quicklogic/pp3/techmap/cells_map.v

// ============================================================================
// Constant sources

// Reduce logic_0 and logic_1 cells to 1'b0 and 1'b1. Const sources suitable
// for VPR will be added by Yosys during EBLIF write.
module logic_0(output a);
    assign a = 0;
endmodule

module logic_1(output a);
    assign a = 1;
endmodule


// ============================================================================
// IO and clock buffers

module inpad(output Q, input P);

  parameter IO_PAD  = "";
  parameter IO_LOC  = "";
  parameter IO_TYPE = "";

  generate if (IO_TYPE == "SDIOMUX") begin

      SDIOMUX_CELL _TECHMAP_REPLACE_ (
      .I_PAD_$inp(P),
      .I_DAT(Q),
      .I_EN (1'b1),
      .O_PAD_$out(),
      .O_DAT(),
      .O_EN (1'b1)
      );

  end else begin

      BIDIR_CELL # (
      .ESEL     (1'b1),
      .OSEL     (1'b1),
      .FIXHOLD  (1'b0),
      .WPD      (1'b0),
      .DS       (1'b0)
      ) _TECHMAP_REPLACE_ (
      .I_PAD_$inp(P),
      .I_DAT(Q),
      .I_EN (1'b1),
      .O_PAD_$out(),
      .O_DAT(),
      .O_EN (1'b0)
      );

  end endgenerate

endmodule

module outpad(output P, input A);

  parameter IO_PAD  = "";
  parameter IO_LOC  = "";
  parameter IO_TYPE = "";

  generate if (IO_TYPE == "SDIOMUX") begin

      SDIOMUX_CELL _TECHMAP_REPLACE_ (
      .I_PAD_$inp(),
      .I_DAT(),
      .I_EN (1'b1),
      .O_PAD_$out(P),
      .O_DAT(A),
      .O_EN (1'b0)
      );

  end else begin

      BIDIR_CELL # (
      .ESEL     (1'b1),
      .OSEL     (1'b1),
      .FIXHOLD  (1'b0),
      .WPD      (1'b0),
      .DS       (1'b0)
      ) _TECHMAP_REPLACE_ (
      .I_PAD_$inp(),
      .I_DAT(),
      .I_EN (1'b0),
      .O_PAD_$out(P),
      .O_DAT(A),
      .O_EN (1'b1)
      );

  end endgenerate

endmodule

module bipad(input A, input EN, output Q, inout P);

  parameter IO_PAD  = "";
  parameter IO_LOC  = "";
  parameter IO_TYPE = "";

  generate if (IO_TYPE == "SDIOMUX") begin

      wire nEN;

      inv INV (
      .A(EN),
      .Q(nEN)
      );

      SDIOMUX_CELL SDIOMUX (
      .I_PAD_$inp(P),
      .I_DAT(Q),
      .I_EN (1'b1),
      .O_PAD_$out(P),
      .O_DAT(A),
      .O_EN (nEN)
      );

  end else begin

      BIDIR_CELL # (
      .ESEL     (1'b1),
      .OSEL     (1'b1),
      .FIXHOLD  (1'b0),
      .WPD      (1'b0),
      .DS       (1'b0)
      ) _TECHMAP_REPLACE_ (
      .I_PAD_$inp(P),
      .I_DAT(Q),
      .I_EN (1'b1),
      .O_PAD_$out(P),
      .O_DAT(A),
      .O_EN (EN)
      );

  end endgenerate

endmodule

module ckpad(output Q, input P);

  parameter IO_PAD  = "";
  parameter IO_LOC  = "";
  parameter IO_TYPE = "";

  // If the IO_TYPE is not set or it is set to CLOCK map the ckpad to a CLOCK
  // cell.
  generate if (IO_TYPE == "" || IO_TYPE == "CLOCK") begin

      // In VPR GMUX has to be explicityl present in the netlist. Add it here.

      wire C;

      CLOCK_CELL clock (
      .I_PAD(P),
      .O_CLK(C)
      );

