#ifndef MESH_H
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#ifndef MESH_H
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#define MESH_H
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#define MESH_H
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#define LOCAL 0
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#define LOCAL 0
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#define EAST 1
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#define EAST 1
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#define NORTH 2
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#define NORTH 2
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#define WEST 3
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#define WEST 3
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#define SOUTH 4
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#define SOUTH 4
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//ring line
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//ring line
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#define FORWARD 1
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#define FORWARD 1
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#define BACKWARD 2
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#define BACKWARD 2
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#define router_id(x,y) ((y * T1) + x)
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#define router_id(x,y) ((y * T1) + x)
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#define endp_id(x,y,l) ((y * T1) + x) * T3 + l
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#define endp_id(x,y,l) ((y * T1) + x) * T3 + l
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unsigned int nxw=0;
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unsigned int nxw=0;
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unsigned int nyw=0;
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unsigned int nyw=0;
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unsigned int maskx=0;
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unsigned int maskx=0;
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unsigned int masky=0;
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unsigned int masky=0;
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void mesh_tori_addrencod_sep(unsigned int id, unsigned int *x, unsigned int *y, unsigned int *l){
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void mesh_tori_addrencod_sep(unsigned int id, unsigned int *x, unsigned int *y, unsigned int *l){
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(*l)=id%T3; // id%NL
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(*l)=id%T3; // id%NL
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(*x)=(id/T3)%T1;// (id/NL)%NX
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(*x)=(id/T3)%T1;// (id/NL)%NX
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(*y)=(id/T3)/T1;// (id/NL)/NX
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(*y)=(id/T3)/T1;// (id/NL)/NX
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}
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}
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void mesh_tori_addr_sep(unsigned int code, unsigned int *x, unsigned int *y, unsigned int *l){
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void mesh_tori_addr_sep(unsigned int code, unsigned int *x, unsigned int *y, unsigned int *l){
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(*x) = code & maskx;
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(*x) = code & maskx;
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code>>=nxw;
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code>>=nxw;
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(*y) = code & masky;
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(*y) = code & masky;
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code>>=nyw;
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code>>=nyw;
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(*l) = code;
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(*l) = code;
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}
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}
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void ring_line_addr_sep(unsigned int code, unsigned int *x, unsigned int *l){
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(*x) = code & maskx;
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code>>=nxw;
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(*l) = code;
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}
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unsigned int mesh_tori_addr_join(unsigned int x, unsigned int y, unsigned int l){
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unsigned int mesh_tori_addr_join(unsigned int x, unsigned int y, unsigned int l){
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unsigned int addrencode=0;
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unsigned int addrencode=0;
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addrencode =(T3==1)? (y<<nxw | x) : (l<<(nxw+nyw)| (y<<nxw) | x);
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addrencode =(T3==1)? (y<<nxw | x) : (l<<(nxw+nyw)| (y<<nxw) | x);
