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d_IBF_conv_decoding.v.bak
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d_IBF_conv_decoding.v.bak
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//Written by prof. Hyesook Lim at Ewha Womans University (2023.01).
//This code decodes the d-IBF with the conventional method.
//The conventional method has no consideration about T1 or T2 cases, and hence generates many composite keys, which composed of many elements.
//In order to properly use this design, a directory named "result_conv" should exist in the current simulation directory.
//Result files for experimentA or experiment B will be made in the result_conv directory.
`include "headers.v"
module d_IBF_conv_decoding (input clk, reset, Start, input Wr, input [`CellSize-1: 0] IBF_Row, input [`IndexSize:0] Addr,
output reg wrDone, output reg allDone, output wire [`SetLen-1:0] decodedNum,
output reg [7:0] sigNotEqualCount, T1CaseCount );
reg [`CellSize-1:0] IBF [0: `IBFSize-1];
reg [`CellSize-1:0] IBF_comb [0: `IBFSize-1];
reg pureListupDone;
parameter S0 = 0, S1 = 1;
reg state, nextState;
reg IBF_Load, pureListDecoding;
wire pureListEmpty;
reg IBF_Empty;
wire [`CRCLength-1:0] CRC_code;
reg Done;
wire pureDone;
integer i;
wire [`CellSize-1:0] currentCell;
reg preStart;
wire crcStart;
wire [`KeyField-1:0] Key, h1_key, h2_key, h3_key;
wire [`SigField-1:0] sigField, inSig, h1_sig, h2_sig, h3_sig;
wire sigNotEqual;
wire [`CountField-1:0] countField, h1_count, h2_count, h3_count;
reg [0:`IBFSize-1] pureList, pureListPre;
reg [`IndexSize-1:0] pureIndex;
wire [`IndexSize-1:0] h1_index, h2_index, h3_index;
wire cellSkip, fakePure;
reg [`KeyField:0] decodedList [1: `DecodeMax] ;
reg [`SetLen-1:0] decodeIndex;
CRCgenerator CRC (clk, reset, crcStart, Key, crcDone, CRC_code);
always @(posedge clk)
if (reset) Done <= 1'b0;
else Done <= pureDone;
always @(posedge clk)
if (reset) allDone <= 1'b0;
else allDone <= Done;
assign decodedNum = (decodeIndex-1);
//IBF processing
always @(posedge clk) begin
if (reset) wrDone <= 0;
else if ((IBF_Load) & (Wr)) begin
if (Addr <`IBFSize) begin
IBF[Addr] <= IBF_Row;
wrDone <= 0;
end
else if (Addr ==`IBFSize) wrDone <= 1;
end
else begin
wrDone <= 0;
if (crcDone & !pureDone & !fakePure) begin
IBF[h1_index] <= IBF_comb[h1_index];
IBF[h2_index] <= IBF_comb[h2_index];
IBF[h3_index] <= IBF_comb[h3_index];
end
end
end
always @(posedge clk)
if (reset) state <= S0;
else state <= nextState;
always @(*) begin
case (state)
S0: begin //IBF Load
IBF_Load = 1;
pureListDecoding = 0;
if (wrDone) nextState = S1;
else nextState = S0;
end
S1: begin //Decoding in pureList
IBF_Load = 0;
pureListDecoding = 1;
if (pureDone) nextState = S0;
else nextState = S1;
end
default: begin
IBF_Load = 0;
pureListDecoding = 0;
end
endcase
end
assign pureListEmpty = ~|pureList;
always @(*) begin
if (pureDone)
for (i=0;i<`IBFSize; i=i+1) IBF_Empty = (IBF[i] == 'b0) ? 1: 0;
else IBF_Empty = 0;
end
assign pureDone = (pureListDecoding & pureListEmpty ) ? 1: 0;
assign h1_index = (pureListDecoding & crcDone) ? CRC_code[`CRCLength-1: `CRCLength-`IndexSize] % `IBFSize : 'bz;
assign h2_index = (pureListDecoding & crcDone) ? CRC_code[`CRCLength-`NextIndexStart-1: `CRCLength-`NextIndexStart-`IndexSize] % `IBFSize : 'bz;