      GMUX_IP gmux (
      .IP  (C),
      .IZ  (Q),
      .IS0 (1'b0)
      );

  // Otherwise make it an inpad cell that gets mapped to BIDIR or SDIOMUX
  end else begin

      inpad #(
      .IO_PAD(IO_PAD),
      .IO_LOC(IO_LOC),
      .IO_TYPE(IO_TYPE)
      ) _TECHMAP_REPLACE_ (
      .Q(Q),
      .P(P)
      );

  end endgenerate

endmodule

// ============================================================================

module qhsckibuff(input A, output Z);

  // The qhsckibuff is used to reach the global clock network from the regular
  // routing network. The clock gets inverted.

  wire AI;
  inv inv (.A(A), .Q(AI));

  GMUX_IC gmux (
  .IC  (AI),
  .IZ  (Z),
  .IS0 (1'b1)
  );

endmodule

module qhsckbuff(input A, output Z);

  // The qhsckbuff is used to reach the global clock network from the regular
  // routing network.
  GMUX_IC _TECHMAP_REPLACE_ (
  .IC  (A),
  .IZ  (Z),
  .IS0 (1'b1)
  );

endmodule

module gclkbuff(input A, output Z);

  // The gclkbuff is used to reach the global clock network from the regular
  // routing network.
  GMUX_IC _TECHMAP_REPLACE_ (
  .IC  (A),
  .IZ  (Z),
  .IS0 (1'b1)
  );

endmodule


// ============================================================================
// logic_cell_macro

module logic_cell_macro(
    input BA1,
    input BA2,
    input BAB,
    input BAS1,
    input BAS2,
    input BB1,
    input BB2,
    input BBS1,
    input BBS2,
    input BSL,
    input F1,
    input F2,
    input FS,
    input QCK,
    input QCKS,
    input QDI,
    input QDS,
    input QEN,
    input QRT,
    input QST,
    input TA1,
    input TA2,
    input TAB,
    input TAS1,
    input TAS2,
    input TB1,
    input TB2,
    input TBS,
    input TBS1,
    input TBS2,
    input TSL,
    output CZ,
    output FZ,
    output QZ,
    output TZ

);

    wire [1023:0] _TECHMAP_DO_ = "proc; clean";

    parameter _TECHMAP_CONSTMSK_TAS1_ = 1'bx;
    parameter _TECHMAP_CONSTVAL_TAS1_ = 1'bx;
    parameter _TECHMAP_CONSTMSK_TAS2_ = 1'bx;
    parameter _TECHMAP_CONSTVAL_TAS2_ = 1'bx;
    parameter _TECHMAP_CONSTMSK_TBS1_ = 1'bx;
    parameter _TECHMAP_CONSTVAL_TBS1_ = 1'bx;
    parameter _TECHMAP_CONSTMSK_TBS2_ = 1'bx;
    parameter _TECHMAP_CONSTVAL_TBS2_ = 1'bx;

    parameter _TECHMAP_CONSTMSK_BAS1_ = 1'bx;
    parameter _TECHMAP_CONSTVAL_BAS1_ = 1'bx;
    parameter _TECHMAP_CONSTMSK_BAS2_ = 1'bx;
    parameter _TECHMAP_CONSTVAL_BAS2_ = 1'bx;
    parameter _TECHMAP_CONSTMSK_BBS1_ = 1'bx;
    parameter _TECHMAP_CONSTVAL_BBS1_ = 1'bx;
    parameter _TECHMAP_CONSTMSK_BBS2_ = 1'bx;
    parameter _TECHMAP_CONSTVAL_BBS2_ = 1'bx;
    
    parameter _TECHMAP_CONSTMSK_QCKS_ = 1'bx;
    parameter _TECHMAP_CONSTVAL_QCKS_ = 1'bx;

