Determining the decimal equivalent for unsigned number 11111100: Step 1: Multiply the given binary number with the positive integers for base 2. 2 7 × 1 + 2 6 × 1 + 2 5 × 1 + 2 4 × 1 + 2 3 × 1 + 2 2 × 1 + 2 1 × 0 + 2 0 × 0 Step 2: Add all the values to get the final result. 128 + 64 + 32 + 16 + 8 + 4 = 252 Therefore, the decimal equivalent of the number represented in unsigned number 11111100 is 252 . Determining the decimal equivalent for unsigned number 01110000: Step 1: Multiply the given binary number with the positive integers for base 2

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Answer 1

Expert Solution & Answer

Chapter 2, Problem 23E

a)

Explanation of Solution

Determining the decimal equivalent for unsigned number 11111100:

Step 1: Multiply the given binary number with the positive integers for base 2.

27×1+26×1+25×1+24×1+23×1+22×1+21×0+20×0

Step 2: Add all the values to get the final result.

128+64+32+16+8+4=252

Therefore, the decimal equivalent of the number represented in unsigned number 11111100 is 252.

Determining the decimal equivalent for unsigned number 01110000:

Step 1: Multiply the given binary number with the positive integers for base 2

b)

Program Plan Intro

Two’s complement:

Two’s complement is another way of representing the binary numbers. To implement the two’s complement to the number, the given binary number should be one’s complemented and then add 1 to the result obtained after one’s complement.

c)

Explanation of Solution

Interpreting 11111100 as a signed magnitude representation:

In the given binary number, the MSB bit is 1. Hence, the binary number is negative.

Step 1: Multiply the given binary number with the positive integers for base 2.

26×1+25×1+24×1+23×1+22×1+21×0+20×0

Step 2: Add all the values to get the final result.

64+32+16+8+4=124

Therefore, the decimal equivalent of the number represented in signed magnitude is −124

Interpreting 01110000 as a signed magnitude representation:

Step 1: Multiply the given binary number with the positive integers for base 2

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The assignment here is to write an app using a database named CIT321 with a collection named students; we will provide a CSV file of the data. You need to use Vue.js to display 2 pages. You should know that this assignment is similar, all too similar in fact, to the cars4sale2 example in the lecture notes for Vue.js 2. You should study that program first. If you figure out cars4sale2, then program 6 will be extremely straightforward. It is not my intent do drop a ton of new material here in the last few days of class. The database contains 51 documents. The first rows of the CSV file look like this: sid last_name 1 Astaire first_name Humphrey CIT major hrs_attempted gpa_points 10 34 2 Bacall Katharine EET 40 128 3 Bergman Bette EET 42 97 4 Bogart Cary CIT 11 33 5 Brando James WEB 59 183 6 Cagney Marlon CIT 13 40 GPA is calculated as gpa_points divided by hrs_attempted. GPA points would have been arrived at by adding 4 points for each credit hour of A, 3 points for each credit hour of…

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Answer 2

Expert Solution & Answer

Chapter 2, Problem 23E

a)

Explanation of Solution

Determining the decimal equivalent for unsigned number 11111100:

Step 1: Multiply the given binary number with the positive integers for base 2.

27×1+26×1+25×1+24×1+23×1+22×1+21×0+20×0

Step 2: Add all the values to get the final result.

128+64+32+16+8+4=252

Therefore, the decimal equivalent of the number represented in unsigned number 11111100 is 252.

Determining the decimal equivalent for unsigned number 01110000:

Step 1: Multiply the given binary number with the positive integers for base 2

b)

Program Plan Intro

Two’s complement:

Two’s complement is another way of representing the binary numbers. To implement the two’s complement to the number, the given binary number should be one’s complemented and then add 1 to the result obtained after one’s complement.

c)

Explanation of Solution

Interpreting 11111100 as a signed magnitude representation:

In the given binary number, the MSB bit is 1. Hence, the binary number is negative.

Step 1: Multiply the given binary number with the positive integers for base 2.

26×1+25×1+24×1+23×1+22×1+21×0+20×0

Step 2: Add all the values to get the final result.

