to solve that integral by integration by parts again:
u(x) = x v (x) = ex
u (x) = 1 v(x) = ex
x2
ex
dx = x2
ex
− 2 xex
− 1.ex
dx
= x2
ex
− 2xex
+ 2ex
= ex
x2
− 2x + 2
Example 3
x2
ex
dx = x2
ex
− 2 xex
dx
Now we need to solve that integral by integration by parts again:
u(x) = x v (x) = ex
u (x) = 1 v(x) = ex
x2
ex
dx = x2
ex
− 2 xex
− 1.ex
dx
= x2
ex
− 2xex
+ 2ex
= ex
x2
− 2x + 2
Integration by Parts, Part 3

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Integration by Parts, Part 3

  • 1.
  • 2.
  • 4. The LIATE Rule The difficulty of integration by parts is in choosing u(x) and v (x) correctly.
  • 5. The LIATE Rule The difficulty of integration by parts is in choosing u(x) and v (x) correctly. The LIATE rule is a rule of thumb that tells you which function you should choose as u(x):
  • 6. The LIATE Rule The difficulty of integration by parts is in choosing u(x) and v (x) correctly. The LIATE rule is a rule of thumb that tells you which function you should choose as u(x): LIATE
  • 7. The LIATE Rule The difficulty of integration by parts is in choosing u(x) and v (x) correctly. The LIATE rule is a rule of thumb that tells you which function you should choose as u(x): L Log IATE
  • 8. The LIATE Rule The difficulty of integration by parts is in choosing u(x) and v (x) correctly. The LIATE rule is a rule of thumb that tells you which function you should choose as u(x): L I Inv. Trig ATE
  • 9. The LIATE Rule The difficulty of integration by parts is in choosing u(x) and v (x) correctly. The LIATE rule is a rule of thumb that tells you which function you should choose as u(x): LI A Algebraic TE
  • 10. The LIATE Rule The difficulty of integration by parts is in choosing u(x) and v (x) correctly. The LIATE rule is a rule of thumb that tells you which function you should choose as u(x): LIA T Trig E
  • 11. The LIATE Rule The difficulty of integration by parts is in choosing u(x) and v (x) correctly. The LIATE rule is a rule of thumb that tells you which function you should choose as u(x): LIAT E Exp
  • 12. The LIATE Rule The difficulty of integration by parts is in choosing u(x) and v (x) correctly. The LIATE rule is a rule of thumb that tells you which function you should choose as u(x): LIATE
  • 13. The LIATE Rule The difficulty of integration by parts is in choosing u(x) and v (x) correctly. The LIATE rule is a rule of thumb that tells you which function you should choose as u(x): LIATE The word itself tells you in which order of priority you should use u(x).
  • 16. Example 1 x sin xdx Here we have an algebraic and a trigonometric function:
  • 17. Example 1 x sin xdx Here we have an algebraic and a trigonometric function: x sin xdx
  • 18. Example 1 x sin xdx Here we have an algebraic and a trigonometric function:   A x sin xdx
  • 19. Example 1 x sin xdx Here we have an algebraic and a trigonometric function: x$$$XT sin xdx
  • 20. Example 1 x sin xdx Here we have an algebraic and a trigonometric function: x sin xdx
  • 21. Example 1 x sin xdx Here we have an algebraic and a trigonometric function: x sin xdx According to LIATE, the A comes before the T, so we choose u(x) = x.
  • 24. Example 2 ex sin xdx In this case we have E and T:
  • 25. Example 2 ex sin xdx In this case we have E and T: b E ex sin xdx
  • 26. Example 2 ex sin xdx In this case we have E and T: ex$$$XT sin xdx
  • 27. Example 2 ex sin xdx In this case we have E and T: ex sin xdx
  • 28. Example 2 ex sin xdx In this case we have E and T: ex sin xdx According to LIATE, the T comes before the E, so we choose u(x) = sin x.
