Convert 16 from decimal to binary
(base 2) notation:
Raise our base of 2 to a power
Start at 0 and increasing by 1 until it is >= 16
20 = 1
21 = 2
22 = 4
23 = 8
24 = 16 <--- Stop: This is equal to 16
Since 16 is equal to 16, we use our current power as our starting point which equals 4
Work backwards from a power of 4
We start with a total sum of 0:
The highest coefficient less than 1 we can multiply this by to stay under 16 is 1
Multiplying this coefficient by our original value, we get: 1 * 16 = 16
Add our new value to our running total, we get:
0 + 16 = 16
This = 16, so we assign our outside coefficient of 1 for this digit.
Our new sum becomes 16
Our binary notation is now equal to 1
The highest coefficient less than 1 we can multiply this by to stay under 16 is 1
Multiplying this coefficient by our original value, we get: 1 * 8 = 8
Add our new value to our running total, we get:
16 + 8 = 24
This is > 16, so we assign a 0 for this digit.
Our total sum remains the same at 16
Our binary notation is now equal to 10
The highest coefficient less than 1 we can multiply this by to stay under 16 is 1
Multiplying this coefficient by our original value, we get: 1 * 4 = 4
Add our new value to our running total, we get:
16 + 4 = 20
This is > 16, so we assign a 0 for this digit.
Our total sum remains the same at 16
Our binary notation is now equal to 100
The highest coefficient less than 1 we can multiply this by to stay under 16 is 1
Multiplying this coefficient by our original value, we get: 1 * 2 = 2
Add our new value to our running total, we get:
16 + 2 = 18
This is > 16, so we assign a 0 for this digit.
Our total sum remains the same at 16
Our binary notation is now equal to 1000
The highest coefficient less than 1 we can multiply this by to stay under 16 is 1
Multiplying this coefficient by our original value, we get: 1 * 1 = 1
Add our new value to our running total, we get:
16 + 1 = 17
This is > 16, so we assign a 0 for this digit.
Our total sum remains the same at 16
Our binary notation is now equal to 10000