/**************************************
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/**************************************
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* Module: localparameter
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* Module: localparameter
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* Date:2019-04-08
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* Date:2019-04-08
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* Author: alireza
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* Author: alireza
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*
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*
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* Description:
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* Description:
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***************************************/
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***************************************/
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`ifdef INCLUDE_TOPOLOGY_LOCALPARAM
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`ifdef INCLUDE_TOPOLOGY_LOCALPARAM
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//MESH, TORUS Topology p=5
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//MESH, TORUS Topology p=5
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localparam LOCAL = 0,
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localparam LOCAL = 0,
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EAST = 1,
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EAST = 1,
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NORTH = 2,
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NORTH = 2,
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WEST = 3,
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WEST = 3,
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SOUTH = 4;
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SOUTH = 4;
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//LINE RING Topology p=3
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//LINE RING Topology p=3
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localparam FORWARD = 1,
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localparam FORWARD = 1,
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BACKWARD= 2;
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BACKWARD= 2;
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function automatic integer log2;
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function automatic integer log2;
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input integer number; begin
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input integer number; begin
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log2=(number <=1) ? 1: 0;
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log2=(number <=1) ? 1: 0;
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while(2**log2<number) begin
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while(2**log2<number) begin
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log2=log2+1;
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log2=log2+1;
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end
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end
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end
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end
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endfunction // log2
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endfunction // log2
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function automatic integer powi; // x^y
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function automatic integer powi; // x^y
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input integer x,y;
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input integer x,y;
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integer i;begin //compute x to the y
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integer i;begin //compute x to the y
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powi=1;
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powi=1;
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for (i = 0; i <y; i=i+1 ) begin
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for (i = 0; i <y; i=i+1 ) begin
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powi=powi * x;
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powi=powi * x;
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end
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end
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end
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end
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endfunction // powi
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endfunction // powi
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function automatic integer sum_powi;//x^(y-1) + x^(y-2) + ...+ 1;
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function automatic integer sum_powi;//x^(y-1) + x^(y-2) + ...+ 1;
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input integer x,y;
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input integer x,y;
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integer i;begin
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integer i;begin
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sum_powi = 0;
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sum_powi = 0;
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for (i = 0; i < y; i=i+1)begin
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for (i = 0; i < y; i=i+1)begin
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sum_powi = sum_powi + powi( x, i );
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sum_powi = sum_powi + powi( x, i );
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end
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end
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end
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end
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endfunction // sum_powi
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endfunction // sum_powi
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// get the port num and return the port located at streight direction. If there is no strieght port return router_port_num.
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// get the port num and return the port located at streight direction. If there is no strieght port return router_port_num.
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function automatic integer strieght_port;
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function automatic integer strieght_port;
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input integer router_port_num; //router port num
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input integer router_port_num; //router port num
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input integer current_port;
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input integer current_port;
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begin
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begin
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/* verilator lint_off WIDTH */
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/* verilator lint_off WIDTH */
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if(TOPOLOGY == "MESH" || TOPOLOGY == "FMESH" || TOPOLOGY == "TORUS") begin
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if(TOPOLOGY == "MESH" || TOPOLOGY == "FMESH" || TOPOLOGY == "TORUS") begin
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/* verilator lint_on WIDTH */
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/* verilator lint_on WIDTH */
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strieght_port =
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strieght_port =
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(current_port== EAST)? WEST:
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(current_port== EAST)? WEST:
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(current_port== WEST)? EAST:
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(current_port== WEST)? EAST:
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(current_port== SOUTH)? NORTH:
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(current_port== SOUTH)? NORTH:
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(current_port== NORTH)? SOUTH:
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(current_port== NORTH)? SOUTH:
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router_port_num; //DISABLED;
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router_port_num; //DISABLED;
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end
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end
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/* verilator lint_off WIDTH */
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/* verilator lint_off WIDTH */
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else if (TOPOLOGY == "RING" || TOPOLOGY == "LINE") begin
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else if (TOPOLOGY == "RING" || TOPOLOGY == "LINE") begin
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/* verilator lint_on WIDTH */
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/* verilator lint_on WIDTH */
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strieght_port =
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strieght_port =
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(current_port== FORWARD )? BACKWARD:
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(current_port== FORWARD )? BACKWARD:
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(current_port== BACKWARD)? FORWARD:
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(current_port== BACKWARD)? FORWARD:
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router_port_num; //DISABLED;
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router_port_num; //DISABLED;
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end
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end
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/* verilator lint_off WIDTH */
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/* verilator lint_off WIDTH */
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else if (TOPOLOGY == "FATTREE" ) begin
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else if (TOPOLOGY == "FATTREE" ) begin
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/* verilator lint_on WIDTH */
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/* verilator lint_on WIDTH */
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if(router_port_num[0]==1'b0) begin //even port num
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if(router_port_num[0]==1'b0) begin //even port num
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strieght_port = (current_port < (router_port_num/2) )?
