Sign-Magnitude Number Range in 34-Bit Representation

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In summary, the Range of Sign-Magnitude refers to the set of all possible values in a sign-magnitude number system, determined by the number of bits used for the magnitude and sign. It is calculated by subtracting one bit for the sign from the total number of bits available. The sign indicates the positivity or negativity of the number. The range can be extended by adding more bits for the magnitude, but this increases the number of bits needed for each number. Common applications of sign-magnitude numbers include computer systems, digital signal processing, image processing, and scientific and engineering applications.
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1.What is range of sign-magnitude numbers that can be represented with 34-bits

I kind of get it but I'm not sure, I know it has something to do with -2^n -1, 2^n-1 but I'm not sure how to represent it or what the question is really asking. Can anyone help?
 
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You are correct. Clue: the n is 34 in your case.
 
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The range of sign-magnitude numbers that can be represented with 34-bits is from -2^33 to 2^33 - 1. This means that the largest positive number that can be represented is 2^33 - 1, which is approximately 8.6 billion. The smallest negative number that can be represented is -2^33, which is approximately -8.6 billion. This range is determined by the number of bits available for the magnitude (33 bits) and the sign bit (1 bit), which indicates whether the number is positive or negative. It is important to note that the range of sign-magnitude numbers is not symmetric, as the positive and negative numbers have different maximum values.
 
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The range of sign-magnitude numbers that can be represented with 34 bits is from -2^33 + 1 to 2^33 - 1. This means that the smallest number that can be represented is -8589934591 and the largest number is 8589934591. The sign-magnitude representation uses the first bit as the sign bit and the remaining 33 bits for the magnitude of the number. This allows for a wider range of numbers to be represented compared to other number systems, such as two's complement. However, it also means that there are two representations for zero (positive and negative), which can cause some confusion in calculations. Overall, the 34-bit sign-magnitude representation allows for a large range of numbers to be accurately represented and is commonly used in computer systems.
 

1. What is the definition of "Range of Sign-Magnitude"?

The Range of Sign-Magnitude refers to the set of all possible values that can be represented in a sign-magnitude number system. In this system, each number is represented by a sign (positive or negative) and a magnitude (absolute value). The range is determined by the number of bits used for the magnitude and the number of bits used for the sign.

2. How is the range of sign-magnitude numbers calculated?

The range of sign-magnitude numbers is calculated by taking the total number of bits available for the representation and subtracting one bit for the sign. For example, if we have a 16-bit system, the range would be 2^(16-1)-1, which equals 32,767.

3. What is the significance of the sign in a sign-magnitude number?

The sign in a sign-magnitude number indicates whether the number is positive or negative. This allows for the representation of both positive and negative numbers in the same number system.

4. Can the range of sign-magnitude numbers be extended?

Yes, the range of sign-magnitude numbers can be extended by adding more bits for the magnitude. This allows for a larger range of values to be represented, but it also increases the number of bits needed for each number.

5. What are some applications of sign-magnitude numbers?

Sign-magnitude numbers are commonly used in computer systems to represent both positive and negative values. They are also used in digital signal processing, image processing, and other scientific and engineering applications.

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