This paper presents the design and implementation of an Enhanced Reversible Logic Gates-Based Pipelined Arithmetic Logic Unit (ALU) using Verilog and FPGA technology. The proposed ALU architecture aims to achieve high performance and efficiency by employing reversible logic gates and pipelining techniques. The design leverages the benefits of reversible logic gates, which ensure zero energy dissipation and minimize heat generation, leading to energy-efficient computing systems. The pipelined architecture enhances the throughput of the ALU by breaking down the computation into smaller stages and processing multiple instructions concurrently. Verilog Hardware Description Language (HDL) is utilized for the design and simulation of the ALU. The implementation is carried out on a Field-Programmable Gate Array (FPGA) platform, providing flexibility and scalability in hardware realization. Experimental results demonstrate the effectiveness of the proposed ALU design in terms of performance, energy efficiency, and area utilization. Compared to conventional ALU implementations, the proposed design offers significant improvements in throughput and power consumption, making it suitable for various applications requiring high-speed arithmetic and logic operations.
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