64+32+16+8+4=124

Therefore, the decimal equivalent of the number represented in signed magnitude is −124

Interpreting 01110000 as a signed magnitude representation:

Step 1: Multiply the given binary number with the positive integers for base 2

Expert Solution & Answer

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Check out a sample textbook solution

See solution

Answer 3

Expert Solution & Answer

Chapter 2, Problem 23E

a)

Explanation of Solution

Determining the decimal equivalent for unsigned number 11111100:

Step 1: Multiply the given binary number with the positive integers for base 2.

27×1+26×1+25×1+24×1+23×1+22×1+21×0+20×0

Step 2: Add all the values to get the final result.

128+64+32+16+8+4=252

Therefore, the decimal equivalent of the number represented in unsigned number 11111100 is 252.

Determining the decimal equivalent for unsigned number 01110000:

Step 1: Multiply the given binary number with the positive integers for base 2

b)

Program Plan Intro

Two’s complement:

Two’s complement is another way of representing the binary numbers. To implement the two’s complement to the number, the given binary number should be one’s complemented and then add 1 to the result obtained after one’s complement.

c)

Explanation of Solution

Interpreting 11111100 as a signed magnitude representation:

In the given binary number, the MSB bit is 1. Hence, the binary number is negative.

Step 1: Multiply the given binary number with the positive integers for base 2.

26×1+25×1+24×1+23×1+22×1+21×0+20×0

Step 2: Add all the values to get the final result.

64+32+16+8+4=124

Therefore, the decimal equivalent of the number represented in signed magnitude is −124

Interpreting 01110000 as a signed magnitude representation:

Step 1: Multiply the given binary number with the positive integers for base 2

Expert Solution & Answer

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Check out a sample textbook solution

See solution

Answer 4

Expert Solution & Answer

Chapter 2, Problem 23E

a)

Explanation of Solution

Determining the decimal equivalent for unsigned number 11111100:

Step 1: Multiply the given binary number with the positive integers for base 2.

27×1+26×1+25×1+24×1+23×1+22×1+21×0+20×0

Step 2: Add all the values to get the final result.

128+64+32+16+8+4=252

Therefore, the decimal equivalent of the number represented in unsigned number 11111100 is 252.

Determining the decimal equivalent for unsigned number 01110000:

Step 1: Multiply the given binary number with the positive integers for base 2

b)

Program Plan Intro

Two’s complement:

Two’s complement is another way of representing the binary numbers. To implement the two’s complement to the number, the given binary number should be one’s complemented and then add 1 to the result obtained after one’s complement.

c)

Explanation of Solution

Interpreting 11111100 as a signed magnitude representation:

In the given binary number, the MSB bit is 1. Hence, the binary number is negative.

Step 1: Multiply the given binary number with the positive integers for base 2.

26×1+25×1+24×1+23×1+22×1+21×0+20×0

Step 2: Add all the values to get the final result.

64+32+16+8+4=124

Therefore, the decimal equivalent of the number represented in signed magnitude is −124

Interpreting 01110000 as a signed magnitude representation:

Step 1: Multiply the given binary number with the positive integers for base 2

Expert Solution & Answer

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Check out a sample textbook solution

See solution

Answer 5

Expert Solution & Answer

Answer 6

Expert Solution & Answer

Answer 7

Chapter 2, Problem 23E

a)

Explanation of Solution

Determining the decimal equivalent for unsigned number 11111100:

Step 1: Multiply the given binary number with the positive integers for base 2.

27×1+26×1+25×1+24×1+23×1+22×1+21×0+20×0

Step 2: Add all the values to get the final result.

128+64+32+16+8+4=252

Therefore, the decimal equivalent of the number represented in unsigned number 11111100 is 252.

Determining the decimal equivalent for unsigned number 01110000:

Step 1: Multiply the given binary number with the positive integers for base 2

b)

Program Plan Intro

Two’s complement:

Two’s complement is another way of representing the binary numbers. To implement the two’s complement to the number, the given binary number should be one’s complemented and then add 1 to the result obtained after one’s complement.

c)

Explanation of Solution

Interpreting 11111100 as a signed magnitude representation:

In the given binary number, the MSB bit is 1. Hence, the binary number is negative.

