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A Power Efficient Multiplexer Using Reversible Logic

Designing Efficient Multiplexer Demultiplexer Qca Logic Circuits And
Designing Efficient Multiplexer Demultiplexer Qca Logic Circuits And

Designing Efficient Multiplexer Demultiplexer Qca Logic Circuits And Designing a multiplexer can prove to be a very useful block in many complex circuits. a fredkin gate based multiplexer has been proposed for 180nm, 90nm and 45nm channel lengths. Reversible logic owns its applications in various fields which include low power vlsi. in this paper multiplexer is implemented using qca, sam and qca & sam gate.

Pdf Novel Design Of Multiplexer And Demultiplexer Using Reversible
Pdf Novel Design Of Multiplexer And Demultiplexer Using Reversible

Pdf Novel Design Of Multiplexer And Demultiplexer Using Reversible Tl;dr: this paper attempts to present various cntfet based reversible combinational circuits such as multiplexers and decoders by simultaneous use of the reversible fredkin gate and gate diffusion input (gdi) technique to improve the speed, pdp, and edp of complex arithmetic structures. In today era, reversibility has become essential part of digital world to make digital circuits more efficient. in this paper, we have proposed a new method to reduce quantum cost and power for various multiplexers. the results are simulated in xilinx by using vhdl language. Low power architectures are more pronounced for different applications that extend from internet of things to quantum computing. primitive combinational logic c. In this proposed reversible logic gate circuit applying gdi cell technique that reduces the area of the circuit, low leakage power, delay and power delay product (pdp).

Figure 1 From Design Of A Multiplexer Using Reversible Logic Semantic
Figure 1 From Design Of A Multiplexer Using Reversible Logic Semantic

Figure 1 From Design Of A Multiplexer Using Reversible Logic Semantic Low power architectures are more pronounced for different applications that extend from internet of things to quantum computing. primitive combinational logic c. In this proposed reversible logic gate circuit applying gdi cell technique that reduces the area of the circuit, low leakage power, delay and power delay product (pdp). Abstract such, the scheme we use to do just that is called a multiplexer. in digital electronics, multiplexers are similarly known as data selectors as they can “select” each input line, are made from individual analogue switches encased in a single ic package as conflicting to the “mechanical”. This paper attempts to present various cntfet based reversible combinational circuits such as multiplexers and decoders by simultaneous use of the reversible fredkin gate and gate diffusion input (gdi) technique to improve the speed, pdp, and edp of complex arithmetic structures. Reversible logic is a technioue for power reduction. reversible circuits are similar to digital circuits but they work using reversible logic gates. this study focuses on reducing the garbage output and ancilla inputs in reversible multiplexers, thereby reducing the power consumption. in this study two designs of multiplexers are given. Lications, focusing on minimizing quantum cost while maintaining high efficiency. our design leverages reversible logic gates to construct he multiplexer, ensuring minimal information loss and reduced energy dissipation. we conduct a comprehensive analysis of the quantum cost, delay, and garbage outputs of the proposed design, compar.

Reversible Implementation Of Multiplexer And Demultiplexer Using R
Reversible Implementation Of Multiplexer And Demultiplexer Using R

Reversible Implementation Of Multiplexer And Demultiplexer Using R Abstract such, the scheme we use to do just that is called a multiplexer. in digital electronics, multiplexers are similarly known as data selectors as they can “select” each input line, are made from individual analogue switches encased in a single ic package as conflicting to the “mechanical”. This paper attempts to present various cntfet based reversible combinational circuits such as multiplexers and decoders by simultaneous use of the reversible fredkin gate and gate diffusion input (gdi) technique to improve the speed, pdp, and edp of complex arithmetic structures. Reversible logic is a technioue for power reduction. reversible circuits are similar to digital circuits but they work using reversible logic gates. this study focuses on reducing the garbage output and ancilla inputs in reversible multiplexers, thereby reducing the power consumption. in this study two designs of multiplexers are given. Lications, focusing on minimizing quantum cost while maintaining high efficiency. our design leverages reversible logic gates to construct he multiplexer, ensuring minimal information loss and reduced energy dissipation. we conduct a comprehensive analysis of the quantum cost, delay, and garbage outputs of the proposed design, compar.

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