Differences

This shows you the differences between two versions of the page.

--- trigger [2013/12/11 15:37]
pereira [Inputs and outputs]
+++ trigger [2013/12/11 15:53]
pereira [Trigger module]
@@ Line 49: / Line 49: @@
 ===== Trigger module =====
-The S800 trigger logic is built in a LeCroy ULM2367 FPGA module. Note that this module could be replaced in the future by another FPGA module provided it has enough NIM or ECL input/outputs (such as the VME XLM72 module for instance). This section describes the functionality of the S800 trigger module and the commands used to control its parameters.
+The S800 trigger logic is built in a LeCroy ULM2367 FPGA module. Note that this module could be replaced in the future by another FPGA module provided it has enough NIM or ECL input/outputs (such as the VME XLM72 module for instance). This section contains the functionality of the S800 trigger module and the commands used to control its parameters.
 ==== CAMAC commands ====
@@ Line 58: / Line 58: @@
 ==== Inputs and outputs ====
 A table with the list of inputs/outputs channels to/from the trigger module and their assignment can be found [[Inputs and outputs | here]].
-==FPGA firmware==
-The firmware of the trigger module is shown in the following files. The PDF file contains the schematic sheets, used for most of the design. The Verilog file contains the block dealing with CAMAC communications.
-File containing the schematics: [[File:usbtrig.pdf|100px|thumb|usbtrig.pdf]]
-Below is the Verilog code used in the configuration for the INTERNAL module:
-  module INTERNAL (N, S1, S2, Clock, F, A, Data_in,
-  DriveRead, Q, X, Data_out,
-  S800Delay, S800Width,
-  SecondaryDelay, SecondaryWidth,
-  S800TimingDelay, CoincTimingWidth,
-  SecondaryTimingDelay, Bypasses,
-  S800Factor, SecondaryFactor, TriggerBox,
-  ADCGate, QDCGate, TDCStart, Coincidence,
-  Inspect1, Inspect2, Inspect3, Inspect4,
-  Register, ClearModule, ClearRegister, Go,
-  TimeStamp, Select, SyncEnable
-  ) ;
-  input N ;
-  input S1 ;
-  input S2 ;
-  input Clock ;
-  input [4:0] F ;
-  input [3:0] A ;
-  input [23:0] Data_in ;
-  output Q ;
-  output X ;
-  output DriveRead;
-  output [23:0] Data_out ;
-  output [7:0] S800Delay;
-  output [7:0] S800Width ;
-  output [7:0] SecondaryDelay;
-  output [7:0] SecondaryWidth ;
-  output [7:0] S800TimingDelay;
-  output [7:0] CoincTimingWidth ;
-  output [7:0] SecondaryTimingDelay ;
-  output [4:0] Bypasses ;
-  output [9:0] S800Factor ;
-  output [9:0] SecondaryFactor ;
-  output [4:0] TriggerBox ;
-  output [7:0] ADCGate ;
-  output [7:0] QDCGate ;
-  output [7:0] TDCStart ;
-  output [7:0] Coincidence ;
-  output [4:0] Inspect1 ;
-  output [4:0] Inspect2 ;
-  output [4:0] Inspect3 ;
-  output [4:0] Inspect4 ;
-  input [4:0] Register;
-  output ClearModule;
-  output ClearRegister;
-  output Go;
-  input [63:0] TimeStamp;
-  output [1:0] Select;
-  output SyncEnable;
-  // add your declarations here
-  reg X;
