You are an expert Verilog hardware designer working on a complete FPGA or ASIC project. You are given the full source code of a Verilog project. One of the modules in the project is incomplete — its implementation is missing and marked with:

// >>> Module Implementation Begin

// <<< Module Implementation End

Your task is to complete the missing implementation so that the entire project functions correctly. You must infer what the missing module or logic is supposed to do by analyzing the rest of the codebase: module names, signal connections, instantiations, comments, and usage patterns.

Follow these rules:

1. Only generate Verilog code to go between the `// >>> Module Implementation Begin` and `// <<< Module Implementation End` comments.
2. Use Verilog-2001 syntax. Ensure the code is synthesizable.
3. Assume the goal is a working, integrated hardware design — your code must make the whole system function as intended.
4. Analyze the naming, I/O ports, and how the module is instantiated or used in other parts of the project.
5. Implement correct behavior based on design context. Do not guess randomly — reason it out.
6. Avoid vendor-specific features unless explicitly required.
7. Do not output comments, explanation, or anything outside the required code region unless explicitly asked.

Your output should contain **only the Verilog code** that fits inside the marked region.

/*
 * Copyright (c) 2024 Your Name
 * SPDX-License-Identifier: Apache-2.0
 */

`default_nettype none

module tt_um_lfsr (
    input  wire [7:0] ui_in,    // Dedicated inputs
    output wire [7:0] uo_out,   // Dedicated outputs
    input  wire [7:0] uio_in,   // IOs: Input path
    output wire [7:0] uio_out,  // IOs: Output path
    output wire [7:0] uio_oe,   // IOs: Enable path (active high: 0=input, 1=output)
    input  wire       ena,      // always 1 when the design is powered, so you can ignore it
    input  wire       clk,      // clock
    input  wire       rst_n     // reset_n - low to reset
);
// >>> Module Implementation Begin

// <<< Module Implementation End
endmodule




module linear_feedback_shift_register(out, clock, reset, seed, load_seed);
	output reg out;
	input [31:0] seed;
	input load_seed;
	input reset;
	input clock;
	wire [31:0] flip_flop_outputs;
	wire [31:0] flip_flop_inputs;
	wire feedback1, feedback2, feedback3;
	flip_flop flip_flop_instance[31:0] (flip_flop_outputs, clock, reset, flip_flop_inputs);
	one_bit_mux muxes[31:0] (flip_flop_inputs, load_seed, seed, {flip_flop_outputs[30:0], feedback3});
	xor feedback_gate_one(feedback1, flip_flop_outputs[6], flip_flop_outputs[31]);
	xor feedback_gate_two(feedback2, feedback1, flip_flop_outputs[5]);
	xor feedback_gate_three(feedback3, feedback2, flip_flop_outputs[1]);
	assign out = feedback3;
endmodule

module flip_flop(out, clock, reset, in);
	input clock;
	input reset;
	input in;
	output reg out;
	always @(posedge clock or posedge reset)
	begin

	if (reset)
		out = 0;
	else
		out = in;
	end
endmodule

module one_bit_mux(out, control, input_a, input_b);
	output reg out;
	input control, input_a, input_b;
	wire not_control;
	always @(control or not_control or input_a or input_b)
		out = (control & input_a) | (not_control & input_b);
		not (not_control, control);
endmodule


module wb_lfsr(i_clk, i_reset, i_wb_cyc, i_wb_stb, i_wb_we, i_wb_addr, i_wb_data, o_wb_stall, o_wb_data, o_wb_ack);
	input i_clk;
	input i_reset;
	input i_wb_cyc;
	input i_wb_stb;
	input i_wb_we;
	input [2:0] i_wb_addr;
	input[7:0] i_wb_data;

	output reg o_wb_stall;
	output reg o_wb_ack;
	output reg o_wb_data;

	reg [31:0] seed;
    reg lfsr_reset;
	reg load_seed;
	wire lfsr_out;

	linear_feedback_shift_register FLSR_instance(lfsr_out, i_clk, lfsr_reset, seed, load_seed);

	assign	o_wb_stall = 1'b0;

	always @(posedge i_clk)
	if ((i_wb_stb)&&(i_wb_we)&&(!o_wb_stall)&&(i_wb_cyc))
	begin
		case (i_wb_addr)
			3'b000 :	seed[7:0] <= i_wb_data;
			3'b001 :	seed[15:8] <= i_wb_data;
			3'b010 :	seed[23:16] <= i_wb_data;
			3'b011 :	seed[31:24] <= i_wb_data;
			3'b100 :
			begin
			    lfsr_reset <= i_wb_data[0];
        		load_seed <= i_wb_data[1];
        	end
			default:	seed <= 0;
		endcase
	end

	always @(posedge i_clk)
	if ((i_wb_stb)&&(!i_wb_we)&&(!o_wb_stall)&&(i_wb_cyc))
	begin
        o_wb_data <= lfsr_out;
	end

	initial	o_wb_ack = 1'b0;

	always @(posedge i_clk)
	if (i_reset) begin
		o_wb_ack <= 1'b0;
	end else
		o_wb_ack <= ((i_wb_stb) && (!o_wb_stall));

endmodule


Reference solution:
rtl/generated.v: 
    wire rst = ! rst_n;
    assign uio_oe = 8'b00000000;
    assign uio_out = 8'b00000000;
    assign uo_out[7:3] = 5'b00000;

    wb_lfsr wb_lfsr(
      .i_clk(clk), 
      .i_reset(rst), 
      .i_wb_cyc(uio_in[0]), 
      .i_wb_stb(uio_in[1]), 
      .i_wb_we(uio_in[2]), 
      .i_wb_addr(uio_in[5:3]), 
      .i_wb_data(ui_in), 
      .o_wb_stall(uo_out[0]),
      .o_wb_data(uo_out[1]),
      .o_wb_ack(uo_out[2])
);