module nv_ram_rwst_256x8_logic (
               SI,
               SO_int_net,
               ary_atpg_ctl,
               ary_read_inh,
               clk,
               debug_mode,
               di,
               dout,
               iddq_mode,
               jtag_readonly_mode,
               mbist_Di_w0,
               mbist_Do_r0_int_net,
               mbist_Ra_r0,
               mbist_Wa_w0,
               mbist_ce_r0,
               mbist_en_sync,
               mbist_ramaccess_rst_,
               mbist_we_w0,
               pwrbus_ram_pd,
               ra,
               re,
               scan_en,
               scan_ramtms,
               shiftDR,
               svop,
               updateDR,
               wa,
               we,
               write_inh
        );
parameter FORCE_CONTENTION_ASSERTION_RESET_ACTIVE=1'b0;
// port list for submodule
input SI;
output SO_int_net;
input ary_atpg_ctl;
input ary_read_inh;
input clk;
input debug_mode;
input [7:0] di;
output [7:0] dout;
input iddq_mode;
input jtag_readonly_mode;
input [1:0] mbist_Di_w0;
output [7:0] mbist_Do_r0_int_net;
input [7:0] mbist_Ra_r0;
input [7:0] mbist_Wa_w0;
input mbist_ce_r0;
input mbist_en_sync;
input mbist_ramaccess_rst_;
input mbist_we_w0;
input [31:0] pwrbus_ram_pd;
input [7:0] ra;
input re;
input scan_en;
input scan_ramtms;
input shiftDR;
input [1:0] svop;
input updateDR;
input [7:0] wa;
input we;
input write_inh;
wire [7:0] sleep_en = pwrbus_ram_pd[7:0];
wire ret_en = pwrbus_ram_pd[8];
`ifndef FPGA
NV_BLKBOX_SINK UJ_BBOX2UNIT_UNUSED_pwrbus_9 (.A(pwrbus_ram_pd[9]));
`endif
`ifndef FPGA
NV_BLKBOX_SINK UJ_BBOX2UNIT_UNUSED_pwrbus_10 (.A(pwrbus_ram_pd[10]));
`endif
`ifndef FPGA
NV_BLKBOX_SINK UJ_BBOX2UNIT_UNUSED_pwrbus_11 (.A(pwrbus_ram_pd[11]));
`endif
`ifndef FPGA
NV_BLKBOX_SINK UJ_BBOX2UNIT_UNUSED_pwrbus_12 (.A(pwrbus_ram_pd[12]));
`endif
`ifndef FPGA
NV_BLKBOX_SINK UJ_BBOX2UNIT_UNUSED_pwrbus_13 (.A(pwrbus_ram_pd[13]));
`endif
`ifndef FPGA
NV_BLKBOX_SINK UJ_BBOX2UNIT_UNUSED_pwrbus_14 (.A(pwrbus_ram_pd[14]));
`endif
`ifndef FPGA
NV_BLKBOX_SINK UJ_BBOX2UNIT_UNUSED_pwrbus_15 (.A(pwrbus_ram_pd[15]));
`endif
`ifndef FPGA
NV_BLKBOX_SINK UJ_BBOX2UNIT_UNUSED_pwrbus_16 (.A(pwrbus_ram_pd[16]));
`endif
`ifndef FPGA
NV_BLKBOX_SINK UJ_BBOX2UNIT_UNUSED_pwrbus_17 (.A(pwrbus_ram_pd[17]));
`endif
`ifndef FPGA
NV_BLKBOX_SINK UJ_BBOX2UNIT_UNUSED_pwrbus_18 (.A(pwrbus_ram_pd[18]));
`endif
`ifndef FPGA
NV_BLKBOX_SINK UJ_BBOX2UNIT_UNUSED_pwrbus_19 (.A(pwrbus_ram_pd[19]));
`endif
`ifndef FPGA
NV_BLKBOX_SINK UJ_BBOX2UNIT_UNUSED_pwrbus_20 (.A(pwrbus_ram_pd[20]));
`endif
`ifndef FPGA
