帮我生成AES128的Verilog module

Sure, here's a basic implementation of AES128 in Verilog:

module AES128(
    input [127:0] key,
    input [127:0] plaintext,
    output [127:0] ciphertext
);

  // Key schedule initialization
  reg [31:0] w[43:0];
  generate
    // First round from key
    begin
      w[0][31:0] = key[127:96];
      w[0][31:0] = key[95:64];
      w[0][31:0] = key[63:32];
      w[0][31:0] = key[31:0];
    end
 
    // Subsequent rounds
    for (i = 1; i < 44; i = i + 1) begin
      if (i mod 4 == 0) begin
        w[i][31:0] = w[i-4][7:0]  ^ w[i-1][23:16] ^ 
                     w[i-1][15:8] ^ w[i-1][7:0]  ^ 
                     rcon[i/4];
      end else begin
        w[i][31:0] = w[i-4][31:0] ^ w[i-1][23:0];
      end
    end
  endgenerate
 
  // Encryption loop
  reg [127:0] state;
  assign state = plaintext;
  reg [3:0] round;
  reg [31:0] temp;
  for (round = 0; round < 10; round = round + 1) begin
    // SubBytes
    state[7:0]   = sbox[state[7:0]];
    state[15:8]  = sbox[state[15:8]];
    state[23:16] = sbox[state[23:16]];
    state[31:24] = sbox[state[31:24]];
 
    state[39:32] = sbox[state[39:32]];
    state[47:40] = sbox[state[47:40]];
    state[55:48] = sbox[state[55:48]];
    state[63:56] = sbox[state[63:56]];
 
    state[71:64] = sbox[state[71:64]];
    state[79:72] = sbox[state[79:72]];
    state[87:80] = sbox[state[87:80]];
    state[95:88] = sbox[state[95:88]];
 
    state[103:96] = sbox[state[103:96]];
    state[111:104] = sbox[state[111:104]];
    state[119:112] = sbox[state[119:112]];
    state[127:120] = sbox[state[127:120]];
 
    // ShiftRows
    temp[31:0] = state[31:0];
    state[31:0] = {temp[9:0], temp[31:10]};
 
    temp[31:0] = state[63:32];
    state[63:32] = {temp[18:0], temp[31:19]};
 
    temp[31:0] = state[95:64];
    state[95:64] = {temp[27:0], temp[31:28]};
 
    temp[31:0] = state[127:96];
    state[127:96] = {temp[36:0], temp[31:37]};
 
    // MixColumns
    for (i = 0; i < 16; i = i + 4) begin
      temp = (state[i+3] << 24) |
             (state[i+2] << 16) |
             (state[i+1] << 8)  |
              state[i];
 
      temp = mixcolumns[temp[31:0]] ^
             mixcolumns[temp[23:16]] ^
             mixcolumns[temp[15:8]] ^
             mixcolumns[temp[7:0]];
 
      state[i]   = temp[7:0];
      state[i+1] = temp[15:8];
      state[i+2] = temp[23:16];
      state[i+3] = temp[31:24];
    end
 
    // AddRoundKey
    state = state ^ w[round*4][127:0];
    state = state ^ w[round*4+1][127:0];
    state = state ^ w[round*4+2][127:0];
    state = state ^ w[round*4+3][127:0];
  end
 
  // Final AddRoundKey
  state = state ^ w[40][127:0];
  state = state ^ w[41][127:0];
  state = state ^ w[42][127:0];
 
  assign ciphertext = state;
endmodule

Note that this is a very basic implementation and could be improved upon in many ways (e.g. using pipelining or optimizing for specific FPGAs). It is also missing the S-box and Rcon values, which would need to be provided in the module or loaded from memory during synthesis.