    localparam [0:0] P_TAS1 = (_TECHMAP_CONSTMSK_TAS1_ == 1'b1) && (_TECHMAP_CONSTVAL_TAS1_ == 1'b1);
    localparam [0:0] P_TAS2 = (_TECHMAP_CONSTMSK_TAS2_ == 1'b1) && (_TECHMAP_CONSTVAL_TAS2_ == 1'b1);
    localparam [0:0] P_TBS1 = (_TECHMAP_CONSTMSK_TBS1_ == 1'b1) && (_TECHMAP_CONSTVAL_TBS1_ == 1'b1);
    localparam [0:0] P_TBS2 = (_TECHMAP_CONSTMSK_TBS2_ == 1'b1) && (_TECHMAP_CONSTVAL_TBS2_ == 1'b1);

    localparam [0:0] P_BAS1 = (_TECHMAP_CONSTMSK_BAS1_ == 1'b1) && (_TECHMAP_CONSTVAL_BAS1_ == 1'b1);
    localparam [0:0] P_BAS2 = (_TECHMAP_CONSTMSK_BAS2_ == 1'b1) && (_TECHMAP_CONSTVAL_BAS2_ == 1'b1);
    localparam [0:0] P_BBS1 = (_TECHMAP_CONSTMSK_BBS1_ == 1'b1) && (_TECHMAP_CONSTVAL_BBS1_ == 1'b1);
    localparam [0:0] P_BBS2 = (_TECHMAP_CONSTMSK_BBS2_ == 1'b1) && (_TECHMAP_CONSTVAL_BBS2_ == 1'b1);
    
    localparam [0:0] P_QCKS = (_TECHMAP_CONSTMSK_QCKS_ == 1'b1) && (_TECHMAP_CONSTVAL_QCKS_ == 1'b1);

    // Make Yosys fail in case when any of the non-routable ports is connected
    // to anything but const.
    generate if (_TECHMAP_CONSTMSK_TAS1_ != 1'b1 ||
                 _TECHMAP_CONSTMSK_TAS2_ != 1'b1 ||
                 _TECHMAP_CONSTMSK_TBS1_ != 1'b1 ||
                 _TECHMAP_CONSTMSK_TBS2_ != 1'b1 ||

                 _TECHMAP_CONSTMSK_BAS1_ != 1'b1 ||
                 _TECHMAP_CONSTMSK_BAS2_ != 1'b1 ||
                 _TECHMAP_CONSTMSK_BBS1_ != 1'b1 ||
                 _TECHMAP_CONSTMSK_BBS2_ != 1'b1 ||

                 _TECHMAP_CONSTMSK_QCKS_ != 1'b1)
    begin
        wire _TECHMAP_FAIL_;

    end endgenerate

    LOGIC_MACRO #
    (
    .TAS1   (P_TAS1),
    .TAS2   (P_TAS2),
    .TBS1   (P_TBS1),
    .TBS2   (P_TBS2),
    .BAS1   (P_BAS1),
    .BAS2   (P_BAS2),
    .BBS1   (P_BBS1),
    .BBS2   (P_BBS2),
    .Z_QCKS (!P_QCKS)

    ) _TECHMAP_REPLACE_ (
    .TBS    (TBS),
    .TAB    (TAB),
    .TSL    (TSL),
    .TA1    (TA1),
    .TA2    (TA2),
    .TB1    (TB1),
    .TB2    (TB2),
    .BAB    (BAB),
    .BSL    (BSL),
    .BA1    (BA1),
    .BA2    (BA2),
    .BB1    (BB1),
    .BB2    (BB2),
    .TZ     (TZ),
    .CZ     (CZ),

    .QCK    (QCK),
    .QST    (QST),
    .QRT    (QRT),
    .QEN    (QEN),
    .QDI    (QDI),
    .QDS    (QDS),
    .QZ     (QZ),

    .F1     (F1),
    .F2     (F2),
    .FS     (FS),
    .FZ     (FZ)
    );

endmodule

// ============================================================================
// basic logic elements

module inv (
  output Q,
  input A,
);

  // The F-Frag
  F_FRAG f_frag (
  .F1(1'b1),
  .F2(1'b0),
  .FS(A),
  .FZ(Q)
  );
endmodule

