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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a database with multiple tables from attributes as shown above that are in 3NF, showing PK, non-key attributes, and FK for each table? Assume the tables are already in 1NF. [Hint: 3 tables will result after deducing 1NF -> 2NF -> 3NF]

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

Want to see the full answer?

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 - Prob. 1RETC Ch. 2 - Prob. 2RETC Ch. 2 - Prob. 3RETC Ch. 2 - Prob. 4RETC Ch. 2 - Prob. 5RETC Ch. 2 - Prob. 6RETC Ch. 2 - Prob. 7RETC Ch. 2 - Prob. 8RETC Ch. 2 - Prob. 9RETC Ch. 2 - Prob. 10RETC

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.