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strieght_port = (current_port < (router_port_num/2) )?
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(router_port_num/2)+ current_port :
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(router_port_num/2)+ current_port :
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current_port - (router_port_num/2);
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current_port - (router_port_num/2);
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end else begin
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end else begin
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strieght_port = (current_port == (router_port_num-1)/2) ? router_port_num: //DISABLED;
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strieght_port = (current_port == (router_port_num-1)/2) ? router_port_num: //DISABLED;
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(current_port < ((router_port_num+1)/2))? ((router_port_num+1)/2)+ current_port :
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(current_port < ((router_port_num+1)/2))? ((router_port_num+1)/2)+ current_port :
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current_port - ((router_port_num+1)/2);
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current_port - ((router_port_num+1)/2);
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end
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end
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end else begin
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end else begin
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strieght_port = router_port_num; //DISABLED;
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strieght_port = router_port_num; //DISABLED;
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end
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end
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end
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end
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endfunction
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endfunction
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function automatic integer port_buffer_size;
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function automatic integer port_buffer_size;
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input integer router_port_num; //router port num
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input integer router_port_num; //router port num
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begin
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begin
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port_buffer_size = B;
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port_buffer_size = B;
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/* verilator lint_off WIDTH */
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/* verilator lint_off WIDTH */
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if(TOPOLOGY == "MESH" || TOPOLOGY == "FMESH" || TOPOLOGY == "TORUS" || TOPOLOGY == "RING" || TOPOLOGY == "LINE")begin
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if(TOPOLOGY == "MESH" || TOPOLOGY == "FMESH" || TOPOLOGY == "TORUS" || TOPOLOGY == "RING" || TOPOLOGY == "LINE")begin
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/* verilator lint_on WIDTH */
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/* verilator lint_on WIDTH */
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if (router_port_num == 0 || router_port_num > 4 ) port_buffer_size = LB;
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if (router_port_num == 0 || router_port_num > 4 ) port_buffer_size = LB;
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end
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end
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end
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end
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endfunction
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endfunction
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/*******************
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/*******************
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* "RING" "LINE" "MESH" TORUS" "FMESH"
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* "RING" "LINE" "MESH" TORUS" "FMESH"
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******************/
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******************/
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/* verilator lint_off WIDTH */