  • 29. Example 2 ex sin xdx In this case we have E and T: ex sin xdx According to LIATE, the T comes before the E, so we choose u(x) = sin x. Let’s solve this integral to show that this works:
  • 30. Example 2 ex sin xdx In this case we have E and T: ex sin xdx According to LIATE, the T comes before the E, so we choose u(x) = sin x. Let’s solve this integral to show that this works: u(x) = sin x
  • 31. Example 2 ex sin xdx In this case we have E and T: ex sin xdx According to LIATE, the T comes before the E, so we choose u(x) = sin x. Let’s solve this integral to show that this works: u(x) = sin x v (x) = ex
  • 32. Example 2 ex sin xdx In this case we have E and T: ex sin xdx According to LIATE, the T comes before the E, so we choose u(x) = sin x. Let’s solve this integral to show that this works: u(x) = sin x v (x) = ex u (x) = cos x
  • 33. Example 2 ex sin xdx In this case we have E and T: ex sin xdx According to LIATE, the T comes before the E, so we choose u(x) = sin x. Let’s solve this integral to show that this works: u(x) = sin x v (x) = ex u (x) = cos x v(x) = ex
  • 34. Example 2 ex sin xdx In this case we have E and T: ex sin xdx According to LIATE, the T comes before the E, so we choose u(x) = sin x. Let’s solve this integral to show that this works: u(x) = sin x v (x) = ex u (x) = cos x v(x) = ex ex sin xdx = ex sin x − ex cos xdx
  • 35. Example 2 ex sin xdx In this case we have E and T: ex sin xdx According to LIATE, the T comes before the E, so we choose u(x) = sin x. Let’s solve this integral to show that this works: u(x) = sin x v (x) = ex u (x) = cos x v(x) = ex b v (x) ex sin xdx = ex sin x − ex cos xdx
  • 36. Example 2 ex sin xdx In this case we have E and T: ex sin xdx According to LIATE, the T comes before the E, so we choose u(x) = sin x. Let’s solve this integral to show that this works: u(x) = sin x v (x) = ex u (x) = cos x v(x) = ex ex$$$Xu(x) sin xdx = ex sin x − ex cos xdx
  • 37. Example 2 ex sin xdx In this case we have E and T: ex sin xdx According to LIATE, the T comes before the E, so we choose u(x) = sin x. Let’s solve this integral to show that this works: u(x) = sin x v (x) = ex u (x) = cos x v(x) = ex ex sin xdx = b v(x) ex sin x − ex cos xdx
  • 38. Example 2 ex sin xdx In this case we have E and T: ex sin xdx According to LIATE, the T comes before the E, so we choose u(x) = sin x. Let’s solve this integral to show that this works: u(x) = sin x v (x) = ex u (x) = cos x v(x) = ex ex sin xdx = ex$$$Xu(x) sin x − ex cos xdx
  • 39. Example 2 ex sin xdx In this case we have E and T: ex sin xdx According to LIATE, the T comes before the E, so we choose u(x) = sin x. Let’s solve this integral to show that this works: u(x) = sin x v (x) = ex u (x) = cos x v(x) = ex ex sin xdx = ex sin x − b v(x) ex cos xdx
  • 40. Example 2 ex sin xdx In this case we have E and T: ex sin xdx According to LIATE, the T comes before the E, so we choose u(x) = sin x. Let’s solve this integral to show that this works: u(x) = sin x v (x) = ex u (x) = cos x v(x) = ex ex sin xdx = ex sin x − ex $$$Xu (x) cos xdx
  • 41. Example 2 ex sin xdx In this case we have E and T: ex sin xdx According to LIATE, the T comes before the E, so we choose u(x) = sin x. Let’s solve this integral to show that this works: u(x) = sin x v (x) = ex u (x) = cos x v(x) = ex ex sin xdx = ex sin x − ex cos xdx
  • 43. Example 2 Now we need to solve that integral:
  • 44. Example 2 Now we need to solve that integral: ex sin xdx = ex sin x − ex cos xdx
  • 45. Example 2 Now we need to solve that integral: ex sin xdx = ex sin x − ex cos xdx We need to use integration by parts again.
