Base Change Conversions Calculator

Publish date: 2024-06-12
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Convert 1234 from decimal to binary

(base 2) notation:

Power Test

Raise our base of 2 to a power

Start at 0 and increasing by 1 until it is >= 1234

20 = 1

21 = 2

22 = 4

23 = 8

24 = 16

25 = 32

26 = 64

27 = 128

28 = 256

29 = 512

210 = 1024

211 = 2048 <--- Stop: This is greater than 1234

Since 2048 is greater than 1234, we use 1 power less as our starting point which equals 10

Build binary notation

Work backwards from a power of 10

We start with a total sum of 0:

210 = 1024

The highest coefficient less than 1 we can multiply this by to stay under 1234 is 1

Multiplying this coefficient by our original value, we get: 1 * 1024 = 1024

Add our new value to our running total, we get:
0 + 1024 = 1024

This is <= 1234, so we assign our outside coefficient of 1 for this digit.

Our new sum becomes 1024

Our binary notation is now equal to 1

29 = 512

The highest coefficient less than 1 we can multiply this by to stay under 1234 is 1

Multiplying this coefficient by our original value, we get: 1 * 512 = 512

Add our new value to our running total, we get:
1024 + 512 = 1536

This is > 1234, so we assign a 0 for this digit.

Our total sum remains the same at 1024

Our binary notation is now equal to 10

28 = 256

The highest coefficient less than 1 we can multiply this by to stay under 1234 is 1

Multiplying this coefficient by our original value, we get: 1 * 256 = 256

Add our new value to our running total, we get:
1024 + 256 = 1280

This is > 1234, so we assign a 0 for this digit.

Our total sum remains the same at 1024

Our binary notation is now equal to 100

27 = 128

The highest coefficient less than 1 we can multiply this by to stay under 1234 is 1

Multiplying this coefficient by our original value, we get: 1 * 128 = 128

Add our new value to our running total, we get:
1024 + 128 = 1152

This is <= 1234, so we assign our outside coefficient of 1 for this digit.

Our new sum becomes 1152

Our binary notation is now equal to 1001

26 = 64

The highest coefficient less than 1 we can multiply this by to stay under 1234 is 1

Multiplying this coefficient by our original value, we get: 1 * 64 = 64

Add our new value to our running total, we get:
1152 + 64 = 1216

This is <= 1234, so we assign our outside coefficient of 1 for this digit.

Our new sum becomes 1216

Our binary notation is now equal to 10011

25 = 32

The highest coefficient less than 1 we can multiply this by to stay under 1234 is 1

Multiplying this coefficient by our original value, we get: 1 * 32 = 32

Add our new value to our running total, we get:
1216 + 32 = 1248

This is > 1234, so we assign a 0 for this digit.

Our total sum remains the same at 1216

Our binary notation is now equal to 100110

24 = 16

The highest coefficient less than 1 we can multiply this by to stay under 1234 is 1

Multiplying this coefficient by our original value, we get: 1 * 16 = 16

Add our new value to our running total, we get:
1216 + 16 = 1232

This is <= 1234, so we assign our outside coefficient of 1 for this digit.

Our new sum becomes 1232

Our binary notation is now equal to 1001101

23 = 8

The highest coefficient less than 1 we can multiply this by to stay under 1234 is 1

Multiplying this coefficient by our original value, we get: 1 * 8 = 8

Add our new value to our running total, we get:
1232 + 8 = 1240

This is > 1234, so we assign a 0 for this digit.

Our total sum remains the same at 1232

Our binary notation is now equal to 10011010

22 = 4

The highest coefficient less than 1 we can multiply this by to stay under 1234 is 1

Multiplying this coefficient by our original value, we get: 1 * 4 = 4

Add our new value to our running total, we get:
1232 + 4 = 1236

This is > 1234, so we assign a 0 for this digit.

Our total sum remains the same at 1232

Our binary notation is now equal to 100110100

21 = 2

The highest coefficient less than 1 we can multiply this by to stay under 1234 is 1

Multiplying this coefficient by our original value, we get: 1 * 2 = 2

Add our new value to our running total, we get:
1232 + 2 = 1234

This = 1234, so we assign our outside coefficient of 1 for this digit.

Our new sum becomes 1234

Our binary notation is now equal to 1001101001

20 = 1

The highest coefficient less than 1 we can multiply this by to stay under 1234 is 1

Multiplying this coefficient by our original value, we get: 1 * 1 = 1

Add our new value to our running total, we get:
1234 + 1 = 1235

This is > 1234, so we assign a 0 for this digit.

Our total sum remains the same at 1234

Our binary notation is now equal to 10011010010

Final Answer

We are done. 1234 converted from decimal to binary notation equals 100110100102.

You have 1 free calculations remaining


What is the Answer?

We are done. 1234 converted from decimal to binary notation equals 100110100102.

How does the Base Change Conversions Calculator work?

Free Base Change Conversions Calculator - Converts a positive integer to Binary-Octal-Hexadecimal Notation or Binary-Octal-Hexadecimal Notation to a positive integer. Also converts any positive integer in base 10 to another positive integer base (Change Base Rule or Base Change Rule or Base Conversion)
This calculator has 3 inputs.

What 3 formulas are used for the Base Change Conversions Calculator?

Binary = Base 2
Octal = Base 8
Hexadecimal = Base 16

For more math formulas, check out our Formula Dossier

What 6 concepts are covered in the Base Change Conversions Calculator?

basebase change conversionsbinaryBase 2 for numbersconversiona number used to change one set of units to another, by multiplying or dividinghexadecimalBase 16 number systemoctalbase 8 number system

Example calculations for the Base Change Conversions Calculator

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