// ============================================================================
// Multiplexers

module mux2x0 (
  output Q,
  input  S,
  input  A,
  input  B
);

  // The F-Frag
  F_FRAG f_frag (
  .F1(A),
  .F2(B),
  .FS(S),
  .FZ(Q)
  );

endmodule

module mux4x0 (
    output Q,
    input  S0,
    input  S1,
    input  A,
    input  B,
    input  C,
    input  D
);

  // T_FRAG to be packed either into T_FRAG or B_FRAG.
  T_FRAG # (
  .XAS1(1'b0),
  .XAS2(1'b0),
  .XBS1(1'b0),
  .XBS2(1'b0)
  )
  t_frag (
  .TBS(1'b1), // Always route to const1
  .XAB(S1),
  .XSL(S0),
  .XA1(A),
  .XA2(B),
  .XB1(C),
  .XB2(D),
  .XZ (Q)
  );

endmodule

module mux8x0 (
    output Q,
    input  S0,
    input  S1,
    input  S2,
    input  A,
    input  B,
    input  C,
    input  D,
    input  E,
    input  F,
    input  G,
    input  H
);

  C_FRAG # (
  .TAS1(1'b0),
  .TAS2(1'b0),
  .TBS1(1'b0),
  .TBS2(1'b0),
  .BAS1(1'b0),
  .BAS2(1'b0),
  .BBS1(1'b0),
  .BBS2(1'b0),
  )
  c_frag (
  .TBS(S2),
  .TAB(S1),
  .TSL(S0),
  .TA1(A),
  .TA2(B),
  .TB1(C),
  .TB2(D),
  .BAB(S1),
  .BSL(S0),
  .BA1(E),
  .BA2(F),
  .BB1(G),
  .BB2(H),
  .CZ (Q)
  );

endmodule

// ============================================================================
// LUTs

module LUT1 (
  output O,
  input  I0
);
  parameter [1:0] INIT = 0;
  parameter EQN = "(I0)";

  // The F-Frag
  F_FRAG f_frag (
  .F1(INIT[0]),
  .F2(INIT[1]),
  .FS(I0),
  .FZ(O)
  );

endmodule


module LUT2 (
  output O,
  input  I0,
  input  I1
);
  parameter [3:0] INIT = 0;
  parameter EQN = "(I0)";

  wire XSL = I0;
  wire XAB = I1;

  wire XA1 = INIT[0];
  wire XA2 = INIT[1];
  wire XB1 = INIT[2];
  wire XB2 = INIT[3];

  // T_FRAG to be packed either into T_FRAG or B_FRAG.
  T_FRAG # (
  .XAS1(1'b0),
  .XAS2(1'b0),
  .XBS1(1'b0),
  .XBS2(1'b0)
  )
  t_frag
  (
  .TBS(1'b1), // Always route to const1
  .XAB(XAB),
  .XSL(XSL),
  .XA1(XA1),
  .XA2(XA2),
  .XB1(XB1),
  .XB2(XB2),
  .XZ (O)
  );

endmodule


module LUT3 (
  output O,
  input  I0,
  input  I1,
  input  I2
);
  parameter [7:0] INIT = 0;
  parameter EQN = "(I0)";

  wire XSL = I1;
  wire XAB = I2;

  // Two bit group [H,L]
  // H =0:  T[AB]S[12] = GND, H=1:   VCC
  // HL=00: T[AB][12]  = GND, HL=11: VCC, else I0

  wire XA1;
  wire XA2;
  wire XB1;
  wire XB2;

  generate case(INIT[1:0])
    2'b00:   assign XA1 = 1'b0;
    2'b11:   assign XA1 = 1'b0;
    default: assign XA1 = I0;
  endcase endgenerate

  generate case(INIT[3:2])
    2'b00:   assign XA2 = 1'b0;
    2'b11:   assign XA2 = 1'b0;
    default: assign XA2 = I0;
  endcase endgenerate

  generate case(INIT[5:4])
    2'b00:   assign XB1 = 1'b0;
    2'b11:   assign XB1 = 1'b0;
    default: assign XB1 = I0;
  endcase endgenerate

  generate case(INIT[7:6])
    2'b00:   assign XB2 = 1'b0;
    2'b11:   assign XB2 = 1'b0;
    default: assign XB2 = I0;
  endcase endgenerate

  localparam XAS1 = INIT[0];
  localparam XAS2 = INIT[2];
  localparam XBS1 = INIT[4];
  localparam XBS2 = INIT[6];

