The XOR (exclusive OR) gate detects if the inputs are different. It outputs a high signal (1) when the inputs are not the same (one input is high and the other is low) and outputs a low signal (0) when the inputs are the same. Thus, it effectively identifies the difference between the two inputs.
ans. 3 nand gates resoon :- OR GATE :- x+y NAND GATE :- x'+y' LOGIC :-so the logic is is we apply NAND to the inputs x' and y' instead of xand y we would get x+y DESIGN PROCEDURE 1. for inverting the input x and y can be done by NAND gates , 2. take a NAND gate and pass both x in both the inputs it means x NAND x gives you x' 3. follow similar procedure for inverting y 4. and then all the outputs of those NAND gates as the inputs of another NAND gate
it's a little and basic integrated circuit that makes calculations regarding Boole's logic (true/false) they can make various operations instantly regarding as the type of logic gate based on the 2 inputs, giving the result as output. they can make the OR operand, And, Xor,Not and a combination of them (cheaper) Nor,Nand,XNor it's the base for digital computing.
If the output of a logic gate is 1 while all inputs are logic 0, the gate is a NOR gate. A NOR gate produces a high output (1) only when all its inputs are low (0). In contrast, other gates like AND, OR, and NAND would not produce a 1 output under these conditions.
Mostly Japanese prefer negative logic so you can face negative logic in Japanese equipment only
Intermediate output in logic gates refers to the signals generated at various stages within a digital circuit before reaching the final output. These outputs represent the result of the logical operations performed by the gates, such as AND, OR, and NOT, based on their inputs. Intermediate outputs are crucial for understanding the behavior of complex circuits and can be used for debugging or optimization purposes. They help in visualizing how data flows and transforms through the logic components.
A: two
Logic gates can be primarily divided into two categories: combinational logic gates and sequential logic gates. Combinational logic gates, such as AND, OR, and NOT gates, produce outputs based solely on the current inputs without memory. In contrast, sequential logic gates, like flip-flops and counters, consider both current inputs and past states, allowing for memory and timing functions in circuits. These divisions form the foundation for building complex digital systems.
A "Nand" gate is an "And" gate with an "Inverter" added to its output. To get a logic 1 output from a "Nand" gate, you need a logic 0 on both of its inputs. If I understand your question correctly, you have three "Nand" gates. Presumably the outputs of two of them are connected to the inputs of the third. Logic 1 at both inputs of the first two "Nand" gates will produce a logic 0 output from both of them. The two logic 0's are fed to the inputs of the third "Nand" gate producing a logic 0 output from the third "Nand" gate.
It means that C is the inverse of A. Implementing the equation C = !A in basic logic gates requires the use of an inverter. An inverter can be made from a dedicated inverter gate, if available, or from a NAND gate with n inputs, where all n inputs are connected to A.
AND, OR, XOR, BUFFERNAND, NOR, XNOR, NOT/INVERTERAny of these except the BUFFER and NOT/INVERTER can have 2 or more inputs.Any of these can have Schmitt Trigger inputs to reduce noise sensitivity.Any of these can have a tristate output driver that can be switched off by a control input.This results in a potentially unlimited number of variant logic gates.
ans. 3 nand gates resoon :- OR GATE :- x+y NAND GATE :- x'+y' LOGIC :-so the logic is is we apply NAND to the inputs x' and y' instead of xand y we would get x+y DESIGN PROCEDURE 1. for inverting the input x and y can be done by NAND gates , 2. take a NAND gate and pass both x in both the inputs it means x NAND x gives you x' 3. follow similar procedure for inverting y 4. and then all the outputs of those NAND gates as the inputs of another NAND gate
TTL (Transistor-Transistor Logic) inputs typically refer to the number of inputs that a TTL device, such as a logic gate or flip-flop, can handle. Common TTL logic gates often have 2 to 4 inputs, while more complex devices like multiplexers or encoders can have larger numbers of inputs, ranging from 4 to 16 or more. The specific number of TTL inputs depends on the type and design of the device in question.
it's a little and basic integrated circuit that makes calculations regarding Boole's logic (true/false) they can make various operations instantly regarding as the type of logic gate based on the 2 inputs, giving the result as output. they can make the OR operand, And, Xor,Not and a combination of them (cheaper) Nor,Nand,XNor it's the base for digital computing.
Buffered inputs in logic gates refer to the use of a buffer circuit to strengthen the signals before they are processed by the gate. This ensures that the input signal maintains its integrity and can drive the gate's input effectively, reducing the risk of signal degradation due to load effects. Buffers can also isolate different parts of a circuit, improving overall performance and preventing interference from other components. In summary, buffered inputs enhance signal quality and reliability in digital circuits.
limitations of logic gates
The reversible logic is different from the other logics because of the Toffoli gates are used.
types of optical logic gates