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return addrencode;
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return addrencode;
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}
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}
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unsigned int ring_line_addr_join(unsigned int x, unsigned int l){
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unsigned int addrencode=0;
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addrencode =(T3==1)? x : (l<<nxw) | x;
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return addrencode;
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}
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unsigned int mesh_tori_addrencode (unsigned int id){
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unsigned int mesh_tori_addrencode (unsigned int id){
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unsigned int y, x, l;
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unsigned int y, x, l;
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mesh_tori_addrencod_sep(id,&x,&y,&l);
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mesh_tori_addrencod_sep(id,&x,&y,&l);
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return mesh_tori_addr_join(x,y,l);
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return mesh_tori_addr_join(x,y,l);
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}
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}
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unsigned int ring_line_addrencode (unsigned int id){
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unsigned int y , x, l;
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mesh_tori_addrencod_sep(id,&x,&y,&l);
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return ring_line_addr_join(x,l);
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}
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void fmesh_addrencod_sep(unsigned int id, unsigned int *x, unsigned int *y, unsigned int *p){
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void fmesh_addrencod_sep(unsigned int id, unsigned int *x, unsigned int *y, unsigned int *p){
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unsigned int l, diff,mul,addrencode;
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unsigned int l, diff,mul,addrencode;
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mul = T1*T2*T3;
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mul = T1*T2*T3;
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if(id < mul) {
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if(id < mul) {
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*y = ((id/T3) / T1 );
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*y = ((id/T3) / T1 );
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*x = ((id/T3) % T1 );
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*x = ((id/T3) % T1 );
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l = (id % T3);
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l = (id % T3);
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*p = (l==0)? LOCAL : 4+l;
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*p = (l==0)? LOCAL : 4+l;
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}else{
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}else{
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diff = id - mul ;
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diff = id - mul ;
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if( diff < T1) { //top mesh edge
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if( diff < T1) { //top mesh edge
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*y = 0;
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*y = 0;
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*x = diff;
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*x = diff;
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*p = NORTH;
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*p = NORTH;
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} else if ( diff < 2* T1) { //bottom mesh edge
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} else if ( diff < 2* T1) { //bottom mesh edge
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*y = T2-1;
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*y = T2-1;
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*x = diff-T1;
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*x = diff-T1;
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*p = SOUTH;
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*p = SOUTH;
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} else if ( diff < (2* T1) + T2 ) { //left mesh edge
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} else if ( diff < (2* T1) + T2 ) { //left mesh edge
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*y = diff - (2* T1);
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*y = diff - (2* T1);
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*x = 0;
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*x = 0;
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*p = WEST;
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*p = WEST;
