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Convert the integers in 38-40 from hexadecimal to decimal notation. $$ 39 \mathrm{~EB}_{16} $$

Short Answer

Expert verified
The decimal representation of the given hexadecimal number \(39~EB_{16}\) is \(14827_{10}\).

Step by step solution

01

Understand the Positional Values in Hexadecimal Notation

In the given hexadecimal number \(39~EB_{16}\), we have the following digits from right to left: B, E, 9, and 3. The position count begins from 0 on the right and increases to the left. Therefore, the positional values are as follows: - For B: position 0 - For E: position 1 - For 9: position 2 - For 3: position 3
02

Convert Hexadecimal Digits to Decimal Values

First, we need to convert each hexadecimal digit to its corresponding decimal value. Here are the decimal equivalents for each digit: - B: 11 - E: 14 - 9: 9 - 3: 3
03

Calculate the Decimal Value for Each Digit

Now, we will multiply each digit's decimal value with its corresponding positional value (power of 16). Here are the calculations: - For B: \(11 \times 16^0 = 11 \times 1 = 11\) - For E: \(14 \times 16^1 = 14 \times 16 = 224\) - For 9: \(9 \times 16^2 = 9 \times 256 = 2304\) - For 3: \(3 \times 16^3 = 3 \times 4096 = 12288\)
04

Calculate the Final Decimal Representation

Add all the decimal values calculated in Step 3 to get the final decimal representation: \(11 + 224 + 2304 + 12288 = 14827\) So, the decimal representation of the given hexadecimal number \(39~EB_{16}\) is: \(39~EB_{16} = 14827_{10}\)

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Key Concepts

These are the key concepts you need to understand to accurately answer the question.

Hexadecimal Notation
Hexadecimal notation is a base 16 number system, often used in computing and digital electronics. It includes sixteen distinct symbols to represent values. The symbols range from 0 to 9 for values zero to nine, and from A to F for values ten to fifteen. Each hexadecimal digit represents four binary digits, also known as a nibble, which is half of a byte. This makes hexadecimal a concise representation of binary-coded values.

In hexadecimal notation, a number like \(39~EB_{16}\) uses a combination of letters and numbers. Here:
  • 3 and 9 are numeric digits, while
  • E and B are alphabetic characters that represent the values 14 and 11, respectively.

This makes hexadecimal particularly useful in programming and computing environments where byte operations are performed and bit groupings are common.
Decimal Notation
Decimal notation is a base 10 system, which is the most widely used number system. It consists of ten digits: 0, 1, 2, 3, 4, 5, 6, 7, 8, and 9.
Decimal notation expresses numbers using these ten digits and the power of ten for their place values. Each position in a decimal number has a value that is a power of ten, starting from the rightmost digit which is 10鈦.

The conversion of hexadecimal numbers like \(39~EB_{16}\) to decimal notation involves expressing the number as a sum of values, each calculated by multiplying the decimal value of the hexadecimal digit by 16 raised to the power of its position.
This allows us to convert complex hexadecimal numbers into more intuitive decimal numbers familiar to everyday math.
Positional Values
Positional values play a crucial role in numeral systems as they determine the weight of each digit based on its position within the number. Each position represents a power of the base of the numeral system being used.

For example, in the hexadecimal number \(39~EB_{16}\), each digit has a specific position:
  • B is at position 0
  • E is at position 1
  • 9 is at position 2
  • 3 is at position 3

An important aspect of hexadecimal is that each position is a power of 16, unlike in decimal where each position is a power of 10. By understanding these positions, we can accurately convert the hexadecimal number into a decimal number, indicating how each digit contributes to the final value based on its location.
Base 16 System
The base 16 system, also known as the hexadecimal system, expands upon simpler number systems like binary and decimal. Each digit in hexadecimal can represent sixteen different values, unlike decimal, which only has ten. The utility of the base 16 system shines in environments dealing with extensive calculations and digital data because it provides a more streamlined way to represent binary values, making it easier to read and manage than a long sequence of bits.

For the number \(39~EB_{16}\), computation is simplified because each digit is effectively a shorthand for four bits of binary data. This is due to the base 16 nature, where every shift left or right corresponds to a 16-fold change, as opposed to binary's two-fold change. This simplification makes hexadecimal efficient and powerful in digital computing contexts where quick translation between human-readable formats and machine code is necessary.

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Most popular questions from this chapter

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