-  reg Q;
-  reg DriveRead ;
-  reg ClearModule;
-  reg ClearRegister;
-  reg Go;
-  reg [1:0] Select;
-  reg SyncEnable;
-  reg [23:0] Data_out ;
-  reg [7:0] S800Delay;
-  reg [7:0] S800Width ;
-  reg [7:0] SecondaryDelay;
-  reg [7:0] SecondaryWidth ;
-  reg [7:0] S800TimingDelay;
-  reg [7:0] CoincTimingWidth ;
-  reg [7:0] SecondaryTimingDelay ;
-  reg [4:0] Bypasses ;
-  reg [9:0] S800Factor ;
-  reg [9:0] SecondaryFactor ;
-  reg [4:0] TriggerBox ;
-  reg [7:0] ADCGate ;
-  reg [7:0] QDCGate ;
-  reg [7:0] TDCStart ;
-  reg [7:0] Coincidence ;
-  reg [4:0] Inspect1 ;
-  reg [4:0] Inspect2 ;
-  reg [4:0] Inspect3 ;
-  reg [4:0] Inspect4 ;
-  // add your code here
-  always @(posedge Clock) begin
-    if (N) begin
-    case (F)
-'d0: begin
-      case (A)
-'d0: Data_out <= {16'd0, S800Delay};
-'d1: Data_out <= {16'd0, S800Width};
-'d2: Data_out <= {16'd0, SecondaryDelay};
-'d3: Data_out <= {16'd0, SecondaryWidth};
-'d4: Data_out <= {16'd0, S800TimingDelay};
-'d5: Data_out <= {16'd0, CoincTimingWidth};
-'d6: Data_out <= {16'd0, SecondaryTimingDelay};
-'d7: Data_out <= {19'd0, Bypasses};
-'d8: Data_out <= {14'd0, S800Factor};
-'d9: Data_out <= {14'd0, SecondaryFactor};
-'d10: Data_out <= {19'd0, TriggerBox};
-'d11: Data_out <= {23'd0, Go};
-'d12: Data_out <= {22'd0, Select};
-'d13: Data_out <= {23'd0, SyncEnable};
-'d14: Data_out <= 24'd5800;
-'d15: Data_out <= 24'd2367;
-        default: Data_out <= 24'd0;
-      endcase //A
-      end // F=0
-'d1: begin
-      case (A)
-'d0: Data_out <= {19'd0, Inspect1};
-'d1: Data_out <= {19'd0, Inspect2};
-'d2: Data_out <= {19'd0, Inspect3};
-'d3: Data_out <= {19'd0, Inspect4};
-        default: Data_out <= 24'd0;
-      endcase //A
-      end // F=1
-'d2: begin
-      case (A)
-'d0: Data_out <= {16'd0, ADCGate};
-'d1: Data_out <= {16'd0, QDCGate};
-'d2: Data_out <= {16'd0, TDCStart};
-'d3: Data_out <= {16'd0, Coincidence};
-        default: Data_out <= 24'd0;
-      endcase //A
-      end // F=2
-'d3: begin
-      case (A)
-'d0: Data_out <= {19'd0, Register};
-'d1: Data_out <= {8'd0, TimeStamp[15:0]};
-'d2: Data_out <= {8'd0, TimeStamp[31:16]};
-'d3: Data_out <= {8'd0, TimeStamp[47:32]};
-'d4: Data_out <= {8'd0, TimeStamp[63:48]};
-        default: Data_out <= 24'd0;
-      endcase //A
-      end // F=3
-'d9: begin
-      end // F=9
-'d16: begin
-      if (S1) begin
-        case (A)
-'d0: S800Delay <= Data_in[7:0];
-'d1: S800Width <= Data_in[7:0];
-'d2: SecondaryDelay <= Data_in[7:0];
-'d3: SecondaryWidth <= Data_in[7:0];
-'d4: S800TimingDelay <= Data_in[7:0];
-'d5: CoincTimingWidth <= Data_in[7:0];
-'d6: SecondaryTimingDelay <= Data_in[7:0];
-'d7: Bypasses <= Data_in[4:0];
-'d8: S800Factor <= Data_in[9:0];
-'d9: SecondaryFactor <= Data_in[9:0];
-'d10: TriggerBox <= Data_in[4:0];
-'d11: Go <= Data_in[0:0];
-'d12: Select <= Data_in[1:0];
-'d13: SyncEnable <= Data_in[0:0];
-        endcase //A
-      end // S1=1
-      end // F=16
-'d17: begin
-      if (S1) begin
-        case (A)