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} else { //right mesh edge
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} else { //right mesh edge
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*y = diff - (2* T1) -T2;
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*y = diff - (2* T1) -T2;
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*x = T1-1;
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*x = T1-1;
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*p = EAST;
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*p = EAST;
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}
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}
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}
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}
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}
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}
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unsigned int fmesh_addrencode(unsigned int id){
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unsigned int fmesh_addrencode(unsigned int id){
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//input integer in,nx,nxw,nl,nyw,ny;
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//input integer in,nx,nxw,nl,nyw,ny;
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unsigned int y, x, p, addrencode;
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unsigned int y, x, p, addrencode;
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fmesh_addrencod_sep(id, &x, &y, &p);
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fmesh_addrencod_sep(id, &x, &y, &p);
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addrencode = ( p<<(nxw+nyw) | (y<<nxw) | x);
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addrencode = ( p<<(nxw+nyw) | (y<<nxw) | x);
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return addrencode;
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return addrencode;
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}
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}
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unsigned int fmesh_endp_addr_decoder (unsigned int code){
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unsigned int fmesh_endp_addr_decoder (unsigned int code){
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unsigned int x, y, p;
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unsigned int x, y, p;
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mesh_tori_addr_sep(code,&x,&y,&p);
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mesh_tori_addr_sep(code,&x,&y,&p);
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if(p== LOCAL) return ((y*T1)+x)*T3;
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if(p== LOCAL) return ((y*T1)+x)*T3;
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if(p > SOUTH) return ((y*T1)+x)*T3+(p-SOUTH);
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if(p > SOUTH) return ((y*T1)+x)*T3+(p-SOUTH);
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if(p== NORTH) return ((T1*T2*T3) + x);
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if(p== NORTH) return ((T1*T2*T3) + x);
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if(p== SOUTH) return ((T1*T2*T3) + T1 + x);
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if(p== SOUTH) return ((T1*T2*T3) + T1 + x);
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if(p== WEST ) return ((T1*T2*T3) + 2*T1 + y);
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if(p== WEST ) return ((T1*T2*T3) + 2*T1 + y);
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if(p== EAST ) return ((T1*T2*T3) + 2*T1 + T2 + y);
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if(p== EAST ) return ((T1*T2*T3) + 2*T1 + T2 + y);
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return 0;//should not reach here
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return 0;//should not reach here
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}
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}
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unsigned int mesh_tori_endp_addr_decoder (unsigned int code){
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unsigned int mesh_tori_endp_addr_decoder (unsigned int code){
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unsigned int x, y, l;
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unsigned int x, y, l;
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mesh_tori_addr_sep(code,&x,&y,&l);
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mesh_tori_addr_sep(code,&x,&y,&l);
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//if(code==0x1a) printf("code=%x,x=%u,y=%u,l=%u\n",code,x,y,l);
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//if(code==0x1a) printf("code=%x,x=%u,y=%u,l=%u\n",code,x,y,l);
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return ((y*T1)+x)*T3+l;
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return ((y*T1)+x)*T3+l;
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}
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}
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unsigned int ring_line_endp_addr_decoder (unsigned int code){
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unsigned int x, l;
