module pa_idu_reg32_high(
  cp0_idu_icg_en,
  cp0_yy_clk_en,
  cpurst_b,
  ctrl_gpr_div_inst,
  ctrl_gpr_ld_inst,
  forever_cpuclk,
  ifu_idu_warm_up,
  pad_yy_icg_scan_en,
  reg_busy_st_y,
  reg_dout_y,
  reg_fwd_en0_x,
  reg_fwd_en1_x,
  reg_fwd_en2_x,
  reg_high_cpuclk,
  reg_write_en0_x,
  reg_write_en1_x,
  reg_write_en2_x,
  reg_write_is0_x,
  rtu_idu_ex1_int_dis_stall_req,
  rtu_idu_flush_fe,
  write_data0,
  write_data1,
  write_data2
);

// &Ports; @24
input           cp0_idu_icg_en;               
input           cp0_yy_clk_en;                
input           cpurst_b;                     
input           ctrl_gpr_div_inst;            
input           ctrl_gpr_ld_inst;             
input           forever_cpuclk;               
input           ifu_idu_warm_up;              
input           pad_yy_icg_scan_en;           
input           reg_fwd_en0_x;                
input           reg_fwd_en1_x;                
input           reg_fwd_en2_x;                
input           reg_high_cpuclk;              
input           reg_write_en0_x;              
input           reg_write_en1_x;              
input           reg_write_en2_x;              
input           reg_write_is0_x;              
input           rtu_idu_ex1_int_dis_stall_req; 
input           rtu_idu_flush_fe;             
input   [31:0]  write_data0;                  
input   [31:0]  write_data1;                  
input   [31:0]  write_data2;                  
output  [2 :0]  reg_busy_st_y;                
output  [31:0]  reg_dout_y;                   

// &Regs; @25
reg     [2 :0]  reg_cur_st;                   
reg     [31:0]  reg_dout;                     
reg     [2 :0]  reg_nxt_st;                   

// &Wires; @26
wire            cp0_idu_icg_en;               
wire            cp0_yy_clk_en;                
wire            cpurst_b;                     
wire            ctrl_gpr_div_inst;            
wire            ctrl_gpr_ld_inst;             
wire            forever_cpuclk;               
wire            ifu_idu_warm_up;              
wire            pad_yy_icg_scan_en;           
wire    [2 :0]  reg_busy_st_y;                
wire            reg_clk_en;                   
wire            reg_cpuclk;                   
wire    [31:0]  reg_dout_y;                   
wire            reg_fwd_en0_x;                
wire            reg_fwd_en1_x;                
wire            reg_fwd_en2_x;                
wire            reg_high_cpuclk;              
wire            reg_write_en0_x;              
wire            reg_write_en1_x;              
wire            reg_write_en2_x;              
wire            reg_write_is0_x;              
wire            rtu_idu_ex1_int_dis_stall_req; 
wire            rtu_idu_flush_fe;             
wire    [31:0]  write_data0;                  
wire    [31:0]  write_data1;                  
wire    [31:0]  write_data2;                  
wire    [31:0]  write_in_data;                
wire            write_in_en;                  
wire            write_is_div_en;              
wire            write_is_en;                  
wire            write_is_ld_en;               


//==========================================================
//              Integated Clock Gating Cell
//==========================================================
assign reg_clk_en = reg_write_en0_x | reg_write_en1_x | reg_write_en2_x | ifu_idu_warm_up;
// &Instance("gated_clk_cell", "x_reg_gated_clk"); @32
gated_clk_cell  x_reg_gated_clk (
  .clk_in             (forever_cpuclk    ),
  .clk_out            (reg_cpuclk        ),
  .external_en        (1'b0              ),
  .global_en          (cp0_yy_clk_en     ),
  .local_en           (reg_clk_en        ),
  .module_en          (cp0_idu_icg_en    ),
  .pad_yy_icg_scan_en (pad_yy_icg_scan_en)
);

// &Connect(.clk_in      (forever_cpuclk), @33
//          .external_en (1'b0), @34
//          .global_en   (cp0_yy_clk_en), @35
//          .module_en ( cp0_idu_icg_en ) , @36
//          .local_en    (reg_clk_en), @37
//          .clk_out     (reg_cpuclk)); @38

//assign reg_sm_clk_en = reg_write_is_gate0_x | reg_write_is_gate1_x
//                    | write_in_en | rtu_idu_flush_fe;
//&Instance("gated_clk_cell", "x_reg_sm_gated_clk");
// //&Connect(.clk_in      (forever_cpuclk), @43
// //         .external_en (1'b0), @44
// //         .global_en   (cp0_yy_clk_en), @45
// //         .module_en ( cp0_idu_icg_en ) , @46
// //         .local_en    (reg_sm_clk_en), @47
// //         .clk_out     (reg_sm_cpuclk)); @48