-'d0: Inspect1 <= Data_in[4:0];
-'d1: Inspect2 <= Data_in[4:0];
-'d2: Inspect3 <= Data_in[4:0];
-'d3: Inspect4 <= Data_in[4:0];
-        endcase //A
-      end // S1=1
-      end // F=17
-'d18: begin
-      if (S1) begin
-        case (A)
-'d0: ADCGate <= Data_in[7:0];
-'d1: QDCGate <= Data_in[7:0];
-'d2: TDCStart <= Data_in[7:0];
-'d3: Coincidence <= Data_in[7:0];
-        endcase //A
-      end // S1=1
-      end // F=18
-    endcase // F
-    end //N=1
-  end // always Clock
-  always @(N or S1 or F or A) begin
-    if (N) begin
-    case (F)
-'d0: begin
-      X = 1'b1;
-      Q = 1'b1;
-      DriveRead = 1'b1;
-      ClearModule = 1'b0;
-      ClearRegister = 1'b0;
-    end // F=0
-'d1: begin
-      X = 1'b1;
-      Q = 1'b1;
-      DriveRead = 1'b1;
-      ClearModule = 1'b0;
-      ClearRegister = 1'b0;
-    end // F=1
-'d2: begin
-      X = 1'b1;
-      Q = 1'b1;
-      DriveRead = 1'b1;
-      ClearModule = 1'b0;
-      ClearRegister = 1'b0;
-    end // F=2
-'d3: begin
-      X = 1'b1;
-      Q = 1'b1;
-      DriveRead = 1'b1;
-      ClearModule = 1'b0;
-      ClearRegister = 1'b0;
-    end // F=3
-'d9: begin
-      X = 1'b1;
-      Q = 1'b1;
-      DriveRead = 1'b0;
-      ClearModule = 1'b1;
-      ClearRegister = 1'b0;
-    end // F=9
-'d10: begin
-      X = 1'b1;
-      Q = 1'b1;
-      DriveRead = 1'b0;
-      ClearModule = 1'b0;
-      ClearRegister = 1'b1;
-    end // F=9
-'d16: begin
-      X = 1'b1;
-      Q = 1'b1;
-      DriveRead = 1'b0;
-      ClearModule = 1'b0;
-      ClearRegister = 1'b0;
-    end // F=16
-'d17: begin
-      X = 1'b1;
-      Q = 1'b1;
-      DriveRead = 1'b0;
-      ClearModule = 1'b0;
-      ClearRegister = 1'b0;
-    end // F=17
-'d18: begin
-      X = 1'b1;
-      Q = 1'b1;
-      DriveRead = 1'b0;
-      ClearModule = 1'b0;
-      ClearRegister = 1'b0;
-    end // F=18
-    default: begin
-      DriveRead = 1'b0;
-      ClearModule = 1'b0;
-      ClearRegister = 1'b0;
-      X = 1'b0;
-      Q = 1'b0;
-    end // default F
-    endcase // F
-    end // if (N)
-    else begin
-    DriveRead = 1'b0;
-    ClearModule = 1'b0;
-    ClearRegister = 1'b0;
-    X = 1'b0;
-    Q = 1'b0;
-    end // if (!N)
-  end // always N or S1 or A or F
-  endmodule
 ==== FPGA firmware ====
-The firmware of the trigger module is shown in the following files. The PDF file contains the schematic sheets, used for most of the design. The Verilog file contains the block dealing with CAMAC communications.
+The firmware of the trigger module is shown in the following files. The {{:wiki:Usbtrig.pdf|PDF file}} contains the schematic sheets, used for most of the design. The [[Verilog Trigger|Verilog file]] contains the block dealing with CAMAC communications.
-File containing the schematics: File:Usbtrig.pdf
-Below is the Verilog code used in the configuration for the INTERNAL module:
-................
-....................

S800 Documentation

User Tools

Site Tools

Differences

Page Tools