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ASCII to Binary Converter

Easily convert ASCII text to binary by entering the text below.
This tool helps convert each character in your text to its binary equivalent, providing valuable insights for encoding, programming, and data manipulation.

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Binary Output:

Calculation steps

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Learn how to convert ASCII to binary

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How to Convert Text to Binary

Convert text to binary ASCII code:

  1. Get character
  2. Get decimal code of character from ASCII table
  3. Convert decimal to binary byte
  4. Continue with next character

Example

Convert "Plant trees" text to binary ASCII code:

Solution:

Use ASCII table to get ASCII code from character.

  • "P" => 80 = 26+24 = 010100002
  • "l" => 108 = 26+25+23+22 = 011011002
  • "a" => 97 = 26+25+20 = 011000012

For all the text characters you should get the binary bytes:

"01010000 01101100 01100001 01101110 01110100 00100000 01110100 01110010 01100101 01100101 01110011"

How to convert Text to Binary?

Get character

Get ASCII code of character from ASCII table

Convert decimal to binary byte

Continue with next character

How to use Text to Binary converter?

Paste text in input text box.

Select character encoding type.

Select output delimiter string.

Press the Convert button.

How to convert English to Binary code?

Get English letter

Get ASCII code of the English letter from ASCII table

Convert decimal to binary byte

Continue with next English letter

Example

Understanding ASCII-to-Binary Conversion

ASCII-to-binary conversion involves converting ASCII characters into their corresponding binary representations (base 2). ASCII assigns a unique decimal value (0 to 127) to each character, which can be represented as an 8-bit binary number.

The general approach to converting ASCII characters to binary includes:

  • Look up the decimal value of the ASCII character using an ASCII table.
  • Convert the decimal value to binary using division by 2 and noting the remainders.
  • Ensure the binary number is 8 bits long by padding with leading zeros if necessary.

Steps for ASCII-to-Binary Conversion

Step 1: Find the decimal value of the character from the ASCII table.

Step 2: Convert the decimal value to binary using the division-remainder method.

Step 3: Ensure the binary number is 8 bits long by adding leading zeros if required.

Example: Converting ASCII to Binary

Convert \( A \) to binary:

  • Step 1: Look up the ASCII table: \( A = 65 \) (decimal).
  • Step 2: Convert \( 65 \) to binary:
    • Divide \( 65 \) by \( 2 \): quotient \( 32 \), remainder \( 1 \).
    • Divide \( 32 \) by \( 2 \): quotient \( 16 \), remainder \( 0 \).
    • Divide \( 16 \) by \( 2 \): quotient \( 8 \), remainder \( 0 \).
    • Divide \( 8 \) by \( 2 \): quotient \( 4 \), remainder \( 0 \).
    • Divide \( 4 \) by \( 2 \): quotient \( 2 \), remainder \( 0 \).
    • Divide \( 2 \) by \( 2 \): quotient \( 1 \), remainder \( 0 \).
    • Divide \( 1 \) by \( 2 \): quotient \( 0 \), remainder \( 1 \).
  • Write the remainders in reverse order: \( 01000001 \).
  • Final binary result: \( 01000001 \).

Conversion Table for Quick Reference

Here is a quick reference for some ASCII characters and their binary equivalents:

  • Space → 00100000
  • A → 01000001
  • B → 01000010
  • a → 01100001
  • b → 01100010
  • 1 → 00110001
  • 2 → 00110010

Applications of ASCII-to-Binary Conversion

ASCII-to-binary conversion is commonly used in:

  • Encoding text data for storage and transmission in computers.
  • Developing communication protocols and data formats.
  • Understanding how characters are stored in digital systems.

Practice Problem

Convert \( g \) to binary:

  • Solution:
    • Step 1: Look up \( g \) in the ASCII table: \( g = 103 \) (decimal).
    • Step 2: Convert \( 103 \) to binary:
      • Divide \( 103 \) by \( 2 \): quotient \( 51 \), remainder \( 1 \).
      • Divide \( 51 \) by \( 2 \): quotient \( 25 \), remainder \( 1 \).
      • Divide \( 25 \) by \( 2 \): quotient \( 12 \), remainder \( 1 \).
      • Divide \( 12 \) by \( 2 \): quotient \( 6 \), remainder \( 0 \).
      • Divide \( 6 \) by \( 2 \): quotient \( 3 \), remainder \( 0 \).
      • Divide \( 3 \) by \( 2 \): quotient \( 1 \), remainder \( 1 \).
      • Divide \( 1 \) by \( 2 \): quotient \( 0 \), remainder \( 1 \).
    • Write the remainders in reverse order: \( 01100111 \).
  • Final binary result: \( 01100111 \).
ASCII-to-Binary Conversion Examples Table
Problem Type Description Steps to Solve Example
Basic Conversion Converting an ASCII character to its binary equivalent.
  • Find the decimal value of the ASCII character using an ASCII table.
  • Convert the decimal value to binary.
  • Ensure the binary result is 8 bits long (add leading zeros if necessary).
For \( H \):
  • ASCII Character: \( H \).
  • Decimal: \( 72 \).
  • Binary: \( 01001000 \).
Handling Multiple Characters Converting a string of ASCII characters to binary.
  • Find the decimal value of each character in the string.
  • Convert each decimal value to binary.
  • Ensure all binary results are 8 bits long.
For \( Hello \):
  • Characters: \( H, e, l, l, o \).
  • Decimals: \( 72, 101, 108, 108, 111 \).
  • Binaries: \( 01001000, 01100101, 01101100, 01101100, 01101111 \).
  • Result: \( 01001000 01100101 01101100 01101100 01101111 \).
Verifying Conversion Checking the accuracy of ASCII-to-binary conversion.
  • Convert each binary string back to decimal.
  • Find the corresponding ASCII character using an ASCII table.
  • Ensure the resulting characters match the original input.
For \( 01000001 \) (binary for \( A \)):
  • Binary: \( 01000001 \).
  • Decimal: \( 65 \).
  • ASCII Character: \( A \).
  • Matches the original input.
Handling Special Characters Converting non-alphanumeric ASCII characters to binary.
  • Find the decimal value of the special character in an ASCII table.
  • Convert the decimal value to binary.
  • Ensure the binary result is 8 bits long.
For \( ! \):
  • Character: \( ! \).
  • Decimal: \( 33 \).
  • Binary: \( 00100001 \).
Applications Understanding where ASCII-to-binary conversion is used.
  • Encoding text data for transmission over binary-based systems.
  • Storing text in binary file formats.
Example: Encoding text in binary for communication protocols or file storage.

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