State the octal equivalent of hexa decimal number (B34) 16 .
(5464) 8
Understanding how to convert numbers between different bases is a fundamental concept in digital electronics and computer science. This solution will guide you through the process of converting a hexadecimal number to its octal equivalent, using (B34)₁₆ as an example.
To convert the hexadecimal number (B34)₁₆ to its octal equivalent, we follow a two-step process:
Each hexadecimal digit can be directly converted into its 4-bit binary equivalent. Let's break down (B34)₁₆:
| Hexadecimal Digit | Decimal Value | 4-bit Binary Equivalent |
|---|---|---|
| B | 11 | 1011 |
| 3 | 3 | 0011 |
| 4 | 4 | 0100 |
Concatenating these binary equivalents gives us the binary representation of (B34)₁₆:
$$(\text{B34})_{16} = (1011 \ 0011 \ 0100)_2$$
Now that we have the binary equivalent, we group the binary digits into sets of three, starting from the rightmost digit. If the leftmost group has fewer than three digits, add leading zeros to complete the group. Then, convert each 3-bit group into its corresponding octal digit.
Our binary number is $$(101100110100)_2$$
Let's group the digits from right to left:
Now, convert each 3-bit binary group to its octal equivalent:
| 3-bit Binary Group | Octal Equivalent |
|---|---|
| $$101_2$$ | $$5_8$$ |
| $$100_2$$ | $$4_8$$ |
| $$110_2$$ | $$6_8$$ |
| $$100_2$$ | $$4_8$$ |
Combining these octal digits in order gives us the final octal equivalent:
$$(\text{B34})_{16} = (101100110100)_2 = (5464)_8$$
The octal equivalent of the hexadecimal number (B34)₁₆ is (5464)₈. This step-by-step method ensures an accurate conversion between hexadecimal and octal number systems by using binary as an intermediate step.
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