assign h3_index = (pureListDecoding & crcDone) ? CRC_code[`IndexSize-1: 0] % `IBFSize : 'bz;
always @(posedge clk)
if (reset) pureListupDone <= 0;
else if (wrDone) pureListupDone <= 1;
else pureListupDone <= 0;
always @(posedge clk) begin
if (reset) pureIndex <= 0;
else if (pureListDecoding & crcDone) pureIndex <= (pureIndex + 1) % `IBFSize;
if (pureListDecoding & !pureList[pureIndex]) pureIndex <= (pureIndex + 1) % `IBFSize; //non-pure cells are skiped
end
assign T1Case = (pureListDecoding & crcDone &
((pureIndex != h1_index) & (pureIndex != h2_index) & (pureIndex != h3_index)) ) ? 1'b1: 1'b0;
always @(posedge clk)
if (reset) T1CaseCount <= 0;
else if (T1Case) T1CaseCount <= T1CaseCount + 1;
always @(posedge clk)
if (reset) sigNotEqualCount <= 0;
else if (sigNotEqual) sigNotEqualCount <= sigNotEqualCount + 1;
assign sigNotEqual = (pureListDecoding & crcDone & (inSig != sigField) ) ? 1'b1: 1'b0;
assign fakePure = sigNotEqual;
assign cellSkip = (!pureList[pureIndex] | fakePure) ? 1: 0;
//fill an entry to the decodedList
always @(posedge clk)
if (reset) decodeIndex <= 1;
else if (wrDone) decodeIndex <= 1;
else if (pureListDecoding & crcDone & !fakePure) decodeIndex <= decodeIndex+1;
//Type2Error is identified if the same Key is already decoded in the decoded list.
//In this case, the two same keys became invalid by setting the first bit with 0
/*
always @(posedge clk)
if (reset) begin T2ErrorNow <= 0; T2ErrorCount <= 0; end
else if (pureListDecoding & crcDone & !fakePure)
for (i=1; i<(decodeIndex + 1); i=i+1) if (decodedList[i] == {1'b1, Key}) begin
T2ErrorNow[decodeIndex] = 1'b1; T2ErrorCount <= T2ErrorCount + 1;
end
always @(posedge clk)
if (reset) T2ErrorPre <= 'b0;
else if (pureListDecoding & crcDone & !fakePure)
for (i=1; i<(decodeIndex + 1); i=i+1) if (decodedList[i] == {1'b1, Key}) T2ErrorPre[i] = 1'b1;
assign T2ErrorList = T2ErrorPre | T2ErrorNow;
*/
always @(posedge clk) begin
if (reset) for (i=1;i<`DecodeMax; i=i+1) decodedList[i] <= 0;
else if (pureListDecoding & crcDone & !fakePure) decodedList[decodeIndex] <= {1'b1, Key};
end
//crcStart generation
always @(posedge clk) begin
if (reset) preStart <= 0;
else if (pureListDecoding & !pureListEmpty & (pureListupDone | crcDone | cellSkip))
preStart <= 1;
else preStart <= 0;
end
assign crcStart = preStart & !cellSkip;
//parsing the current cell of pureIndex
assign currentCell = (pureListDecoding) ? IBF[pureIndex]: 'b0;
assign Key = (pureListDecoding & pureList[pureIndex]) ? currentCell[`CellSize-1:`CellSize-`KeyField] : 'b0;
assign sigField = IBF[pureIndex][`CellSize-`KeyField-1:`CellSize-`KeyField-`SigField ];
assign countField = (pureListDecoding & pureList[pureIndex]) ?
currentCell[`CellSize-`KeyField-`SigField-1:`CellSize-`KeyField-`SigField-`CountField] : 'b0;
assign inSig = (pureListDecoding & crcDone) ? CRC_code[`CRCLength-`IndexSize-1: `CRCLength-`IndexSize-`SigField]: 'bz;
//pure list generation, reset the current entry after processing and set the new one
always @(*) begin
if (crcDone & !pureDone) begin
if (!fakePure) begin
pureListPre[pureIndex] = 0;
case(pureIndex)
h1_index: begin //if the same indexes are generated.