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ring_line_addr_sep(code,&x,&l);
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//if(code==0x1a) printf("code=%x,x=%u,y=%u,l=%u\n",code,x,y,l);
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return x*T3+l;
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}
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unsigned int endp_addr_encoder ( unsigned int id){
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unsigned int endp_addr_encoder ( unsigned int id){
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#if defined (IS_MESH) || defined (IS_TORUS) || defined (IS_LINE) || defined (IS_RING )
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#if defined (IS_MESH) || defined (IS_TORUS)
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return mesh_tori_addrencode(id);
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return mesh_tori_addrencode(id);
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#endif
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#elif defined (IS_LINE) || defined (IS_RING )
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return ring_line_addrencode(id);
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#else
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return fmesh_addrencode(id);
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return fmesh_addrencode(id);
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#endif
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}
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}
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unsigned int endp_addr_decoder (unsigned int code){
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unsigned int endp_addr_decoder (unsigned int code){
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#if defined (IS_MESH) || defined (IS_TORUS) || defined (IS_LINE) || defined (IS_RING )
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#if defined (IS_MESH) || defined (IS_TORUS)
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return mesh_tori_endp_addr_decoder (code);
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return mesh_tori_endp_addr_decoder (code);
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#elif defined (IS_LINE) || defined (IS_RING )
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return ring_line_endp_addr_decoder (code);
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#endif
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#endif
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return fmesh_endp_addr_decoder (code);
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return fmesh_endp_addr_decoder (code);
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}
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}
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void topology_connect_r2r (int n){
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void topology_connect_r2r (int n){
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conect_r2r(1,r2r_cnt_all[n].r1,r2r_cnt_all[n].p1,1,r2r_cnt_all[n].r2,r2r_cnt_all[n].p2);
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conect_r2r(1,r2r_cnt_all[n].r1,r2r_cnt_all[n].p1,1,r2r_cnt_all[n].r2,r2r_cnt_all[n].p2);
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}
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}
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void topology_connect_r2e (int n){
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void topology_connect_r2e (int n){
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connect_r2e(1,r2e_cnt_all[n].r1,r2e_cnt_all[n].p1,n);
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connect_r2e(1,r2e_cnt_all[n].r1,r2e_cnt_all[n].p1,n);
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}
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}
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void topology_connect_all_nodes_old (void){
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void topology_connect_all_nodes_old (void){
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unsigned int x,y,l;
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unsigned int x,y,l;
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#if defined (IS_LINE) || defined (IS_RING )
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#if defined (IS_LINE) || defined (IS_RING )
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#define R2R_CHANELS_MESH_TORI 2
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#define R2R_CHANELS_MESH_TORI 2
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for (x=0; x<T1; x=x+1) {
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for (x=0; x<T1; x=x+1) {
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router1[x]->current_r_addr = x;
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router1[x]->current_r_addr = x;
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router1[x]->current_r_id = x;
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router1[x]->current_r_id = x;
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if(x < T1-1){// not_last_node
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if(x < T1-1){// not_last_node