  // T_FRAG to be packed either into T_FRAG or B_FRAG.
  T_FRAG # (
  .XAS1(XAS1),
  .XAS2(XAS2),
  .XBS1(XBS1),
  .XBS2(XBS2)
  )
  t_frag
  (
  .TBS(1'b1), // Always route to const1
  .XAB(XAB),
  .XSL(XSL),
  .XA1(XA1),
  .XA2(XA2),
  .XB1(XB1),
  .XB2(XB2),
  .XZ (O)
  );

endmodule


module LUT4 (
  output O,
  input  I0,
  input  I1,
  input  I2,
  input  I3
);
  parameter [15:0] INIT = 0;
  parameter EQN = "(I0)";

  wire TSL = I1;
  wire BSL = I1;
  wire TAB = I2;
  wire BAB = I2;
  wire TBS = I3;

  // Two bit group [H,L]
  // H =0:  [TB][AB]S[12] = GND, H=1:   VCC
  // HL=00: [TB][AB][12]  = GND, HL=11: VCC, else I0

  wire TA1;
  wire TA2;
  wire TB1;
  wire TB2;
  wire BA1;
  wire BA2;
  wire BB1;
  wire BB2;

  generate case(INIT[ 1: 0])
    2'b00:   assign TA1 = 1'b0;
    2'b11:   assign TA1 = 1'b0;
    default: assign TA1 = I0;
  endcase endgenerate

  generate case(INIT[ 3: 2])
    2'b00:   assign TA2 = 1'b0;
    2'b11:   assign TA2 = 1'b0;
    default: assign TA2 = I0;
  endcase endgenerate

  generate case(INIT[ 5: 4])
    2'b00:   assign TB1 = 1'b0;
    2'b11:   assign TB1 = 1'b0;
    default: assign TB1 = I0;
  endcase endgenerate

  generate case(INIT[ 7: 6])
    2'b00:   assign TB2 = 1'b0;
    2'b11:   assign TB2 = 1'b0;
    default: assign TB2 = I0;
  endcase endgenerate

  generate case(INIT[ 9: 8])
    2'b00:   assign BA1 = 1'b0;
    2'b11:   assign BA1 = 1'b0;
    default: assign BA1 = I0;
  endcase endgenerate

  generate case(INIT[11:10])
    2'b00:   assign BA2 = 1'b0;
    2'b11:   assign BA2 = 1'b0;
    default: assign BA2 = I0;
  endcase endgenerate

  generate case(INIT[13:12])
    2'b00:   assign BB1 = 1'b0;
    2'b11:   assign BB1 = 1'b0;
    default: assign BB1 = I0;
  endcase endgenerate

  generate case(INIT[15:14])
    2'b00:   assign BB2 = 1'b0;
    2'b11:   assign BB2 = 1'b0;
    default: assign BB2 = I0;
  endcase endgenerate

  localparam TAS1 = INIT[ 0];
  localparam TAS2 = INIT[ 2];
  localparam TBS1 = INIT[ 4];
  localparam TBS2 = INIT[ 6];
  localparam BAS1 = INIT[ 8];
  localparam BAS2 = INIT[10];
  localparam BBS1 = INIT[12];
  localparam BBS2 = INIT[14];