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/* verilator lint_off WIDTH */
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//route type
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//route type
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localparam
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localparam
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NX = T1,
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NX = T1,
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NY = T2,
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NY = T2,
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NL = T3,
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NL = T3,
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NXw = log2(NX),
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NXw = log2(NX),
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NYw= log2(NY),
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NYw= log2(NY),
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NLw= log2(NL),
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NLw= log2(NL),
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PPSw_MESH_TORI =4, //port presel width for adaptive routing
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PPSw_MESH_TORI =4, //port presel width for adaptive routing
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/* verilator lint_off WIDTH */
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/* verilator lint_off WIDTH */
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ROUTE_TYPE_MESH_TORI = (ROUTE_NAME == "XY" || ROUTE_NAME == "TRANC_XY" )? "DETERMINISTIC" :
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ROUTE_TYPE_MESH_TORI = (ROUTE_NAME == "XY" || ROUTE_NAME == "TRANC_XY" )? "DETERMINISTIC" :
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(ROUTE_NAME == "DUATO" || ROUTE_NAME == "TRANC_DUATO" )? "FULL_ADAPTIVE": "PAR_ADAPTIVE",
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(ROUTE_NAME == "DUATO" || ROUTE_NAME == "TRANC_DUATO" )? "FULL_ADAPTIVE": "PAR_ADAPTIVE",
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R2R_CHANELS_MESH_TORI= (TOPOLOGY=="RING" || TOPOLOGY=="LINE")? 2 : 4,
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R2R_CHANELS_MESH_TORI= (TOPOLOGY=="RING" || TOPOLOGY=="LINE")? 2 : 4,
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R2E_CHANELS_MESH_TORI= NL,
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R2E_CHANELS_MESH_TORI= NL,
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RAw_MESH_TORI = ( TOPOLOGY == "RING" || TOPOLOGY == "LINE")? NXw : NXw + NYw,
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RAw_MESH_TORI = ( TOPOLOGY == "RING" || TOPOLOGY == "LINE")? NXw : NXw + NYw,
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EAw_MESH_TORI = (NL==1) ? RAw_MESH_TORI : RAw_MESH_TORI + NLw,
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EAw_MESH_TORI = (NL==1) ? RAw_MESH_TORI : RAw_MESH_TORI + NLw,
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NR_MESH_TORI = (TOPOLOGY=="RING" || TOPOLOGY=="LINE")? NX : NX*NY,
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NR_MESH_TORI = (TOPOLOGY=="RING" || TOPOLOGY=="LINE")? NX : NX*NY,
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NE_MESH_TORI = NR_MESH_TORI * NL,
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NE_MESH_TORI = NR_MESH_TORI * NL,
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MAX_P_MESH_TORI = R2R_CHANELS_MESH_TORI + R2E_CHANELS_MESH_TORI,
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MAX_P_MESH_TORI = R2R_CHANELS_MESH_TORI + R2E_CHANELS_MESH_TORI,
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DSTPw_MESH_TORI = R2R_CHANELS_MESH_TORI; // P-1
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DSTPw_MESH_TORI = R2R_CHANELS_MESH_TORI; // P-1
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/* verilator lint_on WIDTH */
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/* verilator lint_on WIDTH */
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/****************
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/****************
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* FMESH
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* FMESH
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* *************/
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* *************/
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localparam
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localparam
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NE_FMESH = NE_MESH_TORI + 2 * (NX+NY),
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NE_FMESH = NE_MESH_TORI + 2 * (NX+NY),