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//assign router_chan_in[x][FORWARD] = router_chan_out [(x+1)][BACKWARD];
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//assign router_chan_in[x][FORWARD] = router_chan_out [(x+1)][BACKWARD];
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conect_r2r(1,x,FORWARD,1,(x+1),BACKWARD);
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conect_r2r(1,x,FORWARD,1,(x+1),BACKWARD);
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} else { //last_node
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} else { //last_node
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#if defined (IS_LINE) // : line_last_x
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#if defined (IS_LINE) // : line_last_x
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//assign router_chan_in[x][FORWARD]= {SMARTFLIT_CHANEL_w{1'b0}};
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//assign router_chan_in[x][FORWARD]= {SMARTFLIT_CHANEL_w{1'b0}};
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connect_r2gnd(1,x,FORWARD);
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connect_r2gnd(1,x,FORWARD);
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#else // : ring_last_x
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#else // : ring_last_x
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//assign router_chan_in[x][FORWARD]= router_chan_out [0][BACKWARD];
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//assign router_chan_in[x][FORWARD]= router_chan_out [0][BACKWARD];
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conect_r2r(1,x,FORWARD,1,0,BACKWARD);
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conect_r2r(1,x,FORWARD,1,0,BACKWARD);
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#endif
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#endif
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}
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}
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if(x>0){// :not_first_x
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if(x>0){// :not_first_x
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//assign router_chan_in[x][BACKWARD]= router_chan_out [(x-1)][FORWARD];
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//assign router_chan_in[x][BACKWARD]= router_chan_out [(x-1)][FORWARD];
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conect_r2r(1,x,BACKWARD,1,(x-1),FORWARD);
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conect_r2r(1,x,BACKWARD,1,(x-1),FORWARD);
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}else {// :first_x
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}else {// :first_x
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#if defined (IS_LINE) // : line_first_x
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#if defined (IS_LINE) // : line_first_x
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//assign router_chan_in[x][BACKWARD]={SMARTFLIT_CHANEL_w{1'b0}};
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//assign router_chan_in[x][BACKWARD]={SMARTFLIT_CHANEL_w{1'b0}};
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connect_r2gnd(1,x,BACKWARD);
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connect_r2gnd(1,x,BACKWARD);
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#else // : ring_first_x
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#else // : ring_first_x
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//assign router_chan_in[x][BACKWARD]= router_chan_out [(NX-1)][FORWARD];
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//assign router_chan_in[x][BACKWARD]= router_chan_out [(NX-1)][FORWARD];
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conect_r2r(1,x,BACKWARD,1,(T1-1),FORWARD);
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conect_r2r(1,x,BACKWARD,1,(T1-1),FORWARD);
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#endif
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#endif
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}
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}
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// connect other local ports
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// connect other local ports
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for (l=0; l<T3; l=l+1) {// :locals
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for (l=0; l<T3; l=l+1) {// :locals
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unsigned int ENDPID = endp_id(x,0,l);
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unsigned int ENDPID = endp_id(x,0,l);
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unsigned int LOCALP = (l==0) ? l : l + R2R_CHANELS_MESH_TORI; // first local port is connected to router port 0. The rest are connected at the }
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unsigned int LOCALP = (l==0) ? l : l + R2R_CHANELS_MESH_TORI; // first local port is connected to router port 0. The rest are connected at the }
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//assign router_chan_in[x][LOCALP]= chan_in_all [ENDPID];
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//assign router_chan_in[x][LOCALP]= chan_in_all [ENDPID];
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//assign chan_out_all [ENDPID] = router_chan_out[x][LOCALP];