Step 1: Multiply the given binary number with the positive integers for base 2.

26×1+25×1+24×1+23×1+22×1+21×0+20×0

Step 2: Add all the values to get the final result.

64+32+16+8+4=124

Therefore, the decimal equivalent of the number represented in signed magnitude is −124

Interpreting 01110000 as a signed magnitude representation:

Step 1: Multiply the given binary number with the positive integers for base 2

Answer 8

Chapter 2, Problem 23E

a)

Explanation of Solution

Determining the decimal equivalent for unsigned number 11111100:

Step 1: Multiply the given binary number with the positive integers for base 2.

27×1+26×1+25×1+24×1+23×1+22×1+21×0+20×0

Step 2: Add all the values to get the final result.

128+64+32+16+8+4=252

Therefore, the decimal equivalent of the number represented in unsigned number 11111100 is 252.

Determining the decimal equivalent for unsigned number 01110000:

Step 1: Multiply the given binary number with the positive integers for base 2

Answer 9

Chapter 2, Problem 23E

a)

Explanation of Solution

Determining the decimal equivalent for unsigned number 11111100:

Step 1: Multiply the given binary number with the positive integers for base 2.

27×1+26×1+25×1+24×1+23×1+22×1+21×0+20×0

Step 2: Add all the values to get the final result.

128+64+32+16+8+4=252

Therefore, the decimal equivalent of the number represented in unsigned number 11111100 is 252.

Determining the decimal equivalent for unsigned number 01110000:

Step 1: Multiply the given binary number with the positive integers for base 2

Answer 10

b)

Program Plan Intro

Two’s complement:

Two’s complement is another way of representing the binary numbers. To implement the two’s complement to the number, the given binary number should be one’s complemented and then add 1 to the result obtained after one’s complement.

Answer 11

b)

Program Plan Intro

Two’s complement:

Two’s complement is another way of representing the binary numbers. To implement the two’s complement to the number, the given binary number should be one’s complemented and then add 1 to the result obtained after one’s complement.

Answer 12

c)

Explanation of Solution

Interpreting 11111100 as a signed magnitude representation:

In the given binary number, the MSB bit is 1. Hence, the binary number is negative.

Step 1: Multiply the given binary number with the positive integers for base 2.

26×1+25×1+24×1+23×1+22×1+21×0+20×0

Step 2: Add all the values to get the final result.

64+32+16+8+4=124

Therefore, the decimal equivalent of the number represented in signed magnitude is −124

Interpreting 01110000 as a signed magnitude representation:

Step 1: Multiply the given binary number with the positive integers for base 2

Answer 13

c)

Explanation of Solution

Interpreting 11111100 as a signed magnitude representation:

In the given binary number, the MSB bit is 1. Hence, the binary number is negative.

Step 1: Multiply the given binary number with the positive integers for base 2.

26×1+25×1+24×1+23×1+22×1+21×0+20×0

Step 2: Add all the values to get the final result.

64+32+16+8+4=124

Therefore, the decimal equivalent of the number represented in signed magnitude is −124

Interpreting 01110000 as a signed magnitude representation:

Step 1: Multiply the given binary number with the positive integers for base 2

Answer 14

Expert Solution & Answer

Answer 15

Expert Solution & Answer

Answer 16

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Answer 17

Ch. 2.2A - Prob. 1E Ch. 2.2A - Prob. 2E Ch. 2.2A - Prob. 3E Ch. 2.2A - Prob. 4E Ch. 2 - Prob. 1RETC Ch. 2 - Prob. 2RETC Ch. 2 - Prob. 3RETC Ch. 2 - Prob. 4RETC Ch. 2 - Prob. 5RETC Ch. 2 - Prob. 6RETC

Explanation of Solution

Two’s complement: Two’s complement is another way of representing the binary numbers. To implement the two’s complement to the number, the given binary number should be one’s complemented and then add 1 to the result obtained after one’s complement.

Explanation of Solution

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Chapter 2 Solutions

Two’s complement:

Two’s complement is another way of representing the binary numbers. To implement the two’s complement to the number, the given binary number should be one’s complemented and then add 1 to the result obtained after one’s complement.