  // The C-Frag
  C_FRAG # (
  .TAS1(TAS1),
  .TAS2(TAS2),
  .TBS1(TBS1),
  .TBS2(TBS2),
  .BAS1(BAS1),
  .BAS2(BAS2),
  .BBS1(BBS1),
  .BBS2(BBS2)
  )
  c_frag
  (
  .TBS(TBS),
  .TAB(TAB),
  .TSL(TSL),
  .TA1(TA1),
  .TA2(TA2),
  .TB1(TB1),
  .TB2(TB2),
  .BAB(BAB),
  .BSL(BSL),
  .BA1(BA1),
  .BA2(BA2),
  .BB1(BB1),
  .BB2(BB2),
  .CZ (O)
  );

endmodule

// ============================================================================
// Flip-Flops

module dff(
  output Q,
  input  D,
  input  CLK
);

  parameter [0:0] INIT = 1'b0;

  Q_FRAG # (
  .Z_QCKS (1'b1)
  )
  _TECHMAP_REPLACE_
  (
  .QCK(CLK),
  .QST(1'b0),
  .QRT(1'b0),
  .QEN(1'b1),
  .QD (D),
  .QZ (Q),

  .CONST0 (1'b0),
  .CONST1 (1'b1)
  );

endmodule

module dffc(
  output Q,
  input  D,
  input  CLK,
  input  CLR
);

  parameter [0:0] INIT = 1'b0;

  Q_FRAG # (
  .Z_QCKS (1'b1)
  )
  _TECHMAP_REPLACE_
  (
  .QCK(CLK),
  .QST(1'b0),
  .QRT(CLR),
  .QEN(1'b1),
  .QD (D),
  .QZ (Q),

  .CONST0 (1'b0),
  .CONST1 (1'b1)
  );

endmodule

module dffp(
  output Q,
  input  D,
  input  CLK,
  input  PRE
);

  parameter [0:0] INIT = 1'b0;

  Q_FRAG # (
  .Z_QCKS (1'b1)
  )
  _TECHMAP_REPLACE_
  (
  .QCK(CLK),
  .QST(PRE),
  .QRT(1'b0),
  .QEN(1'b1),
  .QD (D),
  .QZ (Q),

  .CONST0 (1'b0),
  .CONST1 (1'b1)
  );

endmodule

module dffpc(
  output Q,
  input  D,
  input  CLK,
  input  CLR,
  input  PRE
);

  parameter [0:0] INIT = 1'b0;

  Q_FRAG # (
  .Z_QCKS (1'b1)
  )
  _TECHMAP_REPLACE_
  (
  .QCK(CLK),
  .QST(PRE),
  .QRT(CLR),
  .QEN(1'b1),
  .QD (D),
  .QZ (Q),

  .CONST0 (1'b0),
  .CONST1 (1'b1)
  );

endmodule

module dffe(
  output Q,
  input  D,
  input  CLK,
  input  EN
);

  parameter [0:0] INIT = 1'b0;

  Q_FRAG # (
  .Z_QCKS (1'b1)
  )
  _TECHMAP_REPLACE_
  (
  .QCK(CLK),
  .QST(1'b0),
  .QRT(1'b0),
  .QEN(EN),
  .QD (D),
  .QZ (Q),

  .CONST0 (1'b0),
  .CONST1 (1'b1)
  );

endmodule

module dffec(
  output Q,
  input  D,
  input  CLK,
  input  EN,
  input  CLR
);

  parameter [0:0] INIT = 1'b0;

  Q_FRAG # (
  .Z_QCKS (1'b1)
  )
  _TECHMAP_REPLACE_
  (
  .QCK(CLK),
  .QST(1'b0),
  .QRT(CLR),
  .QEN(EN),
  .QD (D),
  .QZ (Q),

  .CONST0 (1'b0),
  .CONST1 (1'b1)
  );

endmodule

module dffepc(
  output Q,
  input  D,
  input  CLK,
  input  EN,
  input  CLR,
  input  PRE
);

  parameter [0:0] INIT = 1'b0;

  Q_FRAG # (
  .Z_QCKS (1'b1)
  )
  _TECHMAP_REPLACE_
  (
  .QCK(CLK),
  .QST(PRE),
  .QRT(CLR),
  .QEN(EN),
  .QD (D),
  .QZ (Q),