if (h2_index == h3_index) begin
if (h2_count == 3)
pureListPre[h2_index] = 1;
else if (h2_count == 2)
pureListPre[h2_index] = 0;
else pureListPre[h2_index] = pureList[h2_index];
end
else begin //at the last pure cell processing, in case if two pure cells are decoded at the same time
if (h2_count == 2)
pureListPre[h2_index] = 1;
else if (h2_count == 1)
pureListPre[h2_index] = 0;
else if ( (IBF[h2_index][`CellSize-1:`CellSize-`KeyField] != 0 ) & // if count field is 0, then should be set
(h2_count == 0) )
pureListPre[h2_index] = 1;
else pureListPre[h2_index] = pureList[h2_index];
if (h3_count == 2)
pureListPre[h3_index] = 1;
else if (h3_count == 1)
pureListPre[h3_index] = 0;
else if ( (IBF[h3_index][`CellSize-1:`CellSize-`KeyField] != 0 ) & (h3_count == 0) )
pureListPre[h3_index] = 1;
else pureListPre[h3_index] = pureList[h3_index];
end
end
h2_index: begin
if (h1_index == h3_index) begin
if (h1_count == 3)
pureListPre[h1_index] = 1;
else if (h1_count == 2)
pureListPre[h1_index] = 0;
else pureListPre[h1_index] = pureList[h1_index];
end
else begin
if (h1_count == 2)
pureListPre[h1_index] = 1;
else if (h1_count == 1)
pureListPre[h1_index] = 0;
else if ( (IBF[h1_index][`CellSize-1:`CellSize-`KeyField] != 0 ) & (h1_count == 0) )
pureListPre[h1_index] = 1;
else pureListPre[h1_index] = pureList[h1_index];
if (h3_count == 2)
pureListPre[h3_index] = 1;
else if (h3_count == 1)
pureListPre[h3_index] = 0;
else if ( (IBF[h3_index][`CellSize-1:`CellSize-`KeyField] != 0 ) & (h3_count == 0))
pureListPre[h3_index] = 1;
else pureListPre[h3_index] = pureList[h3_index];
end
end
h3_index: begin
if (h1_index == h2_index) begin
if (h1_count == 3)
pureListPre[h1_index] = 1;
else if (h1_count == 2)
pureListPre[h1_index] = 0;
else pureListPre[h1_index] = pureList[h1_index];
end
else begin
if (h1_count == 2)
pureListPre[h1_index] = 1;
else if (h1_count == 1)
pureListPre[h1_index] = 0;
else if ( (IBF[h1_index][`CellSize-1:`CellSize-`KeyField] != 0 ) &(h1_count == 0) )
pureListPre[h1_index] = 1;
else pureListPre[h1_index] = pureList[h1_index];
if (h2_count == 2)
pureListPre[h2_index] = 1;
else if (h2_count == 1)
pureListPre[h2_index] = 0;
else if ( (IBF[h2_index][`CellSize-1:`CellSize-`KeyField] != 0 ) & (h2_count == 0) )
pureListPre[h2_index] = 1;
else pureListPre[h2_index] = pureList[h2_index];
end
end
default: pureListPre[pureIndex] = 0;
//if pureIndex is not equal to any of h_indexes, then should be reset. Otherwise, simulation never stop.
endcase
end
else pureListPre[pureIndex] = 0; //if pureIndex is fakePure, then should be reset. Otherwise, simulation never stop.
