In this research, we suggest adopting reversible logic gates rather than conventional gates to design and synthesize a 16-bit reversible ALU
This manuscript banks on the design of reversible gates and implementation of an Arithmetic Logic Unit β 16 bit (ALU) utilizing Verilog with Xilinx ISE 14.7, Spartan 6 FPGA kit. The same functionality is compared with a basic logic gate-based ALU. Reversible gates can produce a distinct output vector from each input vector, and the opposite is also possible. Circuits with irreversible gates suffer from data erosion. Power loss results from a circuit's loss of data. In conclusion, gates with reversible logic are preferable over irreversible counterparts. A library of reversible gates, comprising of AND, OR, NAND, NOR, and XOR, using Verification Logic Hardware Description Language (HDL) is developed, which in turn contributes to the designing of arithmetic and combinational logic like full adder, decoder (2:4), decoder (3:8), multiplier, full subtractor, and comparator
Keywords : Reversible Logic Gates, Verilog, Xilinx ISE.
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Software Requirements:
β’ Xilinx ISE Tool/Xilinx Vivado
β’ HDL: Verilog
Learning Outcomes:
β’ Basics of Digital Electronics
β’ Reversible Logic Gates
β’ FPGA design Flow
β’ Introduction to Verilog Coding
β’ Different modeling styles in Verilog
o Data Flow modeling
o Structural modeling
o Behavioral modeling
o Mixed level modeling
β’ Xilinx ISE 14.7/Xilinx Vivado for design and simulation
β’ Generation of Netlist
β’ Solution providing for real time problems
β’ Project Development Skills:
o Problem Analysis Skills
o Problem Solving Skills
o Logical Skills
o Designing Skills