![]() ![]() Use some techniques to get through the design scenario-> Quite a lot of shifting and adding, right ? so from this particular way of multiplication we may Now see how computer actually does in binary -> ![]() Take multiplicand -> 14 (decimal) -B register Let's get through a basic example of multiplication. Here P is an accumulator, B is multiplier, A is multiplicand. Resister P (8-bit), Register B (8-bit), Register A (8-bit). But in this Multiplier unit (Shift and Add logic), a control unit takes care of sequences of operations which carry out the process of data depending upon the datapath unit.ĭesign is pretty simple, it is interconnected using blocks of shift register(left-shift), adder, nultiplexer and an add gate. In any Multiplier unit we basically use array of logc gates or array multiplier in which we use some adder units, but that requires a huge logic components and delay gets increased in those type of multipliers. Shift and ADD Accumulator based Multiplier design is a RTL level design which incorportates specific logical unit and shift registers and multiplexers. It was designed in Xilinx VIVADO using Verilog HDL. This project includes 4 bit configuration of Datapath and controller of shift and add sequential multiplier design. Shift-and-Add-Accumulator-Based-Multiplier-Design ![]()
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