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What number follows 777 when counting in a. decimal; b. octal; c. hexadecimal?

Short Answer

Expert verified
Decimal: 778; Octal: 1000; Hexadecimal: 778.

Step by step solution

01

Decimal Count

When counting numbers in the decimal system (base 10), the sequence follows a straightforward progression by one. For example, after 1 comes 2, and so forth. Given the number 777 in decimal, the next number is simply 778 because we add 1 to it.
02

Octal Count

The octal number system is base 8. This means each digit in the number ranges from 0 to 7. To find the number that follows 777 in octal, note that it starts from the rightmost digit: Add 1 to 7, resulting in 10 in octal. Thus, the whole number 777 becomes 1000 when incremented by one in octal.
03

Hexadecimal Count

Hexadecimal is base 16, where numbers include digits from 0 to 9 and letters from A to F to represent 10 to 15. When 777 in hexadecimal is incremented, the number becomes 778, since adding 1 doesn't exceed the single-digit hex range (F) in any place and no further adjustment is needed.

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Key Concepts

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

Understanding the Decimal System
The decimal system, also known as base 10, is the number system most commonly used in everyday life. It comprises ten digits, from 0 to 9. Each digit in a decimal number represents a power of ten based on its position. For example, in the number 234, the '4' is in the units place, the '3' is in the tens place, and the '2' is in the hundreds place.
  • Units place: \(4 \times 10^0 = 4\)
  • Tens place: \(3 \times 10^1 = 30\)
  • Hundreds place: \(2 \times 10^2 = 200\)
When you add these values, you get the total number, 234. Due to its simplicity and logical structure, the decimal system is used worldwide for almost every calculation.
Whenever you encounter a number like 777 in this system, adding 1 to it is straightforward, moving it to 778 since no special rules apply when digits reach their limits.
Exploring the Octal System
The octal system, or base 8, uses digits ranging from 0 to 7. It's less common than the decimal system but is still significant in certain areas, like computing. Unlike the decimal system, the shift occurs when a digit exceeds 7, similar to how a digit in the decimal system moves when it exceeds 9.
For instance, if we look at the octal number 777, an increment happens at each digit position, causing a further carryover, much like in decimals.
  • When you add 1 to the rightmost 7, it becomes 10 (carrying over to the next octal digit).
  • The next 7, with the carryover, becomes 10 too, causing another carryover.
  • Eventually, the full transformation from 777 becomes 1000 in octal.
This result shows how numbers reset and progress in a base 8 system, highlighting the pattern of recycles and carryovers.
Navigating the Hexadecimal System
The hexadecimal system (base 16) employs both numbers and letters to represent values beyond the decimal system's 0-9. Here, the numbers include digits from 0 to 9, plus the letters A to F, where A represents 10, B represents 11, and so on until F, which equals 15.
This system is frequently used in computer science due to its compact form that eases reading and writing large binary numbers. For instance, consider the number 777 in hexadecimal. When incremented by 1, as in the decimal system, it becomes 778.
  • The addition of 1 doesn't push any of the hexadecimal digits past 'F', avoiding the need for carrying over.

This simplicity can be attributed to the fact that although much of the appearance resembles the decimal-counting norm, its character accommodates more than the decimal digits, making it highly efficient in digital electronic and computing contexts.

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Most popular questions from this chapter

Design a logic circuit to control electrical power to the engine ignition of a speed boat. Logic output \(I\) is to become high if ignition power is to be applied and is to remain low otherwise, Gasoline fumes in the engine compartment present a serious hazard of explosion. A sensor provides a logic input \(F\) that is high if fumes are present. Ignition power should not be applied if fumes are present. To help prevent accidents, ignition power should not be applied while the out drive is in gear. Logic signal \(G\) is high if the out drive is in gear and is low otherwise. A blower is provided to clear fumes from the engine compartment and is to be operated for five minutes before applying ignition power. Logic signal \(B\) becomes high after the blower has been in operation for five minutes. Finally. an emergency override signal \(E\) is provided so that the operator can choose to apply ignition power even if the blower has not operated for five minutes and if the out drive is in gear. but not if gasoline fumes are present. a. Prepare a truth table listing all combinations of the input signals \(B, E, F,\) and \(G .\) Also, show the desired value of \(I\) for each row in the table. b. Using the SOP approach, write a Boolean expression for \(I\). c. Using the POS approach, write a Boolean expression for \(I\) d. Try to manipulate the expressions of parts (b) and (c) to obtain a logic circuit having the least number of gates and inverters Use AND gates, OR gates, and inverters.

Add these pairs of binary numbers : a. \(^{*}1101.11\) and \(101.111;\) b. \(1011\) and \(101;\) c \(10001.111\) and \(0101.001\)

Convert the following binary numbers to decimal form: \(a. ^{*}101.101 ; b .0111 .11 ; c .1010 .01\) d. \(111.111: e .1000 .0101 ; f^{*} 10101.011\).

Find the one's and two's complements of the binary numbers: a. \(^{*}11101000 ;\) b. \(00000000\) c. \(10101010 ;\) d. \(11111100 ;\) e. \(11000000\).

a. Construct a Karnaugh map for the logic function $$F=A B \bar{C} \bar{D}+A B C D+A B C \bar{D}+\bar{A} B C D$$ b. Find the minimum SOP expression. c. Realize the minimum SOP function, using AND, OR, and NOT gates. d. Find the minimum POS expression.

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