//==========================================================
//                    Write Port
//==========================================================
assign write_in_en = reg_fwd_en0_x | reg_fwd_en1_x | reg_fwd_en2_x | ifu_idu_warm_up;
assign write_is_en = reg_write_is0_x; // | reg_write_is1_x;
assign write_in_data[31:0] = reg_write_en1_x ? write_data1[31:0]
                           : reg_write_en2_x ? write_data2[31:0]
                           : reg_write_en0_x | ifu_idu_warm_up ? write_data0[31:0]
                           : reg_dout[31:0];

assign write_is_ld_en  = write_is_en & ctrl_gpr_ld_inst & ~rtu_idu_ex1_int_dis_stall_req;
assign write_is_div_en = write_is_en & ctrl_gpr_div_inst & ~rtu_idu_ex1_int_dis_stall_req;

always @(posedge reg_cpuclk)
begin
  reg_dout[31:0] <= write_in_data[31:0];
end

parameter IDLE      = 3'b000;
parameter BUSY1     = 3'b001;
parameter BUSY_LSU1 = 3'b010;
parameter BUSY_DIV1 = 3'b011;
parameter BUSY2     = 3'b100;
parameter BUSY_LSU2 = 3'b110;
parameter BUSY_DIV2 = 3'b111;

always @(posedge reg_high_cpuclk or negedge cpurst_b)
begin
  if(~cpurst_b)
    reg_cur_st[2:0] <= IDLE;
  else if(rtu_idu_flush_fe)
    reg_cur_st[2:0] <= IDLE;
  else
    reg_cur_st[2:0] <= reg_nxt_st[2:0];
end

// &CombBeg; @96
always @( reg_cur_st[2:0]
       or reg_fwd_en2_x
       or write_is_en
       or write_is_div_en
       or write_in_en
       or reg_fwd_en1_x
       or reg_fwd_en0_x
       or write_is_ld_en)
begin
case(reg_cur_st[2:0])
  IDLE:
  begin
    if(write_is_en)
      if(write_is_ld_en)
        reg_nxt_st[2:0] = BUSY_LSU1;
      else if(write_is_div_en)
        reg_nxt_st[2:0] = BUSY_DIV1;
      else
        reg_nxt_st[2:0] = IDLE;
    else
      reg_nxt_st[2:0] = IDLE;
  end
  BUSY1:
  begin
    if(write_in_en)
      if(write_is_en)
        if(write_is_ld_en)
          reg_nxt_st[2:0] = BUSY_LSU1;
        else if(write_is_div_en)
          reg_nxt_st[2:0] = BUSY_DIV1;
        else
          reg_nxt_st[2:0] = BUSY1;
      else
        reg_nxt_st[2:0] = IDLE;
    else if(write_is_en)
      if(write_is_ld_en)
        reg_nxt_st[2:0] = BUSY_LSU2;
      else if(write_is_div_en)
        reg_nxt_st[2:0] = BUSY_DIV2;
      else
        reg_nxt_st[2:0] = BUSY2;
    else
      reg_nxt_st[2:0] = BUSY1;
  end
  BUSY_LSU1:
  begin
    if(reg_fwd_en1_x | reg_fwd_en2_x)
      if(write_is_en)
        if(write_is_ld_en)
          reg_nxt_st[2:0] = BUSY_LSU1;
        else if(write_is_div_en)
          reg_nxt_st[2:0] = BUSY_DIV1;
        else
          reg_nxt_st[2:0] = IDLE;
      else
        reg_nxt_st[2:0] = IDLE;
    else if(write_is_ld_en)
      reg_nxt_st[2:0] = BUSY_LSU2;
    else
      reg_nxt_st[2:0] = BUSY_LSU1;
  end
  BUSY_DIV1:
  begin
    if(reg_fwd_en0_x | reg_fwd_en2_x)
      if(write_is_en)
        if(write_is_ld_en)
          reg_nxt_st[2:0] = BUSY_LSU1;
        else if(write_is_div_en)
          reg_nxt_st[2:0] = BUSY_DIV1;
        else
          reg_nxt_st[2:0] = IDLE;
      else
        reg_nxt_st[2:0] = IDLE;
    else
      reg_nxt_st[2:0] = BUSY_DIV1;
  end
  BUSY2:
  begin
    if(write_in_en)
      if(write_is_en)
        if(write_is_ld_en)
          reg_nxt_st[2:0] = BUSY_LSU2;
        else if(write_is_div_en)
          reg_nxt_st[2:0] = BUSY_DIV2;
        else
          reg_nxt_st[2:0] = BUSY2;
      else
        reg_nxt_st[2:0] = BUSY1;
    else
      reg_nxt_st[2:0] = BUSY2;
  end
  BUSY_DIV2:
  begin
    if(reg_fwd_en0_x)
      if(write_is_div_en)
        reg_nxt_st[2:0] = BUSY_DIV2;
      else
        reg_nxt_st[2:0] = BUSY_DIV1;
    else
      reg_nxt_st[2:0] = BUSY_DIV2;
  end
  BUSY_LSU2:
  begin
    if(reg_fwd_en1_x)
      if(write_is_ld_en)
        reg_nxt_st[2:0] = BUSY_LSU2;
      else if(reg_fwd_en2_x)
        reg_nxt_st[2:0] = IDLE;
      else
        reg_nxt_st[2:0] = BUSY_LSU1;
    else if(reg_fwd_en2_x)
      reg_nxt_st[2:0] = BUSY_LSU1;
    else
      reg_nxt_st[2:0] = BUSY_LSU2;
  end
  default:
  begin
    reg_nxt_st[2:0] = IDLE;
  end
endcase
// &CombEnd; @208
end

assign reg_busy_st_y[2:0] = reg_cur_st[2:0];
assign reg_dout_y[31:0]   = write_in_data[31:0];

// &ModuleEnd; @213
endmodule