NV_BLKBOX_SINK UJ_BBOX2UNIT_UNUSED_pwrbus_21 (.A(pwrbus_ram_pd[21]));
`endif
`ifndef FPGA
NV_BLKBOX_SINK UJ_BBOX2UNIT_UNUSED_pwrbus_22 (.A(pwrbus_ram_pd[22]));
`endif
`ifndef FPGA
NV_BLKBOX_SINK UJ_BBOX2UNIT_UNUSED_pwrbus_23 (.A(pwrbus_ram_pd[23]));
`endif
`ifndef FPGA
NV_BLKBOX_SINK UJ_BBOX2UNIT_UNUSED_pwrbus_24 (.A(pwrbus_ram_pd[24]));
`endif
`ifndef FPGA
NV_BLKBOX_SINK UJ_BBOX2UNIT_UNUSED_pwrbus_25 (.A(pwrbus_ram_pd[25]));
`endif
`ifndef FPGA
NV_BLKBOX_SINK UJ_BBOX2UNIT_UNUSED_pwrbus_26 (.A(pwrbus_ram_pd[26]));
`endif
`ifndef FPGA
NV_BLKBOX_SINK UJ_BBOX2UNIT_UNUSED_pwrbus_27 (.A(pwrbus_ram_pd[27]));
`endif
`ifndef FPGA
NV_BLKBOX_SINK UJ_BBOX2UNIT_UNUSED_pwrbus_28 (.A(pwrbus_ram_pd[28]));
`endif
`ifndef FPGA
NV_BLKBOX_SINK UJ_BBOX2UNIT_UNUSED_pwrbus_29 (.A(pwrbus_ram_pd[29]));
`endif
`ifndef FPGA
NV_BLKBOX_SINK UJ_BBOX2UNIT_UNUSED_pwrbus_30 (.A(pwrbus_ram_pd[30]));
`endif
`ifndef FPGA
NV_BLKBOX_SINK UJ_BBOX2UNIT_UNUSED_pwrbus_31 (.A(pwrbus_ram_pd[31]));
`endif
wire wthru;
reg wthru_en;
// DFT ATPG signals
wire ram_bypass = (scan_ramtms | ary_read_inh | wthru_en);
wire la_bist_clkw0;
wire la_bist_clkr0;
assign la_bist_clkr0 = la_bist_clkw0;
wire updateDR_sync;
sync2d_c_pp updateDR_synchronizer (.d(updateDR), .clk(la_bist_clkw0), .q(updateDR_sync), .clr_(mbist_ramaccess_rst_));
reg updateDR_sync_1p;
always @(posedge la_bist_clkr0 or negedge mbist_ramaccess_rst_) begin
    if (!mbist_ramaccess_rst_)
        updateDR_sync_1p <= 1'b0;
    else
        updateDR_sync_1p <= updateDR_sync;
end
wire debug_mode_sync;
wire dft_rst_gated_clk;
CKLNQD12PO4 CLK_GATE_clk (.Q(dft_rst_gated_clk), .CP(clk), .E(mbist_ramaccess_rst_), .TE(scan_en));
sync2d_c_pp debug_mode_synchronizer (.d(debug_mode), .clk(dft_rst_gated_clk), .q(debug_mode_sync), .clr_(mbist_ramaccess_rst_));
reg [7:0] Ra_array_reg_r0;
wire mbist_en_r;
// hardcode mbist_en_r stdcell flop to avoid x bash recoverability issue described in bug 1803479 comment #7
p_SDFCNQD1PO4 mbist_en_flop(.D(mbist_en_sync), .CP(dft_rst_gated_clk), .Q(mbist_en_r), .CDN(mbist_ramaccess_rst_));
// Declare the Data_reg signal beforehand
wire [7:0] Data_reg_r0;
// Data out bus for read port r0 for Output Mux
wire [7:0] r0_OutputMuxDataOut;
CKLNQD12PO4 UJ_la_bist_clkw0_gate (.Q(la_bist_clkw0), .CP(clk), .E(mbist_en_r | debug_mode_sync), .TE(scan_en));
assign wthru = ((ra == wa) & re & we & !debug_mode_sync & !mbist_en_r);
// verilint 548 off - Synchronous flipflop is inferred
always @(posedge clk) begin
    wthru_en <= (wthru | (wthru_en & !re)) & !debug_mode_sync & !mbist_en_r;
end
// verilint 548 on
// Write enable bus