  .CONST0 (1'b0),
  .CONST1 (1'b1)
  );

endmodule

module dffsc(
  output Q,
  input  D,
  input  CLK,
  input  CLR,
);

  parameter [0:0] INIT = 1'b0;

  Q_FRAG # (
  .Z_QCKS (1'b1)
  )
  _TECHMAP_REPLACE_
  (
  .QCK(CLK),
  .QST(1'b0),
  .QRT(CLR),
  .QEN(1'b1),
  .QD (D),
  .QZ (Q),

  .CONST0 (1'b0),
  .CONST1 (1'b1)
  );

endmodule
// ============================================================================
// The "qlal4s3b_cell_macro" macro

module qlal4s3b_cell_macro (
  input         WB_CLK,
  input         WBs_ACK,
  input  [31:0] WBs_RD_DAT,
  output [3:0]  WBs_BYTE_STB,
  output        WBs_CYC,
  output        WBs_WE,
  output        WBs_RD,
  output        WBs_STB,
  output [16:0] WBs_ADR,
  input  [3:0]  SDMA_Req,
  input  [3:0]  SDMA_Sreq,
  output [3:0]  SDMA_Done,
  output [3:0]  SDMA_Active,
  input  [3:0]  FB_msg_out,
  input  [7:0]  FB_Int_Clr,
  output        FB_Start,
  input         FB_Busy,
  output        WB_RST,
  output        Sys_PKfb_Rst,
  output        Clk_C16,
  output        Clk_C16_Rst,
  output        Clk_C21,
  output        Clk_C21_Rst,
  output        Sys_Pclk,
  output        Sys_Pclk_Rst,
  input         Sys_PKfb_Clk,
  input  [31:0] FB_PKfbData,
  output [31:0] WBs_WR_DAT,
  input  [3:0]  FB_PKfbPush,
  input         FB_PKfbSOF,
  input         FB_PKfbEOF,
  output [7:0]  Sensor_Int,
  output        FB_PKfbOverflow,
  output [23:0] TimeStamp,
  input         Sys_PSel,
  input  [15:0] SPIm_Paddr,
  input         SPIm_PEnable,
  input         SPIm_PWrite,
  input  [31:0] SPIm_PWdata,
  output        SPIm_PReady,
  output        SPIm_PSlvErr,
  output [31:0] SPIm_Prdata,
  input  [15:0] Device_ID,
  input  [13:0] FBIO_In_En,
  input  [13:0] FBIO_Out,
  input  [13:0] FBIO_Out_En,
  output [13:0] FBIO_In,
  inout  [13:0] SFBIO,
  input         Device_ID_6S, 
  input         Device_ID_4S, 
  input         SPIm_PWdata_26S, 
  input         SPIm_PWdata_24S,  
  input         SPIm_PWdata_14S, 
  input         SPIm_PWdata_11S, 
  input         SPIm_PWdata_0S, 
  input         SPIm_Paddr_8S, 
  input         SPIm_Paddr_6S, 
  input         FB_PKfbPush_1S, 
  input         FB_PKfbData_31S, 
  input         FB_PKfbData_21S,
  input         FB_PKfbData_19S,
  input         FB_PKfbData_9S,
  input         FB_PKfbData_6S,
  input         Sys_PKfb_ClkS,
  input         FB_BusyS,
  input         WB_CLKS
);