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NR_FMESH = NR_MESH_TORI,
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NR_FMESH = NR_MESH_TORI,
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MAX_P_FMESH = 4 + NL,
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MAX_P_FMESH = 4 + NL,
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EAw_FMESH = RAw_MESH_TORI + log2(MAX_P_FMESH);
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EAw_FMESH = RAw_MESH_TORI + log2(MAX_P_FMESH);
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/******************
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/******************
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* FATTREE
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* FATTREE
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* *****************/
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* *****************/
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localparam
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localparam
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K=T1,
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K=T1,
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L=T2,
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L=T2,
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Lw=log2(L),
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Lw=log2(L),
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Kw=log2(K),
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Kw=log2(K),
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LKw=L*Kw,
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LKw=L*Kw,
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RAw_FATTREE = LKw + Lw,
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RAw_FATTREE = LKw + Lw,
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EAw_FATTREE = LKw,
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EAw_FATTREE = LKw,
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NE_FATTREE = powi( K,L ),
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NE_FATTREE = powi( K,L ),
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NR_FATTREE = L * powi( K , L - 1 ), // total number of routers
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NR_FATTREE = L * powi( K , L - 1 ), // total number of routers
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ROUTE_TYPE_FATTREE = "DETERMINISTIC",
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ROUTE_TYPE_FATTREE = "DETERMINISTIC",
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DSTPw_FATTREE = K+1,
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DSTPw_FATTREE = K+1,
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MAX_P_FATTREE = 2*K;
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MAX_P_FATTREE = 2*K,
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DAw_MCAST_FATTREE= powi( K,L);
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/**********************
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/**********************
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* TREE
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* TREE
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* ********************/
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* ********************/
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localparam
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localparam
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ROUTE_TYPE_TREE = "DETERMINISTIC",
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ROUTE_TYPE_TREE = "DETERMINISTIC",
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NE_TREE = powi( K,L ), //total number of endpoints
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NE_TREE = powi( K,L ), //total number of endpoints
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NR_TREE = sum_powi ( K,L ), // total number of routers
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NR_TREE = sum_powi ( K,L ), // total number of routers
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RAw_TREE = LKw + Lw,
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RAw_TREE = LKw + Lw,
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EAw_TREE = LKw,
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EAw_TREE = LKw,
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DSTPw_TREE = log2(K+1),
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DSTPw_TREE = log2(K+1),
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MAX_P_TREE = K+1;
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MAX_P_TREE = K+1,