wire we_0_0;
// Read enable bus
wire re_0_0;
// start of predeclareNvregSignals
wire ctx_ctrl_we;
wire clk_en_core = (re_0_0 | (|we_0_0));
wire gated_clk_core;
CKLNQD12PO4 UJ_clk_gate_core (.Q(gated_clk_core), .CP(clk), .E(clk_en_core), .TE(1'b0 | mbist_en_r | debug_mode_sync | scan_en));
wire shiftDR_en;
reg [7:0] pre_muxed_Di_w0;
wire [7:0] pre_muxed_Di_w0_A, pre_muxed_Di_w0_B;
wire pre_muxed_Di_w0_S;
assign pre_muxed_Di_w0_S = !debug_mode_sync;
assign pre_muxed_Di_w0_A = Data_reg_r0[7:0];
assign pre_muxed_Di_w0_B = {{4{mbist_Di_w0}}};
always @(pre_muxed_Di_w0_S or pre_muxed_Di_w0_A or pre_muxed_Di_w0_B)
    case(pre_muxed_Di_w0_S) // synopsys infer_mux
      1'b0 : pre_muxed_Di_w0 = pre_muxed_Di_w0_A;
      1'b1 : pre_muxed_Di_w0 = pre_muxed_Di_w0_B;
      default : pre_muxed_Di_w0 = {8{`tick_x_or_0}};
    endcase
reg [7:0] muxed_Di_w0;
wire [7:0] muxed_Di_w0_A, muxed_Di_w0_B;
assign muxed_Di_w0_A = {di[7:0]};
assign muxed_Di_w0_B = pre_muxed_Di_w0;
wire muxed_Di_w0_S = debug_mode_sync | mbist_en_r;
always @(muxed_Di_w0_S or muxed_Di_w0_A or muxed_Di_w0_B)
    case(muxed_Di_w0_S) // synopsys infer_mux
      1'b0 : muxed_Di_w0 = muxed_Di_w0_A;
      1'b1 : muxed_Di_w0 = muxed_Di_w0_B;
      default : muxed_Di_w0 = {8{`tick_x_or_0}};
    endcase
wire posedge_updateDR_sync = updateDR_sync & !updateDR_sync_1p;
wire access_en_w = posedge_updateDR_sync;
// ATPG logic: capture for non-data regs
wire dft_capdr_w = ary_atpg_ctl;
wire [7:0] pre_Wa_reg_w0;
reg [7:0] Wa_reg_w0;
wire [7:0] Wa_reg_w0_A, Wa_reg_w0_B;
wire Wa_reg_w0_S;
assign Wa_reg_w0_S = (!debug_mode_sync);
assign Wa_reg_w0_A = pre_Wa_reg_w0;
assign Wa_reg_w0_B = mbist_Wa_w0;
always @(Wa_reg_w0_S or Wa_reg_w0_A or Wa_reg_w0_B)
case(Wa_reg_w0_S) // synopsys infer_mux
  1'b0 : Wa_reg_w0 = Wa_reg_w0_A;
  1'b1 : Wa_reg_w0 = Wa_reg_w0_B;
  default : Wa_reg_w0 = {8{`tick_x_or_0}};
endcase
reg [7:0] muxed_Wa_w0;
wire [7:0] muxed_Wa_w0_A, muxed_Wa_w0_B;
wire muxed_Wa_w0_S;
assign muxed_Wa_w0_S = debug_mode_sync | mbist_en_r;
assign muxed_Wa_w0_A = wa;
assign muxed_Wa_w0_B = Wa_reg_w0;
always @(muxed_Wa_w0_S or muxed_Wa_w0_A or muxed_Wa_w0_B)
  case(muxed_Wa_w0_S) // synopsys infer_mux
    1'b0 : muxed_Wa_w0 = muxed_Wa_w0_A;
    1'b1 : muxed_Wa_w0 = muxed_Wa_w0_B;
    default : muxed_Wa_w0 = {8{`tick_x_or_0}};
  endcase
// testInst_*reg* for address and enable capture the signals going into RAM instance input
// 4.2.3.1 of bob's doc
wire Wa_reg_SO_w0;
wire [7:0]wadr_q;
assign pre_Wa_reg_w0 = wadr_q ;
wire we_reg_SO_w0;
wire re_reg_SO_r0;
wire we_reg_w0;
wire pre_we_w0;
assign pre_we_w0 = debug_mode_sync ?