end
else pureListPre = pureList;
end
always @(posedge clk) begin
if (reset) begin
pureList <= 'b0;
end
else if (wrDone) begin
for (i=0;i<`IBFSize; i=i+1) //initial pure list
if (IBF[i][`CellSize-`KeyField-`SigField-1: `CellSize-`KeyField-`SigField-`CountField] == 1)
pureList[i] <= 1;
else pureList[i] <= 0;
end
else if (crcDone & !pureDone) pureList <= pureListPre; //new generated pure cells during decoding
end
//parsing each field in IBF
assign h1_key = (crcDone & !pureDone & !fakePure) ? IBF[h1_index][`CellSize-1:`CellSize-`KeyField]:'bz;
assign h2_key = (crcDone & !pureDone & !fakePure) ? IBF[h2_index][`CellSize-1:`CellSize-`KeyField]:'bz;
assign h3_key = (crcDone & !pureDone & !fakePure) ? IBF[h3_index][`CellSize-1:`CellSize-`KeyField]:'bz;
assign h1_sig = (crcDone & !pureDone & !fakePure) ? IBF[h1_index][`CellSize-`KeyField-1:`CellSize-`KeyField-`SigField]:'bz;
assign h2_sig = (crcDone & !pureDone & !fakePure) ? IBF[h2_index][`CellSize-`KeyField-1:`CellSize-`KeyField-`SigField]:'bz;
assign h3_sig = (crcDone & !pureDone & !fakePure) ? IBF[h3_index][`CellSize-`KeyField-1:`CellSize-`KeyField-`SigField]:'bz;
assign h1_count = (crcDone & !pureDone & !fakePure) ? IBF[h1_index][`CellSize-`KeyField-`SigField-1: `CellSize-`KeyField-`SigField-`CountField]: 'bz;
assign h2_count = (crcDone & !pureDone & !fakePure) ? IBF[h2_index][`CellSize-`KeyField-`SigField-1: `CellSize-`KeyField-`SigField-`CountField]: 'bz;
assign h3_count = (crcDone & !pureDone & !fakePure) ? IBF[h3_index][`CellSize-`KeyField-`SigField-1: `CellSize-`KeyField-`SigField-`CountField]: 'bz;
//IBF processing. Since indexes could be the same,
//the following processing should be performed sequentially in a combinational always block.
always @(*) begin
IBF_comb[h1_index] = IBF[h1_index];
IBF_comb[h2_index] = IBF[h2_index];
IBF_comb[h3_index] = IBF[h2_index];
case(pureIndex)
h1_index: begin
IBF_comb[h1_index][`CellSize-1:`CellSize-`KeyField] = h1_key ^ Key;
IBF_comb[h1_index][`CellSize-`KeyField-1:`CellSize-`KeyField-`SigField ] = h1_sig ^ inSig;
// count field in d-IBF could be 0, if the number of elements is the same in two IBFs.
if (h1_count > 0)
IBF_comb[h1_index][`CellSize-`KeyField-`SigField-1: `CellSize-`KeyField-`SigField-`CountField] = h1_count - 1;
else //If it was 0, should be increased
IBF_comb[h1_index][`CellSize-`KeyField-`SigField-1: `CellSize-`KeyField-`SigField-`CountField] = h1_count + 1;
if (h2_index == h3_index) begin //if the same indexes are generated.
