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Chapter 12: Problem 4

Compute the NAND gate output from inputing each pair of bits. $$0,1$$

Short Answer

Expert verified
The output of the NAND gate for the input pair \( (0,1) \) is \( 1 \).

Step by step solution

01

NAND Gate Truth Table

The first step is to understand the behavior of NAND gates. For a two-input NAND gate, the truth table is as follows: Input A | Input B | Output --------|---------|------- 0 | 0 | 1 0 | 1 | 1 1 | 0 | 1 1 | 1 | 0
02

Compute NAND Gate Output for the Given Inputs

Now, we will compute the output of the given input pair (0,1). From the truth table above, we can see that for the input pair (0,1), the output is: Output = 1

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Key Concepts

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

Logic Gates
Logic gates are the building blocks of digital circuits. They are used to perform logical operations on one or more binary inputs to produce a single binary output. Each logic gate corresponds to a specific logical function, such as AND, OR, or NOT. The NAND gate is one such type of logic gate, which stands for NOT AND.

Logic gates work according to certain rules. The NAND gate, in particular, outputs a '0' only when all its inputs are '1'; in all other cases, it produces '1'.

NAND gates are widely used in the design of digital circuits because they are versatile and can be used to create any other type of logic gate, which makes them functionally complete.
Truth Table
A truth table is a mathematical table used to define the function of a logic gate. It shows all possible combinations of the inputs and the corresponding output for the gate.

Let's consider the truth table of a NAND gate. It has inputs A and B, and a single output:
  • If A = 0 and B = 0, output = 1
  • If A = 0 and B = 1, output = 1
  • If A = 1 and B = 0, output = 1
  • If A = 1 and B = 1, output = 0
Truth tables are crucial for understanding the specific behavior of digital circuits. They help highlight what will happen for any combination of inputs.
Binary Computation
Binary computation is the foundation of computer systems and digital electronics. It involves calculations and operations based on binary numbers, which consist of only two digits: 0 and 1. Each binary digit represents an electrical signal in a digital circuit.

Logic gates perform computations on these binary digits. In the case of a NAND gate, the inputs are binary numbers, and its operation involves evaluating the logical conjunction followed by a negation. Binary computation allows for complex processing tasks by combining multiple simple operations such as those performed by logic gates.
Digital Circuits
Digital circuits are systems that process electrical signals using discrete values, often represented by binary 0s and 1s. These circuits form the basis of all digital technology, from simple calculators to complex computer systems.

Digital circuits utilize logic gates to manage and manipulate these signals. By integrating various gates like NAND, circuits can perform a wide range of logical functions, making them essential in creating functional electronics.

The efficiency, scalability, and reliability of digital circuits make them indispensable in modern electronics, enabling everything from smartphone operation to the internet infrastructure.

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Most popular questions from this chapter

Prove algebraically. $$(x+y) z=x z+y z$$

Simplify each boolean expression using the laws of boolean algebra. $$x^{\prime} y z+x^{\prime} y^{\prime} z^{\prime}+x^{\prime} y z^{\prime}+x^{\prime} y^{\prime} z$$

The set \(D_{70}=\\{1,2,5,7,10,14,35,70\\}\) of positive factors of 70 is a boolean algebra under the operations \(\oplus, \odot,\) and ' defined by \(x \oplus y=\operatorname{lcm}\\{x, y\\}\) \(x \odot y=\operatorname{gcd}\\{x, y\\},\) and \(x^{\prime}=70 / x .\) Compute each. $$(5 \oplus 7)^{\prime}$$

Construct a logic table for each boolean expression. $$(x \downarrow y) \uparrow(x \downarrow y)$$

Use the following definition of the binary operator \(\mathrm{XOR}\) , denoted by \(\oplus,\) for Exercises \(69-81 .\) $$ x \oplus y=\left\\{\begin{array}{ll}{1} & {\text { if exactly one of the bits } x \text { and } y \text { is } 1} \\ {0} & {\text { otherwise }}\end{array}\right. $$ Evaluate each. $$ (1 \oplus 0) \oplus 1 $$
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