        ({1{posedge_updateDR_sync}} & we_reg_w0) :
        {1{(mbist_en_r & mbist_we_w0)}};
reg muxed_we_w0;
wire muxed_we_w0_A, muxed_we_w0_B;
wire muxed_we_w0_S;
assign muxed_we_w0_S = debug_mode_sync | mbist_en_r;
assign muxed_we_w0_A = we_0_0;
assign muxed_we_w0_B = pre_we_w0;
always @(muxed_we_w0_S or muxed_we_w0_A or muxed_we_w0_B)
case(muxed_we_w0_S) // synopsys infer_mux
  1'b0 : muxed_we_w0 = muxed_we_w0_A;
  1'b1 : muxed_we_w0 = muxed_we_w0_B;
  default : muxed_we_w0 = {1{`tick_x_or_0}};
endcase
wire we_q;
assign we_reg_w0 = we_q ;
// ATPG logic: capture for non-data regs
wire dft_capdr_r = ary_atpg_ctl;
// ATPG logic: capture for non-data regs
wire [7:0] pre_Ra_reg_r0;
reg [7:0] Ra_reg_r0;
wire [7:0] Ra_reg_r0_A, Ra_reg_r0_B;
wire Ra_reg_r0_S;
assign Ra_reg_r0_S = (!debug_mode_sync);
assign Ra_reg_r0_A = pre_Ra_reg_r0;
assign Ra_reg_r0_B = mbist_Ra_r0;
always @(Ra_reg_r0_S or Ra_reg_r0_A or Ra_reg_r0_B)
case(Ra_reg_r0_S) // synopsys infer_mux
  1'b0 : Ra_reg_r0 = Ra_reg_r0_A;
  1'b1 : Ra_reg_r0 = Ra_reg_r0_B;
  default : Ra_reg_r0 = {8{`tick_x_or_0}};
endcase
wire [7:0] D_Ra_reg_r0;
reg [7:0] muxed_Ra_r0;
wire [7:0] muxed_Ra_r0_A, muxed_Ra_r0_B;
wire muxed_Ra_r0_S;
assign muxed_Ra_r0_S = debug_mode_sync | mbist_en_r;
assign muxed_Ra_r0_A = ra;
assign muxed_Ra_r0_B = Ra_reg_r0;
always @(muxed_Ra_r0_S or muxed_Ra_r0_A or muxed_Ra_r0_B)
case(muxed_Ra_r0_S) // synopsys infer_mux
  1'b0 : muxed_Ra_r0 = muxed_Ra_r0_A;
  1'b1 : muxed_Ra_r0 = muxed_Ra_r0_B;
  default : muxed_Ra_r0 = {8{`tick_x_or_0}};
endcase
assign D_Ra_reg_r0 = muxed_Ra_r0;
// verilint 110 off - Incompatible width
// verilint 630 off - Port connected to a NULL expression
// These are used for registering Ra in case of Latch arrays as well (i.e.
// used in functional path as well)
wire Ra_reg_SO_r0;
wire [7:0]radr_q;
assign pre_Ra_reg_r0 = radr_q ;
wire re_reg_r0;
wire access_en_r = posedge_updateDR_sync & re_reg_r0;
reg access_en_r_1p;
always @(posedge la_bist_clkw0 or negedge mbist_ramaccess_rst_)
  if (!mbist_ramaccess_rst_)
     access_en_r_1p <= 1'b0;
  else
     access_en_r_1p <= access_en_r;
wire pre_re_r0;
assign pre_re_r0 = (debug_mode_sync) ?