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//assign chan_out_all [ENDPID] = router_chan_out[x][LOCALP];
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connect_r2e(1,x,LOCALP,ENDPID);
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connect_r2e(1,x,LOCALP,ENDPID);
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er_addr [ENDPID] = x;
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er_addr [ENDPID] = x;
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}// locals
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}// locals
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}//x
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}//x
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#else // :mesh_torus
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#else // :mesh_torus
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#define R2R_CHANELS_MESH_TORI 4
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#define R2R_CHANELS_MESH_TORI 4
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for (y=0; y<T2; y=y+1) {//: y_loop
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for (y=0; y<T2; y=y+1) {//: y_loop
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for (x=0; x<T1; x=x+1) {// :x_loop
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for (x=0; x<T1; x=x+1) {// :x_loop
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unsigned int R_ADDR = (y<<nxw) + x;
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unsigned int R_ADDR = (y<<nxw) + x;
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unsigned int ROUTER_NUM = (y * T1) + x;
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unsigned int ROUTER_NUM = (y * T1) + x;
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//assign current_r_addr [ROUTER_NUM] = R_ADDR[RAw-1 :0];
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//assign current_r_addr [ROUTER_NUM] = R_ADDR[RAw-1 :0];
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router1[ROUTER_NUM]->current_r_addr = R_ADDR;
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router1[ROUTER_NUM]->current_r_addr = R_ADDR;
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router1[ROUTER_NUM]->current_r_id = ROUTER_NUM;
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router1[ROUTER_NUM]->current_r_id = ROUTER_NUM;
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if(x < T1-1) {//: not_last_x
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if(x < T1-1) {//: not_last_x
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//assign router_chan_in[`router_id(x,y)][EAST]= router_chan_out [`router_id(x+1,y)][WEST];
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//assign router_chan_in[`router_id(x,y)][EAST]= router_chan_out [`router_id(x+1,y)][WEST];
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conect_r2r(1,router_id(x,y),EAST,1,router_id(x+1,y),WEST);
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conect_r2r(1,router_id(x,y),EAST,1,router_id(x+1,y),WEST);
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}else {// :last_x
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}else {// :last_x
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#if defined (IS_MESH) // :last_x_mesh
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#if defined (IS_MESH) // :last_x_mesh
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// assign router_chan_in[`router_id(x,y)][EAST] = {SMARTFLIT_CHANEL_w{1'b0}};
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// assign router_chan_in[`router_id(x,y)][EAST] = {SMARTFLIT_CHANEL_w{1'b0}};
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connect_r2gnd(1,router_id(x,y),EAST);
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connect_r2gnd(1,router_id(x,y),EAST);
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#elif defined (IS_TORUS) // : last_x_torus
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#elif defined (IS_TORUS) // : last_x_torus
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//assign router_chan_in[`router_id(x,y)][EAST] = router_chan_out [`router_id(0,y)][WEST];
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//assign router_chan_in[`router_id(x,y)][EAST] = router_chan_out [`router_id(0,y)][WEST];
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conect_r2r(1,router_id(x,y),EAST,1,router_id(0,y),WEST);
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conect_r2r(1,router_id(x,y),EAST,1,router_id(0,y),WEST);
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#elif defined (IS_FMESH) //:last_x_fmesh
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#elif defined (IS_FMESH) //:last_x_fmesh
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//connect to endp
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//connect to endp
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unsigned int EAST_ID = T1*T2*T3 + 2*T1 + T2 + y;
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unsigned int EAST_ID = T1*T2*T3 + 2*T1 + T2 + y;
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connect_r2e(1,router_id(x,y),EAST,EAST_ID);
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connect_r2e(1,router_id(x,y),EAST,EAST_ID);
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er_addr [EAST_ID] = R_ADDR;