  ASSP #() _TECHMAP_REPLACE_
  (
  .WB_CLK           (WB_CLK         ),
  .WBs_ACK          (WBs_ACK        ),
  .WBs_RD_DAT       (WBs_RD_DAT     ),
  .WBs_BYTE_STB     (WBs_BYTE_STB   ),
  .WBs_CYC          (WBs_CYC        ),
  .WBs_WE           (WBs_WE         ),
  .WBs_RD           (WBs_RD         ),
  .WBs_STB          (WBs_STB        ),
  .WBs_ADR          (WBs_ADR        ),
  .SDMA_Req         (SDMA_Req       ),
  .SDMA_Sreq        (SDMA_Sreq      ),
  .SDMA_Done        (SDMA_Done      ),
  .SDMA_Active      (SDMA_Active    ),
  .FB_msg_out       (FB_msg_out     ),
  .FB_Int_Clr       (FB_Int_Clr     ),
  .FB_Start         (FB_Start       ),
  .FB_Busy          (FB_Busy        ),
  .WB_RST           (WB_RST         ),
  .Sys_PKfb_Rst     (Sys_PKfb_Rst   ),
  .Sys_Clk0         (Clk_C16        ),
  .Sys_Clk0_Rst     (Clk_C16_Rst    ),
  .Sys_Clk1         (Clk_C21        ),
  .Sys_Clk1_Rst     (Clk_C21_Rst    ),
  .Sys_Pclk         (Sys_Pclk       ),
  .Sys_Pclk_Rst     (Sys_Pclk_Rst   ),
  .Sys_PKfb_Clk     (Sys_PKfb_Clk   ),
  .FB_PKfbData      (FB_PKfbData    ),
  .WBs_WR_DAT       (WBs_WR_DAT     ),
  .FB_PKfbPush      (FB_PKfbPush    ),
  .FB_PKfbSOF       (FB_PKfbSOF     ),
  .FB_PKfbEOF       (FB_PKfbEOF     ),
  .Sensor_Int       (Sensor_Int     ),
  .FB_PKfbOverflow  (FB_PKfbOverflow),
  .TimeStamp        (TimeStamp      ),
  .Sys_PSel         (Sys_PSel       ),
  .SPIm_Paddr       (SPIm_Paddr     ),
  .SPIm_PEnable     (SPIm_PEnable   ),
  .SPIm_PWrite      (SPIm_PWrite    ),
  .SPIm_PWdata      (SPIm_PWdata    ),
  .SPIm_PReady      (SPIm_PReady    ),
  .SPIm_PSlvErr     (SPIm_PSlvErr   ),
  .SPIm_Prdata      (SPIm_Prdata    ),
  .Device_ID        (Device_ID      )
  );

  // TODO: The macro "qlal4s3b_cell_macro" has a bunch of non-routable signals
  // Figure out what they are responsible for and if there are any bits they
  // control.

endmodule

module qlal4s3_mult_32x32_cell (
    input [31:0] Amult,
    input [31:0] Bmult,
    input [1:0] Valid_mult,
    output [63:0] Cmult);

    MULT #() _TECHMAP_REPLACE_
    (
      .Amult(Amult),
      .Bmult(Bmult),
      .Valid_mult(Valid_mult),
      .Cmult(Cmult),
      .sel_mul_32x32(1'b1)
    );

endmodule /* qlal4s3_32x32_mult_cell */

module qlal4s3_mult_16x16_cell (
    input [15:0] Amult,
    input [15:0] Bmult,
    input Valid_mult,
    output [31:0] Cmult);

    wire [31:0] Amult_int;
    wire [31:0] Bmult_int;
    wire [63:0] Cmult_int;

    assign Amult_int = {16'b0, Amult};
    assign Bmult_int = {16'b0, Bmult};

    MULT #() _TECHMAP_REPLACE_
    (
      .Amult(Amult_int),
      .Bmult(Bmult_int),
      .Valid_mult({1'b0, Valid_mult}),
      .Cmult(Cmult),
      .sel_mul_32x32(1'b0)
    );

endmodule /* qlal4s3_16x16_mult_cell */

module qlal4s3_mult_cell_macro(
    input [31:0] Amult,
    input [31:0] Bmult,
    input [1:0] Valid_mult,
    input sel_mul_32x32,
    output [63:0] Cmult);

    MULT #() _TECHMAP_REPLACE_
    (
      .Amult(Amult),
      .Bmult(Bmult),
      .Valid_mult(Valid_mult),
      .Cmult(Cmult),
      .sel_mul_32x32(sel_mul_32x32)
    );
endmodule