    (posedge_updateDR_sync & re_reg_r0) :
    (mbist_en_r & mbist_ce_r0);
reg muxed_re_r0;
wire muxed_re_r0_A, muxed_re_r0_B;
wire muxed_re_r0_S;
assign muxed_re_r0_S = debug_mode_sync | mbist_en_r;
assign muxed_re_r0_A = re;
assign muxed_re_r0_B = pre_re_r0;
always @(muxed_re_r0_S or muxed_re_r0_A or muxed_re_r0_B)
case(muxed_re_r0_S) // synopsys infer_mux
  1'b0 : muxed_re_r0 = muxed_re_r0_A;
  1'b1 : muxed_re_r0 = muxed_re_r0_B;
  default : muxed_re_r0 = `tick_x_or_0;
endcase
wire re_q;
assign re_reg_r0 = re_q ;
// ------------------ START PIECE ----------------------------------
// Suffix : Piece RAMDP_256X8_GL_M2_E2 (RamCell)
// Covers Addresses from 0 to 255 Addressrange: [7:0]
// Data Bit range: [7:0] (8 bits)
// Enables: 1 Enable range:
// Write Address bus
wire [7:0] wa_0_0;
assign wa_0_0 = muxed_Wa_w0[7:0];
// Write Data in bus
wire [7:0] Wdata;
assign Wdata = muxed_Di_w0[7:0];
assign we_0_0 = we;
// Read Address bus
wire [7:0] ra_0_0;
assign ra_0_0 = muxed_Ra_r0[7:0];
// Read DataOut bus
wire [7:0] dout_0_0;
assign re_0_0 = re;
// Doing Global setup for all ram pieces
// Following control signals are shared by all ram pieces
// Done global setup for ram pieces
//-----------------------------------------------------------
// Declare the Bist logic\n
// Declare some mbist control signals
//--------------------------------------------------
// Vlint doesn't understand paramaters?
// verilint 110 off - Incompatible width
//--------------------------------------------------
// Turn the verilint warnings on
// verilint 110 on - Incompatible width
// ----------------- begin Ram Cell RAMDP_256X8_GL_M2_E2 -------------
// Write Port Stuff -----
// Declare the Write address bus
wire web = ~(|muxed_we_w0) | write_inh;
// Read Port Stuff -----
// Declare the Read address bus
// Read enable
wire piece_re = muxed_re_r0 | ( scan_en & jtag_readonly_mode );
wire reb = !piece_re;
// Declare the ramOutData which connects to the ram directly
wire [7:0] ramDataOut;
assign dout_0_0[7:0] = ramDataOut[7:0];
RAMDP_256X8_GL_M2_E2 ram_Inst_256X8 (
                                       .CLK_W (gated_clk_core)
                                     , .WADR_7 (wa_0_0[7])
                                     , .WADR_6 (wa_0_0[6])
                                     , .WADR_5 (wa_0_0[5])
                                     , .WADR_4 (wa_0_0[4])
                                     , .WADR_3 (wa_0_0[3])
                                     , .WADR_2 (wa_0_0[2])
                                     , .WADR_1 (wa_0_0[1])
                                     , .WADR_0 (wa_0_0[0])
                                     , .WD_7 (Wdata[7])
                                     , .WD_6 (Wdata[6])
                                     , .WD_5 (Wdata[5])
                                     , .WD_4 (Wdata[4])
                                     , .WD_3 (Wdata[3])
                                     , .WD_2 (Wdata[2])
                                     , .WD_1 (Wdata[1])
                                     , .WD_0 (Wdata[0])
                                     , .WE (!web)
                                     , .CLK_R (gated_clk_core)
                                     , .RADR_7 (ra_0_0 [7])
                                     , .RADR_6 (ra_0_0 [6])
                                     , .RADR_5 (ra_0_0 [5])
                                     , .RADR_4 (ra_0_0 [4])
                                     , .RADR_3 (ra_0_0 [3])
                                     , .RADR_2 (ra_0_0 [2])
                                     , .RADR_1 (ra_0_0 [1])
                                     , .RADR_0 (ra_0_0 [0])
                                     , .RE (!reb)
                                     , .RD_7 (ramDataOut[7])
                                     , .RD_6 (ramDataOut[6])
                                     , .RD_5 (ramDataOut[5])
                                     , .RD_4 (ramDataOut[4])
                                     , .RD_3 (ramDataOut[3])
                                     , .RD_2 (ramDataOut[2])
                                     , .RD_1 (ramDataOut[1])
                                     , .RD_0 (ramDataOut[0])
                                     , .SVOP_0 (svop[0])
                                     , .SVOP_1 (svop[1])
                                     , .IDDQ (iddq_mode)
                                     , .SLEEP_EN_0 (sleep_en[0])
                                     , .SLEEP_EN_1 (sleep_en[1])
                                     , .SLEEP_EN_2 (sleep_en[2])
                                     , .SLEEP_EN_3 (sleep_en[3])
                                     , .SLEEP_EN_4 (sleep_en[4])
                                     , .SLEEP_EN_5 (sleep_en[5])
                                     , .SLEEP_EN_6 (sleep_en[6])
                                     , .SLEEP_EN_7 (sleep_en[7])
                                     , .RET_EN (ret_en)
                                     );
//--------------------------------------------------
// THIS IS ONLY FOR TESTING. REMOVE THIS LATER
// verilint 97 on - undefined instance errors turned on
//--------------------------------------------------
// ---------------------------------------------
// Declare the interface wires for Output Mux logic
// verilint 552 off - Different bits of a net are driven in different blocks (harmless,
// but some synthesis tools generate a warning for this)
reg [7:0] ram_r0_OutputMuxDataOut;
//For bitEnd 7, only one piece RAMDP_256X8_GL_M2_E2 in the column.
