The document discusses the eight laws of exponents: 1) Exponential form indicates how many times the base is multiplied by itself using the exponent. 2) When multiplying powers with the same base, add the exponents. 3) When dividing powers with the same base, subtract the exponents. 4) When raising a power to another power, multiply the exponents. 5) When taking a power of a product, apply the exponent to each factor. 6) When taking a power of a quotient, apply the exponent to the numerator and denominator. 7) A negative exponent changes the base to its reciprocal with a positive exponent. 8) Any base raised to the zero power equals one.

2. Exponents
 3
5
Power
base
exponent
3 3
means that is the exponential
form of t
Example:
he number
125 5 5
.
125

53 means 3 factors of 5 or 5 x 5 x 5

3. The Laws of Exponents:
#1: Exponential form: The exponent of a power indicates
how many times the base multiplies itself.
n
n times
x x x x x x x x

      
3
Example: 5 5 5 5
  
n factors of x

4. #2: Multiplying Powers: If you are multiplying Powers
with the same base, KEEP the BASE & ADD the EXPONENTS!
m n m n
x x x 
 
So, I get it!
When you
multiply
Powers, you
add the
exponents!
512
2
2
2
2 9
3
6
3
6



 

5. #3: Dividing Powers: When dividing Powers with the
same base, KEEP the BASE & SUBTRACT the EXPONENTS!
m
m n m n
n
x
x x x
x

  
So, I get it!
When you
divide
Powers, you
subtract the
exponents!
16
2
2
2
2 4
2
6
2
6


 

6. Try these:

 2
2
3
3
.
1

 4
2
5
5
.
2

 2
5
.
3 a
a

 7
2
4
2
.
4 s
s



 3
2
)
3
(
)
3
(
.
5

 3
7
4
2
.
6 t
s
t
s

4
12
.
7
s
s

5
9
3
3
.
8

4
4
8
12
.
9
t
s
t
s

5
4
8
5
4
36
.
10
b
a
b
a

7. 
 2
2
3
3
.
1

 4
2
5
5
.
2

 2
5
.
3 a
a

 7
2
4
2
.
4 s
s



 3
2
)
3
(
)
3
(
.
5

 3
7
4
2
.
6 t
s
t
s
81
3
3 4
2
2



7
2
5
a
a 

9
7
2
8
4
2 s
s 

 
SOLUTIONS
6
4
2
5
5 

243
)
3
(
)
3
( 5
3
2




 
7
9
3
4
7
2
t
s
t
s 



8. 
4
12
.
7
s
s

5
9
3
3
.
8

4
4
8
12
.
9
t
s
t
s

5
4
8
5
4
36
.
10
b
a
b
a
SOLUTIONS
8
4
12
s
s 

81
3
3 4
5
9



4
8
4
8
4
12
t
s
t
s 


3
5
8
4
5
9
4
36 ab
b
a 

 


9. #4: Power of a Power: If you are raising a Power to an
exponent, you multiply the exponents!
 
n
m mn
x x

So, when I
take a Power
to a power, I
multiply the
exponents
5
2
3
2
3
5
5
)
5
( 
 

10. #5: Product Law of Exponents: If the product of the
bases is powered by the same exponent, then the result is a
multiplication of individual factors of the product, each powered
by the given exponent.
 
n n n
xy x y
 
So, when I take
a Power of a
Product, I apply
the exponent to
all factors of
the product.
2
2
2
)
( b
a
ab 

11. #6: Quotient Law of Exponents: If the quotient of the
bases is powered by the same exponent, then the result is both
numerator and denominator , each powered by the given exponent.
n n
n
x x
y y
 

 
 
So, when I take a
Power of a
Quotient, I apply
the exponent to
all parts of the
quotient.
81
16
3
2
3
2
4
4
4









12. Try these:
  
5
2
3
.
1
  
4
3
.
2 a
  
3
2
2
.
3 a
  
2
3
5
2
2
.
4 b
a

 2
2
)
3
(
.
5 a
  
3
4
2
.
6 t
s







5
.
7
t
s









2
5
9
3
3
.
8









2
4
8
.
9
rt
st









2
5
4
8
5
4
36
.
10
b
a
b
a

13.   
5
2
3
.
1
  
4
3
.
2 a
  
3
2
2
.
3 a
  
2
3
5
2
2
.
4 b
a

 2
2
)
3
(
.
5 a
  
3
4
2
.
6 t
s
SOLUTIONS
10
3
12
a
6
3
2
3
8
2 a
a 

6
10
6
10
4
2
3
2
5
2
2
16
2
2 b
a
b
a
b
a 




  4
2
2
2
9
3 a
a 

 
12
6
3
4
3
2
t
s
t
s 



14. 






5
.
7
t
s









2
5
9
3
3
.
8









2
4
8
.
9
rt
st









2
5
4
8
5
4
36
10
b
a
b
a
SOLUTIONS
  6
2
2
3
2
2
2
3
81
9
9 b
a
b
a
ab 
 
2
8
2
2
4
r
t
s
r
st









  8
2
4
3
3 
5
5
t
s

15. #7: Negative Law of Exponents: If the base is powered
by the negative exponent, then the base becomes reciprocal with the
positive exponent.
1
m
m
x
x


So, when I have a
Negative Exponent, I
switch the base to its
reciprocal with a
Positive Exponent.
Ha Ha!
If the base with the
negative exponent is in
the denominator, it
moves to the
numerator to lose its
negative sign!
9
3
3
1
125
1
5
1
5
2
2
3
3






and

16. #8: Zero Law of Exponents: Any base powered by zero
exponent equals one.
0
1
x 
1
)
5
(
1
1
5
0
0
0



a
and
a
and
So zero
factors of a
base equals 1.
That makes
sense! Every
power has a
coefficient
of 1.

17. Try these:
  
0
2
2
.
1 b
a

 4
2
.
2 y
y
  
1
5
.
3 a


 7
2
4
.
4 s
s
  

 4
3
2
3
.
5 y
x
  
0
4
2
.
6 t
s









1
2
2
.
7
x









2
5
9
3
3
.
8









2
4
4
2
2
.
9
t
s
t
s









2
5
4
5
4
36
.
10
b
a
a

18. SOLUTIONS
  
0
2
2
.
1 b
a
  
1
5
.
3 a


 7
2
4
.
4 s
s
  

 4
3
2
3
.
5 y
x
  
0
4
2
.
6 t
s
1
5
1
a
5
4s
  12
8
12
8
4
81
3
y
x
y
x 


1

19. 








1
2
2
.
7
x









2
5
9
3
3
.
8









2
4
4
2
2
.
9
t
s
t
s









2
5
4
5
4
36
.
10
b
a
a
SOLUTIONS
4
4
1
x
x








  8
8
2
4
3
1
3
3 
 

  4
4
2
2
2
t
s
t
s 



2
10
10
2
2
81
9
a
b
b
a 