  • 46. Example 2 Now we need to solve that integral: ex sin xdx = ex sin x − ex cos xdx We need to use integration by parts again. By using LIATE, we choose u(x) = cos x:
  • 47. Example 2 Now we need to solve that integral: ex sin xdx = ex sin x − ex cos xdx We need to use integration by parts again. By using LIATE, we choose u(x) = cos x: u(x) = cos x
  • 48. Example 2 Now we need to solve that integral: ex sin xdx = ex sin x − ex cos xdx We need to use integration by parts again. By using LIATE, we choose u(x) = cos x: u(x) = cos x v (x) = ex
  • 49. Example 2 Now we need to solve that integral: ex sin xdx = ex sin x − ex cos xdx We need to use integration by parts again. By using LIATE, we choose u(x) = cos x: u(x) = cos x v (x) = ex u (x) = − sin x
  • 50. Example 2 Now we need to solve that integral: ex sin xdx = ex sin x − ex cos xdx We need to use integration by parts again. By using LIATE, we choose u(x) = cos x: u(x) = cos x v (x) = ex u (x) = − sin x v(x) = ex
  • 51. Example 2 Now we need to solve that integral: ex sin xdx = ex sin x − ex cos xdx We need to use integration by parts again. By using LIATE, we choose u(x) = cos x: u(x) = cos x v (x) = ex u (x) = − sin x v(x) = ex ex sin xdx = ex sin x − ex cos xdx
  • 52. Example 2 Now we need to solve that integral: ex sin xdx = ex sin x − ex cos xdx We need to use integration by parts again. By using LIATE, we choose u(x) = cos x: u(x) = cos x v (x) = ex u (x) = − sin x v(x) = ex ex sin xdx = ex sin x − b v (x) ex cos xdx
  • 53. Example 2 Now we need to solve that integral: ex sin xdx = ex sin x − ex cos xdx We need to use integration by parts again. By using LIATE, we choose u(x) = cos x: u(x) = cos x v (x) = ex u (x) = − sin x v(x) = ex ex sin xdx = ex sin x − ex $$$Xu(x) cos xdx
  • 54. Example 2 Now we need to solve that integral: ex sin xdx = ex sin x − ex cos xdx We need to use integration by parts again. By using LIATE, we choose u(x) = cos x: u(x) = cos x v (x) = ex u (x) = − sin x v(x) = ex ex sin xdx = ex sin x − ex cos xdx
  • 55. Example 2 Now we need to solve that integral: ex sin xdx = ex sin x − ex cos xdx We need to use integration by parts again. By using LIATE, we choose u(x) = cos x: u(x) = cos x v (x) = ex u (x) = − sin x v(x) = ex ex sin xdx = ex sin x − ex cos xdx = ex sin x − ex cos x − ex (− sin x) dx
  • 56. Example 2 Now we need to solve that integral: ex sin xdx = ex sin x − ex cos xdx We need to use integration by parts again. By using LIATE, we choose u(x) = cos x: u(x) = cos x v (x) = ex u (x) = − sin x v(x) = ex ex sin xdx = ex sin x − ex cos xdx = ex sin x − b v(x) ex cos x − ex (− sin x) dx
  • 57. Example 2 Now we need to solve that integral: ex sin xdx = ex sin x − ex cos xdx We need to use integration by parts again. By using LIATE, we choose u(x) = cos x: u(x) = cos x v (x) = ex u (x) = − sin x v(x) = ex ex sin xdx = ex sin x − ex cos xdx = ex sin x − ex $$$Xu(x) cos x − ex (− sin x) dx
  • 58. Example 2 Now we need to solve that integral: ex sin xdx = ex sin x − ex cos xdx We need to use integration by parts again. By using LIATE, we choose u(x) = cos x: u(x) = cos x v (x) = ex u (x) = − sin x v(x) = ex ex sin xdx = ex sin x − ex cos xdx = ex sin x − ex cos x − b v(x) ex (− sin x) dx
  • 59. Example 2 Now we need to solve that integral: ex sin xdx = ex sin x − ex cos xdx We need to use integration by parts again. By using LIATE, we choose u(x) = cos x: u(x) = cos x v (x) = ex u (x) = − sin x v(x) = ex ex sin xdx = ex sin x − ex cos xdx = ex sin x − ex cos x − ex $$$$$Xu (x) (− sin x)dx
  • 60. Example 2 Now we need to solve that integral: ex sin xdx = ex sin x − ex cos xdx We need to use integration by parts again. By using LIATE, we choose u(x) = cos x: u(x) = cos x v (x) = ex u (x) = − sin x v(x) = ex ex sin xdx = ex sin x − ex cos xdx = ex sin x − ex cos x − ex (− sin x) dx
  • 62. Example 2 So, we have that:
  • 63. Example 2 So, we have that: ex sin xdx = ex sin x − ex cos x − ex sin xdx
  • 64. Example 2 So, we have that: ex sin xdx !! = ex sin x − ex cos x − ex sin xdx !!