IBF_comb[h2_index] = IBF[h2_index];
IBF_comb[h2_index][`CellSize-`KeyField-`SigField-1: `CellSize-`KeyField-`SigField-`CountField] = h2_count - 2;
end
else begin
IBF_comb[h2_index][`CellSize-1:`CellSize-`KeyField] = h2_key ^ Key;
IBF_comb[h2_index][`CellSize-`KeyField-1:`CellSize-`KeyField-`SigField ] = h2_sig ^ inSig;
if (h2_count > 0)
IBF_comb[h2_index][`CellSize-`KeyField-`SigField-1: `CellSize-`KeyField-`SigField-`CountField] = h2_count - 1;
else
IBF_comb[h2_index][`CellSize-`KeyField-`SigField-1: `CellSize-`KeyField-`SigField-`CountField] = h2_count + 1;
IBF_comb[h3_index][`CellSize-1:`CellSize-`KeyField] = h3_key ^ Key;
IBF_comb[h3_index][`CellSize-`KeyField-1:`CellSize-`KeyField-`SigField] = h3_sig ^ inSig;
if (h3_count > 0)
IBF_comb[h3_index][`CellSize-`KeyField-`SigField-1: `CellSize-`KeyField-`SigField-`CountField] = h3_count - 1;
else
IBF_comb[h3_index][`CellSize-`KeyField-`SigField-1: `CellSize-`KeyField-`SigField-`CountField] = h3_count + 1;
end
end
h2_index: begin
IBF_comb[h2_index][`CellSize-1:`CellSize-`KeyField] = h2_key ^ Key;
IBF_comb[h2_index][`CellSize-`KeyField-1:`CellSize-`KeyField-`SigField ] = h2_sig ^ inSig;
if (h2_count > 0)
IBF_comb[h2_index][`CellSize-`KeyField-`SigField-1: `CellSize-`KeyField-`SigField-`CountField] = h2_count - 1;
else
IBF_comb[h2_index][`CellSize-`KeyField-`SigField-1: `CellSize-`KeyField-`SigField-`CountField] = h2_count + 1;
if (h1_index == h3_index) begin //if the same indexes are generated.
IBF_comb[h1_index] = IBF[h1_index];
IBF_comb[h1_index][`CellSize-`KeyField-`SigField-1: `CellSize-`KeyField-`SigField-`CountField] = h1_count - 2;
end
else begin
IBF_comb[h1_index][`CellSize-1:`CellSize-`KeyField] = h1_key ^ Key;
IBF_comb[h1_index][`CellSize-`KeyField-1:`CellSize-`KeyField-`SigField ] = h1_sig ^ inSig;
if (h1_count > 0)
IBF_comb[h1_index][`CellSize-`KeyField-`SigField-1: `CellSize-`KeyField-`SigField-`CountField] = h1_count - 1;
else
IBF_comb[h1_index][`CellSize-`KeyField-`SigField-1: `CellSize-`KeyField-`SigField-`CountField] = h1_count + 1;
IBF_comb[h3_index][`CellSize-1:`CellSize-`KeyField] = h3_key ^ Key;
IBF_comb[h3_index][`CellSize-`KeyField-1:`CellSize-`KeyField-`SigField] = h3_sig ^ inSig;
if (h3_count > 0)
IBF_comb[h3_index][`CellSize-`KeyField-`SigField-1: `CellSize-`KeyField-`SigField-`CountField] = h3_count - 1;
else
IBF_comb[h3_index][`CellSize-`KeyField-`SigField-1: `CellSize-`KeyField-`SigField-`CountField] = h3_count + 1;
end
end
h3_index: begin
IBF_comb[h3_index][`CellSize-1:`CellSize-`KeyField] = h3_key ^ Key;
IBF_comb[h3_index][`CellSize-`KeyField-1:`CellSize-`KeyField-`SigField ] = h3_sig ^ inSig;
if (h3_count > 0)
IBF_comb[h3_index][`CellSize-`KeyField-`SigField-1: `CellSize-`KeyField-`SigField-`CountField] = h3_count - 1;
else
IBF_comb[h3_index][`CellSize-`KeyField-`SigField-1: `CellSize-`KeyField-`SigField-`CountField] = h3_count + 1;
if (h1_index == h2_index) begin //if the same indexes are generated.