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er_addr [EAST_ID] = R_ADDR;
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#endif//topology
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#endif//topology
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}
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}
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if(y>0) {// : not_first_y
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if(y>0) {// : not_first_y
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//assign router_chan_in[`router_id(x,y)][NORTH] = router_chan_out [`router_id(x,(y-1))][SOUTH];
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//assign router_chan_in[`router_id(x,y)][NORTH] = router_chan_out [`router_id(x,(y-1))][SOUTH];
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conect_r2r(1,router_id(x,y),NORTH,1,router_id(x,(y-1)),SOUTH);
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conect_r2r(1,router_id(x,y),NORTH,1,router_id(x,(y-1)),SOUTH);
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}else {// :first_y
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}else {// :first_y
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#if defined (IS_MESH) // : first_y_mesh
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#if defined (IS_MESH) // : first_y_mesh
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//assign router_chan_in[`router_id(x,y)][NORTH] = {SMARTFLIT_CHANEL_w{1'b0}};
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//assign router_chan_in[`router_id(x,y)][NORTH] = {SMARTFLIT_CHANEL_w{1'b0}};
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connect_r2gnd(1,router_id(x,y),NORTH);
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connect_r2gnd(1,router_id(x,y),NORTH);
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#elif defined (IS_TORUS)// :first_y_torus
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#elif defined (IS_TORUS)// :first_y_torus
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//assign router_chan_in[`router_id(x,y)][NORTH] = router_chan_out [`router_id(x,(T2-1))][SOUTH];
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//assign router_chan_in[`router_id(x,y)][NORTH] = router_chan_out [`router_id(x,(T2-1))][SOUTH];
|
conect_r2r(1,router_id(x,y),NORTH,1,router_id(x,(T2-1)),SOUTH);
|
conect_r2r(1,router_id(x,y),NORTH,1,router_id(x,(T2-1)),SOUTH);
|
#elif defined (IS_FMESH) // :first_y_fmesh
|
#elif defined (IS_FMESH) // :first_y_fmesh
|
unsigned int NORTH_ID = T1*T2*T3 + x;
|
unsigned int NORTH_ID = T1*T2*T3 + x;
|
connect_r2e(1,router_id(x,y),NORTH,NORTH_ID);
|
connect_r2e(1,router_id(x,y),NORTH,NORTH_ID);
|
er_addr [NORTH_ID] = R_ADDR;
|
er_addr [NORTH_ID] = R_ADDR;
|
#endif//topology
|
#endif//topology
|
}//y>0
|
}//y>0
|
|
|
|
|
if(x>0){// :not_first_x
|
if(x>0){// :not_first_x
|
//assign router_chan_in[`router_id(x,y)][WEST] = router_chan_out [`router_id((x-1),y)][EAST];
|
//assign router_chan_in[`router_id(x,y)][WEST] = router_chan_out [`router_id((x-1),y)][EAST];
|
conect_r2r(1,router_id(x,y),WEST,1,router_id((x-1),y),EAST);
|
conect_r2r(1,router_id(x,y),WEST,1,router_id((x-1),y),EAST);
|
}else {// :first_x
|
}else {// :first_x
|
|
|
#if defined (IS_MESH) // :first_x_mesh
|
#if defined (IS_MESH) // :first_x_mesh
|
//assign router_chan_in[`router_id(x,y)][WEST] = {SMARTFLIT_CHANEL_w{1'b0}};
|
//assign router_chan_in[`router_id(x,y)][WEST] = {SMARTFLIT_CHANEL_w{1'b0}};
|
connect_r2gnd(1,router_id(x,y),WEST);
|
connect_r2gnd(1,router_id(x,y),WEST);
|
|
|
#elif defined (IS_TORUS) // :first_x_torus
|
#elif defined (IS_TORUS) // :first_x_torus
|
//assign router_chan_in[`router_id(x,y)][WEST] = router_chan_out [`router_id((NX-1),y)][EAST] ;
|
//assign router_chan_in[`router_id(x,y)][WEST] = router_chan_out [`router_id((NX-1),y)][EAST] ;
|
conect_r2r(1,router_id(x,y),WEST,1,router_id((T1-1),y),EAST);
|
conect_r2r(1,router_id(x,y),WEST,1,router_id((T1-1),y),EAST);
|
#elif defined (IS_FMESH) // :first_x_fmesh
|
#elif defined (IS_FMESH) // :first_x_fmesh
|
unsigned int WEST_ID = T1*T2*T3 + 2*T1 + y;
|
unsigned int WEST_ID = T1*T2*T3 + 2*T1 + y;
|
connect_r2e(1,router_id(x,y),WEST,WEST_ID);
|
connect_r2e(1,router_id(x,y),WEST,WEST_ID);
|
er_addr [WEST_ID] = R_ADDR;
|
er_addr [WEST_ID] = R_ADDR;
|
#endif//topology
|
#endif//topology
|
}
|
}
|
|
|
if(y < T2-1) {// : firsty
|
if(y < T2-1) {// : firsty
|
//assign router_chan_in[`router_id(x,y)][SOUTH] = router_chan_out [`router_id(x,(y+1))][NORTH];
|
//assign router_chan_in[`router_id(x,y)][SOUTH] = router_chan_out [`router_id(x,(y+1))][NORTH];
|
conect_r2r(1,router_id(x,y),SOUTH,1,router_id(x,(y+1)),NORTH);
|
conect_r2r(1,router_id(x,y),SOUTH,1,router_id(x,(y+1)),NORTH);
|
}else {// : lasty
|
}else {// : lasty
|
|
|
#if defined (IS_MESH) // :ly_mesh
|
#if defined (IS_MESH) // :ly_mesh
|
|
|
//assign router_chan_in[`router_id(x,y)][SOUTH]= {SMARTFLIT_CHANEL_w{1'b0}};
|
//assign router_chan_in[`router_id(x,y)][SOUTH]= {SMARTFLIT_CHANEL_w{1'b0}};
|
connect_r2gnd(1,router_id(x,y),SOUTH);
|
connect_r2gnd(1,router_id(x,y),SOUTH);
|
|
|
#elif defined (IS_TORUS) // :ly_torus
|
#elif defined (IS_TORUS) // :ly_torus
|
//assign router_chan_in[`router_id(x,y)][SOUTH]= router_chan_out [`router_id(x,0)][NORTH];
|