  • 65. Example 2 So, we have that: ex sin xdx !! = ex sin x − ex cos x − ex sin xdx !! So, we add ex sin xdx to both sides of the equation:
  • 66. Example 2 So, we have that: ex sin xdx !! = ex sin x − ex cos x − ex sin xdx !! So, we add ex sin xdx to both sides of the equation: 2 ex sin xdx = ex (sin x − cos x)
  • 67. Example 2 So, we have that: ex sin xdx !! = ex sin x − ex cos x − ex sin xdx !! So, we add ex sin xdx to both sides of the equation: 2 ex sin xdx = ex (sin x − cos x) ex sin xdx = ex 2 (sin x − cos x) + C
  • 68. Example 2 So, we have that: ex sin xdx !! = ex sin x − ex cos x − ex sin xdx !! So, we add ex sin xdx to both sides of the equation: 2 ex sin xdx = ex (sin x − cos x) ex sin xdx = ex 2 (sin x − cos x) + C This is in fact an example of Trick number 2.
  • 70. Example 3 Let’s do another example:
  • 71. Example 3 Let’s do another example: x2 ex dx
  • 72. Example 3 Let’s do another example: x2 ex dx We have an A and an E:
  • 73. Example 3 Let’s do another example: x2 ex dx We have an A and an E:    A x2 ex dx
  • 74. Example 3 Let’s do another example: x2 ex dx We have an A and an E: x2 b E ex dx
  • 75. Example 3 Let’s do another example: x2 ex dx We have an A and an E: x2 ex dx
  • 76. Example 3 Let’s do another example: x2 ex dx We have an A and an E: x2 ex dx LIATE says that the A comes before the E. So, we choose u(x) = x2:
  • 77. Example 3 Let’s do another example: x2 ex dx We have an A and an E: x2 ex dx LIATE says that the A comes before the E. So, we choose u(x) = x2: u(x) = x2
  • 78. Example 3 Let’s do another example: x2 ex dx We have an A and an E: x2 ex dx LIATE says that the A comes before the E. So, we choose u(x) = x2: u(x) = x2 v (x) = ex
  • 79. Example 3 Let’s do another example: x2 ex dx We have an A and an E: x2 ex dx LIATE says that the A comes before the E. So, we choose u(x) = x2: u(x) = x2 v (x) = ex u (x) = 2x
  • 80. Example 3 Let’s do another example: x2 ex dx We have an A and an E: x2 ex dx LIATE says that the A comes before the E. So, we choose u(x) = x2: u(x) = x2 v (x) = ex u (x) = 2x v(x) = ex
  • 81. Example 3 Let’s do another example: x2 ex dx We have an A and an E: x2 ex dx LIATE says that the A comes before the E. So, we choose u(x) = x2: u(x) = x2 v (x) = ex u (x) = 2x v(x) = ex x2 ex dx =
  • 82. Example 3 Let’s do another example: x2 ex dx We have an A and an E: x2 ex dx LIATE says that the A comes before the E. So, we choose u(x) = x2: u(x) = x2 v (x) = ex u (x) = 2x v(x) = ex    u(x) x2 ex dx =
  • 83. Example 3 Let’s do another example: x2 ex dx We have an A and an E: x2 ex dx LIATE says that the A comes before the E. So, we choose u(x) = x2: u(x) = x2 v (x) = ex u (x) = 2x v(x) = ex x2 b v (x) ex dx =