IBF_comb[h1_index] = IBF[h1_index];
IBF_comb[h1_index][`CellSize-`KeyField-`SigField-1: `CellSize-`KeyField-`SigField-`CountField] = h1_count - 2;
end
else begin
IBF_comb[h1_index][`CellSize-1:`CellSize-`KeyField] = h1_key ^ Key;
IBF_comb[h1_index][`CellSize-`KeyField-1:`CellSize-`KeyField-`SigField ] = h1_sig ^ inSig;
if (h1_count > 0)
IBF_comb[h1_index][`CellSize-`KeyField-`SigField-1: `CellSize-`KeyField-`SigField-`CountField] = h1_count - 1;
else
IBF_comb[h1_index][`CellSize-`KeyField-`SigField-1: `CellSize-`KeyField-`SigField-`CountField] = h1_count + 1;
IBF_comb[h2_index][`CellSize-1:`CellSize-`KeyField] = h2_key ^ Key;
IBF_comb[h2_index][`CellSize-`KeyField-1:`CellSize-`KeyField-`SigField] = h2_sig ^ inSig;
if (h2_count > 0)
IBF_comb[h2_index][`CellSize-`KeyField-`SigField-1: `CellSize-`KeyField-`SigField-`CountField] = h2_count - 1;
else
IBF_comb[h2_index][`CellSize-`KeyField-`SigField-1: `CellSize-`KeyField-`SigField-`CountField] = h2_count + 1;
end
end
endcase
end
integer result1 = 0, result2 = 0;
wire [3:0] fileNo;
assign fileNo = (`IBFSize == 40) ? 1 : (`IBFSize == 60) ? 2: (`IBFSize == 80) ? 3 : (`IBFSize == 100) ? 4 :
(`IBFSize == 10000) ? 5 : (`IBFSize == 15000) ? 6: (`IBFSize == 20000) ? 7 : (`IBFSize == 25000) ? 8 :
(`IBFSize == 1000) ? 9 : (`IBFSize == 1500) ? 10: (`IBFSize == 2000) ? 11 : (`IBFSize == 2500) ? 12 : 0;
always @(posedge Done) begin
case (fileNo)
1: begin
result1 = $fopen ("./result_conv/d-IBF_Left_conv_40.txt");
result2 = $fopen ("./result_conv/decodedList_conv_40.txt");
end
2: begin
result1 = $fopen ("./result_conv/d-IBF_Left_conv_60.txt");
result2 = $fopen ("./result_conv/decodedList_conv_60.txt");
end
3: begin
result1 = $fopen ("./result_conv/d-IBF_Left_conv_80.txt");
result2 = $fopen ("./result_conv/decodedList_conv_80.txt");
end
4: begin
result1 = $fopen ("./result_conv/d-IBF_Left_conv_100.txt");
result2 = $fopen ("./result_conv/decodedList_conv_100.txt");
end
5: begin
result1 = $fopen ("./result_conv/d-IBF_Left_conv_10000.txt");
result2 = $fopen ("./result_conv/decodedList_conv_10000.txt");
end
6: begin
result1 = $fopen ("./result_conv/d-IBF_Left_conv_15000.txt");
result2 = $fopen ("./result_conv/decodedList_conv_15000.txt");
end
7: begin
result1 = $fopen ("./result_conv/d-IBF_Left_conv_20000.txt");
result2 = $fopen ("./result_conv/decodedList_conv_20000.txt");
end
8: begin
result1 = $fopen ("./result_conv/d-IBF_Left_conv_25000.txt");
result2 = $fopen ("./result_conv/decodedList_conv_25000.txt");
end
9: begin
result1 = $fopen ("./result_conv/d-IBF_Left_conv_1000.txt");
result2 = $fopen ("./result_conv/decodedList_conv_1000.txt");
end
10: begin
result1 = $fopen ("./result_conv/d-IBF_Left_conv_1500.txt");
result2 = $fopen ("./result_conv/decodedList_conv_1500.txt");
end
11: begin
result1 = $fopen ("./result_conv/d-IBF_Left_conv_2000.txt");
result2 = $fopen ("./result_conv/decodedList_conv_2000.txt");
end
12: begin
result1 = $fopen ("./result_conv/d-IBF_Left_conv_2500.txt");
result2 = $fopen ("./result_conv/decodedList_conv_2500.txt");
end
default: begin
result1 = $fopen ("./result_conv/d-IBF_Left_conv.txt");
result2 = $fopen ("./result_conv/decodedList_conv.txt");
end
endcase
for (i=0; i<`IBFSize; i=i+1) $fdisplay (result1, "IBF[%d] = %b", i, IBF[i]);
for (i=1; i<decodeIndex; i=i+1) $fdisplay (result2, "%b", decodedList[i] );
$fclose (result1);
$fclose (result2);
end
endmodule