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DAw_MCAST_TREE= DAw_MCAST_FATTREE;
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/*********************
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/*********************
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* STAR
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* STAR
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* ******************/
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* ******************/
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localparam
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localparam
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ROUTE_TYPE_STAR = "DETERMINISTIC",
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ROUTE_TYPE_STAR = "DETERMINISTIC",
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NE_STAR = T1, //total number of endpoints
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NE_STAR = T1, //total number of endpoints
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NR_STAR = 1, // total number of routers
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NR_STAR = 1, // total number of routers
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RAw_STAR = 1,
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RAw_STAR = 1,
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EAw_STAR = log2(NE_STAR),
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EAw_STAR = log2(NE_STAR),
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DSTPw_STAR = EAw_STAR,
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DSTPw_STAR = EAw_STAR,
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MAX_P_STAR = NE_STAR;
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MAX_P_STAR = NE_STAR,
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DAw_MCAST_STAR= NE_STAR;
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/************************
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/************************
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* CUSTOM - made by netmaker
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* CUSTOM - made by netmaker
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* **********************/
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* **********************/
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localparam
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localparam
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ROUTE_TYPE_CUSTOM = "DETERMINISTIC",
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ROUTE_TYPE_CUSTOM = "DETERMINISTIC",
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NE_CUSTOM = T1, //total number of endpoints
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NE_CUSTOM = T1, //total number of endpoints
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NR_CUSTOM = T2, // total number of routers
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NR_CUSTOM = T2, // total number of routers
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EAw_CUSTOM = log2(NE_CUSTOM),
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EAw_CUSTOM = log2(NE_CUSTOM),
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RAw_CUSTOM = log2(NR_CUSTOM),
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RAw_CUSTOM = log2(NR_CUSTOM),
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MAX_P_CUSTOM = T3,
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MAX_P_CUSTOM = T3,
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DSTPw_CUSTOM = log2(MAX_P_CUSTOM);
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DSTPw_CUSTOM = log2(MAX_P_CUSTOM);
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/* verilator lint_off WIDTH */
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/* verilator lint_off WIDTH */
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localparam
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localparam
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PPSw = PPSw_MESH_TORI,
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PPSw = PPSw_MESH_TORI,
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// maximum number of port in a router in the topology
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// maximum number of port in a router in the topology
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MAX_P =
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MAX_P =
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(TOPOLOGY == "FATTREE")? MAX_P_FATTREE:
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(TOPOLOGY == "FATTREE")? MAX_P_FATTREE:
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(TOPOLOGY == "TREE")? MAX_P_TREE:
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(TOPOLOGY == "TREE")? MAX_P_TREE:
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(TOPOLOGY == "RING" || TOPOLOGY == "LINE" || TOPOLOGY == "MESH" || TOPOLOGY == "TORUS")? MAX_P_MESH_TORI:
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(TOPOLOGY == "RING" || TOPOLOGY == "LINE" || TOPOLOGY == "MESH" || TOPOLOGY == "TORUS")? MAX_P_MESH_TORI:
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(TOPOLOGY == "FMESH")? MAX_P_MESH_TORI:
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(TOPOLOGY == "FMESH")? MAX_P_MESH_TORI:
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(TOPOLOGY == "STAR") ? MAX_P_STAR:
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(TOPOLOGY == "STAR") ? MAX_P_STAR:
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MAX_P_CUSTOM,
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MAX_P_CUSTOM,
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// destination port width in header flit
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// destination port width in header flit
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DSTPw =
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DSTPw =
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// (CAST_TYPE!= "UNICAST")? MAX_P: // Each asserted bit indicats that the flit should be sent to that port
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// Each asserted bit indicats that the flit should be sent to that port
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(TOPOLOGY == "FATTREE")? DSTPw_FATTREE:
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(TOPOLOGY == "FATTREE")? DSTPw_FATTREE:
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(TOPOLOGY == "TREE")? DSTPw_TREE:
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(TOPOLOGY == "TREE")? DSTPw_TREE:
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(CAST_TYPE!= "UNICAST")? MAX_P:
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(TOPOLOGY == "RING" || TOPOLOGY == "LINE" || TOPOLOGY == "MESH" || TOPOLOGY == "TORUS")? DSTPw_MESH_TORI:
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(TOPOLOGY == "RING" || TOPOLOGY == "LINE" || TOPOLOGY == "MESH" || TOPOLOGY == "TORUS")? DSTPw_MESH_TORI:
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(TOPOLOGY == "FMESH")? DSTPw_MESH_TORI:
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(TOPOLOGY == "FMESH")? DSTPw_MESH_TORI:
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(TOPOLOGY == "STAR") ? DSTPw_STAR:
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(TOPOLOGY == "STAR") ? DSTPw_STAR:
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DSTPw_CUSTOM,
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DSTPw_CUSTOM,
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//router address width
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//router address width
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RAw =
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RAw =
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(TOPOLOGY == "FATTREE")? RAw_FATTREE:
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(TOPOLOGY == "FATTREE")? RAw_FATTREE:
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(TOPOLOGY == "TREE")? RAw_TREE:
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(TOPOLOGY == "TREE")? RAw_TREE:
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(TOPOLOGY == "RING" || TOPOLOGY == "LINE" || TOPOLOGY == "MESH" || TOPOLOGY == "TORUS")? RAw_MESH_TORI:
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(TOPOLOGY == "RING" || TOPOLOGY == "LINE" || TOPOLOGY == "MESH" || TOPOLOGY == "TORUS")? RAw_MESH_TORI:
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(TOPOLOGY == "FMESH")? RAw_MESH_TORI:
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(TOPOLOGY == "FMESH")? RAw_MESH_TORI:
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(TOPOLOGY == "STAR") ? RAw_STAR:
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(TOPOLOGY == "STAR") ? RAw_STAR:
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RAw_CUSTOM,
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RAw_CUSTOM,
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//endpoint address width
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//endpoint address width
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EAw =
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EAw =
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(TOPOLOGY == "FATTREE")? EAw_FATTREE:
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(TOPOLOGY == "FATTREE")? EAw_FATTREE:
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(TOPOLOGY == "TREE")? EAw_TREE:
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(TOPOLOGY == "TREE")? EAw_TREE:
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(TOPOLOGY == "RING" || TOPOLOGY == "LINE" || TOPOLOGY == "MESH" || TOPOLOGY == "TORUS")? EAw_MESH_TORI:
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(TOPOLOGY == "RING" || TOPOLOGY == "LINE" || TOPOLOGY == "MESH" || TOPOLOGY == "TORUS")? EAw_MESH_TORI:
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(TOPOLOGY == "FMESH")? EAw_FMESH:
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(TOPOLOGY == "FMESH")? EAw_FMESH:
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(TOPOLOGY == "STAR") ? EAw_STAR:
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(TOPOLOGY == "STAR") ? EAw_STAR:
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EAw_CUSTOM,
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EAw_CUSTOM,
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// total number of endpoints
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// total number of endpoints
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NE =
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NE =
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(TOPOLOGY == "FATTREE")? NE_FATTREE:
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(TOPOLOGY == "FATTREE")? NE_FATTREE:
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(TOPOLOGY == "TREE")? NE_TREE:
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(TOPOLOGY == "TREE")? NE_TREE:
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(TOPOLOGY == "RING" || TOPOLOGY == "LINE" || TOPOLOGY == "MESH" || TOPOLOGY == "TORUS")? NE_MESH_TORI:
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(TOPOLOGY == "RING" || TOPOLOGY == "LINE" || TOPOLOGY == "MESH" || TOPOLOGY == "TORUS")? NE_MESH_TORI:
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(TOPOLOGY == "FMESH")? NE_FMESH:
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(TOPOLOGY == "FMESH")? NE_FMESH:
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(TOPOLOGY == "STAR")? NE_STAR:
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(TOPOLOGY == "STAR")? NE_STAR:
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NE_CUSTOM,
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NE_CUSTOM,
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//Destination endpoint(s) address width
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DAw_OFFSETw = (TOPOLOGY=="MESH" || TOPOLOGY=="TORUS" || TOPOLOGY=="FMESH")? NX : 0,
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MCAST_PRTLw = mcast_partial_width( MCAST_ENDP_LIST),
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MCASTw =
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(CAST_TYPE == "MULTICAST_FULL") ? NE :
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(CAST_TYPE == "MULTICAST_PARTIAL" && EAw >= MCAST_PRTLw) ? EAw +1 :
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(CAST_TYPE == "MULTICAST_PARTIAL" && EAw < MCAST_PRTLw) ? MCAST_PRTLw +1 :
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EAw +1, //broadcast
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DAw =
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(CAST_TYPE == "UNICAST") ? EAw:
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MCASTw + DAw_OFFSETw,
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//total number of routers
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//total number of routers
|
NR =
|
NR =
|
(TOPOLOGY == "FATTREE")? NR_FATTREE:
|
(TOPOLOGY == "FATTREE")? NR_FATTREE:
|
(TOPOLOGY == "TREE")? NR_TREE:
|
(TOPOLOGY == "TREE")? NR_TREE:
|
(TOPOLOGY == "RING" || TOPOLOGY == "LINE" || TOPOLOGY == "MESH" || TOPOLOGY == "TORUS")? NR_MESH_TORI:
|
(TOPOLOGY == "RING" || TOPOLOGY == "LINE" || TOPOLOGY == "MESH" || TOPOLOGY == "TORUS")? NR_MESH_TORI:
|
(TOPOLOGY == "FMESH")? NR_FMESH:
|
(TOPOLOGY == "FMESH")? NR_FMESH:
|
(TOPOLOGY == "STAR") ? NR_STAR:
|
(TOPOLOGY == "STAR") ? NR_STAR:
|
NR_CUSTOM,
|
NR_CUSTOM,
|
//routing algorithm type
|
//routing algorithm type
|
ROUTE_TYPE =
|
ROUTE_TYPE =
|
(TOPOLOGY == "FATTREE")? ROUTE_TYPE_FATTREE:
|
(TOPOLOGY == "FATTREE")? ROUTE_TYPE_FATTREE:
|
(TOPOLOGY == "TREE")? ROUTE_TYPE_TREE:
|
(TOPOLOGY == "TREE")? ROUTE_TYPE_TREE:
|
(TOPOLOGY == "RING" || TOPOLOGY == "LINE" || TOPOLOGY == "MESH" || TOPOLOGY == "TORUS")? ROUTE_TYPE_MESH_TORI:
|
(TOPOLOGY == "RING" || TOPOLOGY == "LINE" || TOPOLOGY == "MESH" || TOPOLOGY == "TORUS")? ROUTE_TYPE_MESH_TORI:
|
(TOPOLOGY == "FMESH")? ROUTE_TYPE_MESH_TORI:
|
(TOPOLOGY == "FMESH")? ROUTE_TYPE_MESH_TORI:
|
(TOPOLOGY == "STAR") ? ROUTE_TYPE_STAR:
|
(TOPOLOGY == "STAR") ? ROUTE_TYPE_STAR:
|
ROUTE_TYPE_CUSTOM;
|
ROUTE_TYPE_CUSTOM;
|
|
|
/* verilator lint_on WIDTH */
|
/* verilator lint_on WIDTH */
|
|
|
|
|
|
|
|
|
|
|
|
|
|
function automatic integer mcast_id_to_endp_id;
|
|
input integer mcast_id;
|
|
reg [NE-1 : 0] mcast_list;
|
|
integer k;
|
|
begin
|
|
mcast_list =MCAST_ENDP_LIST;
|
|
mcast_id_to_endp_id=0;
|
|
k=0;
|
|
/* verilator lint_off WIDTH */
|
|
if (CAST_TYPE == "MULTICAST_FULL")begin
|
|
/* verilator lint_on WIDTH */
|
|
mcast_id_to_endp_id =mcast_id;
|
|
end else begin
|
|
while( k!=mcast_id+1) begin
|
|
if( mcast_list[mcast_id_to_endp_id]==1'b1) begin
|
|
k=k+1;
|
|
end
|
|
mcast_id_to_endp_id= mcast_id_to_endp_id+1;
|
|
end
|
|
end
|
|
end
|
|
endfunction
|
|
|
|
function automatic integer endp_id_to_mcast_id;
|
|
input integer endp_id;
|
|
reg [NE-1 : 0] mcast_list;
|
|
integer i;
|
|
begin
|
|
/* verilator lint_off WIDTH */
|
|
if (CAST_TYPE == "MULTICAST_FULL") begin
|
|
/* verilator lint_on WIDTH */
|
|
endp_id_to_mcast_id = endp_id;
|
|
end else begin
|
|
mcast_list =MCAST_ENDP_LIST;
|
|
endp_id_to_mcast_id=0;
|
|
for (i=0;i<endp_id;i=i+1) begin
|
|
if( mcast_list[i]==1'b1) endp_id_to_mcast_id=endp_id_to_mcast_id+1;
|
|
end
|
|
end
|
|
end
|
|
endfunction
|
|
|
|
|
|
|
|
function automatic integer mcast_partial_width;
|
|
input [NE-1 : 0] p;
|
|
integer i;
|
|
begin
|
|
|
|
mcast_partial_width=0;
|
|
for (i=0;i<NE;i=i+1) begin
|
|
if (p [i]==1'b1) mcast_partial_width=mcast_partial_width+1;
|
|
end
|
|
end
|
|
endfunction
|
|
|
|
|
|
|
|
|
|
function automatic integer fmesh_addrencode;
|
|
input integer in;
|
|
integer y, x, l,p, diff,mul;begin
|
|
|
|
mul = NX*NY*NL;
|
|
if(in < mul) begin
|
|
y = ((in/NL) / NX );
|
|
x = ((in/NL) % NX );
|
|
l = (in % NL);
|
|
p = (l==0)? LOCAL : 4+l;
|
|
end else begin
|
|
diff = in - mul ;
|
|
if( diff < NX) begin //top mesh edge
|
|
y = 0;
|
|
x = diff;
|
|
p = NORTH;
|
|
end else if ( diff < 2* NX) begin //bottom mesh edge
|
|
y = NY-1;
|
|
x = diff-NX;
|
|
p = SOUTH;
|
|
end else if ( diff < (2* NX)+NY ) begin //left mesh edge
|
|
y = diff - (2* NX);
|
|
x = 0;
|
|
p = WEST;
|
|
end else begin //right mesh edge
|
|
y = diff - (2* NX) -NY;
|
|
x = NX-1;
|
|
p = EAST;
|
|
end
|
|
end//else
|
|
fmesh_addrencode = ( p<<(NXw+NYw) | (y<<NXw) | x);
|
|
end
|
|
endfunction // addrencode
|
|
|
|
|
|
|
|
// synthesis translate_off
|
|
/* verilator lint_off WIDTH */
|
|
task display_noc_parameters;
|
|
begin
|
|
//print_parameter
|
|
$display ("NoC parameters:----------------");
|
|
$display ("\tTopology: %s",TOPOLOGY);
|
|
$display ("\tRouting algorithm: %s",ROUTE_NAME);
|
|
$display ("\tVC_per port: %0d", V);
|
|
$display ("\tNon-local port buffer_width per VC: %0d", B);
|
|
$display ("\tLocal port buffer_width per VC: %0d", LB);
|
|
if(TOPOLOGY=="MESH" || TOPOLOGY=="TORUS" || TOPOLOGY == "FMESH")begin
|
|
$display ("\tRouter num in row: %0d",T1);
|
|
$display ("\tRouter num in column: %0d",T2);
|
|
$display ("\tEndpoint num per router: %0d",T3);
|
|
end else if (TOPOLOGY=="RING" || TOPOLOGY == "LINE") begin
|
|
$display ("\tTotal Router num: %0d",T1);
|
|
$display ("\tEndpoint num per router: %0d",T3);
|
|
end else if (TOPOLOGY == "TREE" || TOPOLOGY == "FATTREE")begin
|
|
$display ("\tK: %0d",T1);
|
|
$display ("\tL: %0d",T2);
|
|
end else begin //CUSTOM
|
|
$display ("\tTotal Endpoints number: %0d",T1);
|
|
$display ("\tTotal Routers number: %0d",T2);
|
|
end
|
|
$display ("\tNumber of Class: %0d", C);
|
|
$display ("\tFlit data width: %0d", Fpay);
|
|
$display ("\tVC reallocation mechanism: %s", VC_REALLOCATION_TYPE);
|
|
$display ("\tVC/sw combination mechanism: %s", COMBINATION_TYPE);
|
|
$display ("\tAVC_ATOMIC_EN:%0d", AVC_ATOMIC_EN);
|
|
$display ("\tCongestion Index:%0d",CONGESTION_INDEX);
|
|
$display ("\tADD_PIPREG_AFTER_CROSSBAR:%0d",ADD_PIPREG_AFTER_CROSSBAR);
|
|
$display ("\tSSA_EN enabled:%s",SSA_EN);
|
|
$display ("\tSwitch allocator arbitration type:%s",SWA_ARBITER_TYPE);
|
|
$display ("\tMinimum supported packet size:%0d flit(s)",MIN_PCK_SIZE);
|
|
$display ("\tLoop back is enabled:%s",SELF_LOOP_EN);
|
|
$display ("\tNumber of multihop bypass (SMART max):%0d",SMART_MAX);
|
|
$display ("\tCastying type:%s.",CAST_TYPE);
|
|
if (CAST_TYPE == "MULTICAST_PARTIAL" || CAST_TYPE == "BROADCAST_PARTIAL")begin
|
|
$display ("\tNumber of nodes in Cast list:%d", MCAST_PRTLw);
|
|
$display ("\tCAST LIST:%b", MCAST_ENDP_LIST);
|
|
end
|
|
$display ("NoC parameters:----------------");
|
|
end
|
|
endtask
|
|
/* verilator lint_on WIDTH */
|
|
// synthesis translate_on
|
|
|
|
|
|
|
|
|
|
|
`endif
|
`endif
|
|
|
|
|
|
|