// verilint 17 off - Range (rather than full vector) in the sensitivity list
always @(dout_0_0[7:0] or Data_reg_r0[7:0] or ram_bypass)
begin
    ram_r0_OutputMuxDataOut[7:0] = (ram_bypass) ? Data_reg_r0[7:0]: dout_0_0;
end
assign r0_OutputMuxDataOut[7:0] = ram_r0_OutputMuxDataOut[7:0];
// verilint 17 on - Range (rather than full vector) in the sensitivity list
// --------------------- Output Mbist Interface logic -------------
// new mux in front of the data register
reg [8-1:0] muxed_Data_r0;
wire [8-1:0] muxed_Data_A, muxed_Data_B;
wire muxed_Data_S;
assign muxed_Data_S = debug_mode_sync ? (re_reg_r0) : mbist_en_r;
assign muxed_Data_A = muxed_Di_w0;
assign muxed_Data_B = r0_OutputMuxDataOut;
always @(muxed_Data_S or muxed_Data_A or muxed_Data_B)
  case(muxed_Data_S) // synopsys infer_mux
    1'b0 : muxed_Data_r0 = muxed_Data_A;
    1'b1 : muxed_Data_r0 = muxed_Data_B;
    default : muxed_Data_r0 = {8{`tick_x_or_0}};
  endcase
reg mbist_ce_r0_1p;
always @(posedge la_bist_clkw0) mbist_ce_r0_1p <= mbist_ce_r0;
wire captureDR_r0 = dft_capdr_r | (|wthru || ( debug_mode_sync ? (1'b1& (access_en_r_1p)) : ((mbist_en_r & (mbist_ce_r0_1p) & !1'b0))));
////MSB 7 LSB 0  and total rambit is 8 and  dsize is 8
wire Data_reg_SO_r0;
// verilint 110 off - Incompatible width
// verilint 630 off - Port connected to a NULL expression
// These are used for registering Ra in case of Latch arrays as well (i.e.