  • 84. Example 3 Let’s do another example: x2 ex dx We have an A and an E: x2 ex dx LIATE says that the A comes before the E. So, we choose u(x) = x2: u(x) = x2 v (x) = ex u (x) = 2x v(x) = ex x2 ex dx = x2 ex − 2xex dx
  • 85. Example 3 Let’s do another example: x2 ex dx We have an A and an E: x2 ex dx LIATE says that the A comes before the E. So, we choose u(x) = x2: u(x) = x2 v (x) = ex u (x) = 2x v(x) = ex x2 ex dx =    u(x) x2 ex − 2xex dx
  • 86. Example 3 Let’s do another example: x2 ex dx We have an A and an E: x2 ex dx LIATE says that the A comes before the E. So, we choose u(x) = x2: u(x) = x2 v (x) = ex u (x) = 2x v(x) = ex x2 ex dx = x2 b v(x) ex − 2xex dx
  • 87. Example 3 Let’s do another example: x2 ex dx We have an A and an E: x2 ex dx LIATE says that the A comes before the E. So, we choose u(x) = x2: u(x) = x2 v (x) = ex u (x) = 2x v(x) = ex x2 ex dx = x2 ex − b u (x) 2xex dx
  • 88. Example 3 Let’s do another example: x2 ex dx We have an A and an E: x2 ex dx LIATE says that the A comes before the E. So, we choose u(x) = x2: u(x) = x2 v (x) = ex u (x) = 2x v(x) = ex x2 ex dx = x2 ex − 2xb v(x) ex dx
  • 89. Example 3 Let’s do another example: x2 ex dx We have an A and an E: x2 ex dx LIATE says that the A comes before the E. So, we choose u(x) = x2: u(x) = x2 v (x) = ex u (x) = 2x v(x) = ex x2 ex dx = x2 ex − 2xex dx
  • 91. Example 3 x2 ex dx = x2 ex − 2 xex dx
  • 92. Example 3 x2 ex dx = x2 ex − 2 xex dx Now we need to solve that integral by integration by parts again:
  • 93. Example 3 x2 ex dx = x2 ex − 2 xex dx Now we need to solve that integral by integration by parts again: u(x) = x
  • 94. Example 3 x2 ex dx = x2 ex − 2 xex dx Now we need to solve that integral by integration by parts again: u(x) = x v (x) = ex
  • 95. Example 3 x2 ex dx = x2 ex − 2 xex dx Now we need to solve that integral by integration by parts again: u(x) = x v (x) = ex u (x) = 1
  • 96. Example 3 x2 ex dx = x2 ex − 2 xex dx Now we need to solve that integral by integration by parts again: u(x) = x v (x) = ex u (x) = 1 v(x) = ex
  • 97. Example 3 x2 ex dx = x2 ex − 2 xex dx Now we need to solve that integral by integration by parts again: u(x) = x v (x) = ex u (x) = 1 v(x) = ex x2 ex dx = x2 ex − 2 xex − 1.ex dx
  • 98. Example 3 x2 ex dx = x2 ex − 2 xex dx Now we need to solve that integral by integration by parts again: u(x) = x v (x) = ex u (x) = 1 v(x) = ex x2 ex dx = x2 ex − 2 xex − 1.ex dx = x2 ex − 2xex + 2ex = ex x2 − 2x + 2
  • 99. Example 3 x2 ex dx = x2 ex − 2 xex dx Now we need to solve that integral by integration by parts again: u(x) = x v (x) = ex u (x) = 1 v(x) = ex x2 ex dx = x2 ex − 2 xex − 1.ex dx = x2 ex − 2xex + 2ex = ex x2 − 2x + 2