“The multiplier code. It’s yours, isn’t it? ‘silicon_sage’?”
]) product <= product + temp_A; temp_A <= temp_A << ; temp_B <= temp_B >> ; count <= count + Use code with caution. Copied to clipboard GitHub Resources & Reference Models
Once you have the , consider these optimizations:
// Filename: mul8_sequential.v // Description: 8-bit sequential multiplier using shift-add algorithm module mul8_sequential ( input clk, input rst_n, input start, input [7:0] multiplicand, input [7:0] multiplier, output reg [15:0] product, output reg done ); reg [7:0] A, Q; // Multiplicand, Multiplier reg [15:0] P; // Product register (16 bits) reg [3:0] bit_count; // Counter for 8 iterations
Combinational and sequential examples included. The combinational module produces a 16-bit product directly; the sequential version uses shift-add over 8 cycles and exposes start/done handshake.
// Expected results for verification reg [15:0] expected; integer error_count; integer i, j;