// used in functional path as well)
wire [7:0]data_regq;
assign Data_reg_r0[7:0] = data_regq[7:0] ;
// verilint 110 on - Incompatible width
// verilint 630 on - Port connected to a NULL expression
assign dout = r0_OutputMuxDataOut;
assign mbist_Do_r0_int_net = Data_reg_r0[8-1:0];
// Declare the SO which goes out finally
`ifndef EMU
`ifndef FPGA
`define NO_EMU_NO_FPGA
// lock-up latch for ram_access SO
LNQD1PO4 testInst_ram_access_lockup (
                   .Q(SO_int_net),
                   .D(Data_reg_SO_r0),
                   .EN(la_bist_clkw0));
`endif
`endif
`ifndef NO_EMU_NO_FPGA
// no latch allow during emulation synthesis
assign SO_int_net = Data_reg_SO_r0;
`endif
// Ram access scan chain
wire gated_clk_jtag_Wa_reg_w0;
CKLNQD12PO4 UJ_clk_jtag_Wa_reg_w0 (.Q(gated_clk_jtag_Wa_reg_w0), .CP(clk), .E(debug_mode_sync ? (( 1'b0 | shiftDR ) ) : (1'b0 | 1'b0 | mbist_en_r | ( 1'b0 | ary_atpg_ctl) ) ), .TE(scan_en));
ScanShareSel_JTAG_reg_ext_cg #(8, 0, 0) testInst_Wa_reg_w0 (
     .clk(gated_clk_jtag_Wa_reg_w0), .sel(debug_mode),
            .shiftDR(shiftDR),
            .reset_(1'b1), .D(muxed_Wa_w0), .Q(wadr_q),
            .scanin(SI), .scanout(Wa_reg_SO_w0) );
ScanShareSel_JTAG_reg_ext_cg #(1, 0, 0) testInst_we_reg_w0 (
     .clk(gated_clk_jtag_Wa_reg_w0), .sel(debug_mode),
            .shiftDR(shiftDR),
            .reset_(1'b1), .D(muxed_we_w0), .Q(we_q),
            .scanin(Wa_reg_SO_w0), .scanout(we_reg_SO_w0) );
ScanShareSel_JTAG_reg_ext_cg #(8, 0, 0) testInst_Ra_reg_r0 (
     .clk(gated_clk_jtag_Wa_reg_w0), .sel(debug_mode),
            .shiftDR(shiftDR),
            .reset_(1'b1), .D(muxed_Ra_r0), .Q(radr_q),
            .scanin(we_reg_SO_w0), .scanout(Ra_reg_SO_r0) );
ScanShareSel_JTAG_reg_ext_cg #(1, 0, 0) testInst_re_reg_r0 (
     .clk(gated_clk_jtag_Wa_reg_w0), .sel(debug_mode),
            .shiftDR(shiftDR),
            .reset_(1'b1), .D(muxed_re_r0), .Q(re_q),
            .scanin(Ra_reg_SO_r0), .scanout(re_reg_SO_r0) );
wire gated_clk_jtag_Data_reg_r0;
CKLNQD12PO4 UJ_clk_jtag_Data_reg_r0 (.Q(gated_clk_jtag_Data_reg_r0), .CP(clk), .E(captureDR_r0 | (debug_mode_sync & shiftDR)), .TE(scan_en));
ScanShareSel_JTAG_reg_ext_cg #(8, 0, 0) testInst_Data_reg_r0 (
     .clk(gated_clk_jtag_Data_reg_r0), .sel(debug_mode),
            .shiftDR(shiftDR),
            .reset_(1'b1), .D(muxed_Data_r0[7:0]), .Q(data_regq[7:0]),
            .scanin(re_reg_SO_r0), .scanout(Data_reg_SO_r0) );
`ifdef ASSERT_ON
`ifndef SYNTHESIS
reg sim_reset_;
initial sim_reset_ = 0;
always @(posedge clk) sim_reset_ <= 1'b1;
wire start_of_sim = sim_reset_;
wire disable_clk_x_test = $test$plusargs ("disable_clk_x_test") ? 1'b1 : 1'b0;
nv_assert_no_x #(1,1,0," Try Reading Ram when clock is x for read port r0") _clk_x_test_read (clk, sim_reset_, ((disable_clk_x_test===1'b0) && (|re===1'b1 )), clk);
nv_assert_no_x #(1,1,0," Try Writing Ram when clock is x for write port w0") _clk_x_test_write (clk, sim_reset_, ((disable_clk_x_test===1'b0) && (|we===1'b1)), clk);
`endif // SYNTHESIS 
`endif // ASSERT_ON
`ifdef ASSERT_ON
`ifndef SYNTHESIS
`endif
`endif
`ifdef ASSERT_ON
`ifndef SYNTHESIS
wire pwrbus_assertion_not_x_while_active = $test$plusargs ("pwrbus_assertion_not_x_while_active");
nv_assert_never #(0, 0, "Power bus cannot be X when read/write enable is set") _pwrbus_assertion_not_x_while_active_we ( we, sim_reset_ && !pwrbus_assertion_not_x_while_active, ^pwrbus_ram_pd === 1'bx);
nv_assert_never #(0, 0, "Power bus cannot be X when read/write enable is set") _pwrbus_assertion_not_x_while_active_re ( re, sim_reset_ && !pwrbus_assertion_not_x_while_active, ^pwrbus_ram_pd === 1'bx);
`endif
`endif
// submodule done
endmodule