//assign router_chan_in[`router_id(x,y)][SOUTH]= router_chan_out [`router_id(x,0)][NORTH];
|
conect_r2r(1,router_id(x,y),SOUTH,1,router_id(x,0),NORTH);
|
conect_r2r(1,router_id(x,y),SOUTH,1,router_id(x,0),NORTH);
|
#elif defined (IS_FMESH) // :ly_Fmesh
|
#elif defined (IS_FMESH) // :ly_Fmesh
|
unsigned int SOUTH_ID = T1*T2*T3 + T1 + x;
|
unsigned int SOUTH_ID = T1*T2*T3 + T1 + x;
|
connect_r2e(1,router_id(x,y),SOUTH,SOUTH_ID);
|
connect_r2e(1,router_id(x,y),SOUTH,SOUTH_ID);
|
er_addr [SOUTH_ID] = R_ADDR;
|
er_addr [SOUTH_ID] = R_ADDR;
|
#endif//topology
|
#endif//topology
|
}
|
}
|
|
|
|
|
// endpoint(s) connection
|
// endpoint(s) connection
|
// connect other local ports
|
// connect other local ports
|
for (l=0; l<T3; l=l+1) {// :locals
|
for (l=0; l<T3; l=l+1) {// :locals
|
unsigned int ENDPID = endp_id(x,y,l);
|
unsigned int ENDPID = endp_id(x,y,l);
|
unsigned int LOCALP = (l==0) ? l : l + R2R_CHANELS_MESH_TORI; // first local port is connected to router port 0. The rest are connected at the }
|
unsigned int LOCALP = (l==0) ? l : l + R2R_CHANELS_MESH_TORI; // first local port is connected to router port 0. The rest are connected at the }
|
|
|
//assign router_chan_in [`router_id(x,y)][LOCALP] = chan_in_all [ENDPID];
|
//assign router_chan_in [`router_id(x,y)][LOCALP] = chan_in_all [ENDPID];
|
//assign chan_out_all [ENDPID] = router_chan_out [`router_id(x,y)][LOCALP];
|
//assign chan_out_all [ENDPID] = router_chan_out [`router_id(x,y)][LOCALP];
|
//assign er_addr [ENDPID] = R_ADDR;
|
//assign er_addr [ENDPID] = R_ADDR;
|
connect_r2e(1,router_id(x,y),LOCALP,ENDPID);
|
connect_r2e(1,router_id(x,y),LOCALP,ENDPID);
|
er_addr [ENDPID] = R_ADDR;
|
er_addr [ENDPID] = R_ADDR;
|
}// locals
|
}// locals
|
|
|
}//y
|
}//y
|
}//x
|
}//x
|
#endif
|
#endif
|
|
|
|
|
}
|
}
|
|
|
#define fill_r2r_cnt(T1,R1,P1,T2,R2,P2) (r2r_cnt_table_t){.id1=R1,.t1=T1,.r1=R1,.p1=P1,.id2=R2,.t2=T2,.r2=R2,.p2=P2}
|
#define fill_r2r_cnt(T1,R1,P1,T2,R2,P2) (r2r_cnt_table_t){.id1=R1,.t1=T1,.r1=R1,.p1=P1,.id2=R2,.t2=T2,.r2=R2,.p2=P2}
|
|
|
void topology_init(void){
|
void topology_init(void){
|
nxw=Log2(T1);
|
nxw=Log2(T1);
|
nyw=Log2(T2);
|
nyw=Log2(T2);
|
maskx = (0x1<<nxw)-1;
|
maskx = (0x1<<nxw)-1;
|
masky = (0x1<<nyw)-1;
|
masky = (0x1<<nyw)-1;
|
unsigned int num=0;
|
unsigned int num=0;
|
unsigned int x,y,l;
|
unsigned int x,y,l;
|
#if defined (IS_LINE) || defined (IS_RING )
|
#if defined (IS_LINE) || defined (IS_RING )
|
#define R2R_CHANELS_MESH_TORI 2
|
#define R2R_CHANELS_MESH_TORI 2
|
for (x=0; x<T1; x=x+1) {
|
for (x=0; x<T1; x=x+1) {
|
|
|
router1[x]->current_r_addr = x;
|
router1[x]->current_r_addr = x;
|
router1[x]->current_r_id = x;
|
router1[x]->current_r_id = x;
|
if(x < T1-1){// not_last_node
|
if(x < T1-1){// not_last_node
|
//assign router_chan_in[x][FORWARD] = router_chan_out [(x+1)][BACKWARD];
|
//assign router_chan_in[x][FORWARD] = router_chan_out [(x+1)][BACKWARD];
|
//conect_r2r(1,x,FORWARD,1,(x+1),BACKWARD);
|
//conect_r2r(1,x,FORWARD,1,(x+1),BACKWARD);
|
r2r_cnt_all[num]=fill_r2r_cnt(1,x,FORWARD,1,(x+1),BACKWARD);
|
r2r_cnt_all[num]=fill_r2r_cnt(1,x,FORWARD,1,(x+1),BACKWARD);
|
num++;
|
num++;
|
} else { //last_node
|
} else { //last_node
|
#if defined (IS_LINE) // : line_last_x
|
#if defined (IS_LINE) // : line_last_x
|
//assign router_chan_in[x][FORWARD]= {SMARTFLIT_CHANEL_w{1'b0}};
|
//assign router_chan_in[x][FORWARD]= {SMARTFLIT_CHANEL_w{1'b0}};
|
connect_r2gnd(1,x,FORWARD);
|
connect_r2gnd(1,x,FORWARD);
|
#else // : ring_last_x
|
#else // : ring_last_x
|
//assign router_chan_in[x][FORWARD]= router_chan_out [0][BACKWARD];
|
//assign router_chan_in[x][FORWARD]= router_chan_out [0][BACKWARD];
|
//conect_r2r(1,x,FORWARD,1,0,BACKWARD);
|
//conect_r2r(1,x,FORWARD,1,0,BACKWARD);
|
r2r_cnt_all[num]=fill_r2r_cnt(1,x,FORWARD,1,0,BACKWARD);
|
r2r_cnt_all[num]=fill_r2r_cnt(1,x,FORWARD,1,0,BACKWARD);
|
num++;
|
num++;
|
#endif
|
#endif
|
}
|
}
|
|
|
if(x>0){// :not_first_x
|
if(x>0){// :not_first_x
|
//assign router_chan_in[x][BACKWARD]= router_chan_out [(x-1)][FORWARD];
|
//assign router_chan_in[x][BACKWARD]= router_chan_out [(x-1)][FORWARD];
|
//conect_r2r(1,x,BACKWARD,1,(x-1),FORWARD);
|
//conect_r2r(1,x,BACKWARD,1,(x-1),FORWARD);
|
r2r_cnt_all[num]=fill_r2r_cnt(1,x,BACKWARD,1,(x-1),FORWARD);
|
r2r_cnt_all[num]=fill_r2r_cnt(1,x,BACKWARD,1,(x-1),FORWARD);
|
num++;
|
num++;
|
}else {// :first_x
|
}else {// :first_x
|
#if defined (IS_LINE) // : line_first_x
|
#if defined (IS_LINE) // : line_first_x
|
//assign router_chan_in[x][BACKWARD]={SMARTFLIT_CHANEL_w{1'b0}};
|
//assign router_chan_in[x][BACKWARD]={SMARTFLIT_CHANEL_w{1'b0}};
|
connect_r2gnd(1,x,BACKWARD);
|
connect_r2gnd(1,x,BACKWARD);
|
#else // : ring_first_x
|
#else // : ring_first_x
|
//assign router_chan_in[x][BACKWARD]= router_chan_out [(NX-1)][FORWARD];
|
//assign router_chan_in[x][BACKWARD]= router_chan_out [(NX-1)][FORWARD];
|
//conect_r2r(1,x,BACKWARD,1,(T1-1),FORWARD);
|
//conect_r2r(1,x,BACKWARD,1,(T1-1),FORWARD);
|
r2r_cnt_all[num]=fill_r2r_cnt(1,x,BACKWARD,1,(T1-1),FORWARD);
|
r2r_cnt_all[num]=fill_r2r_cnt(1,x,BACKWARD,1,(T1-1),FORWARD);
|
num++;
|
num++;
|
#endif
|
#endif
|
}
|
}
|
|
|
// connect other local ports
|
// connect other local ports
|
for (l=0; l<T3; l=l+1) {// :locals
|
for (l=0; l<T3; l=l+1) {// :locals
|
unsigned int ENDPID = endp_id(x,0,l);
|
unsigned int ENDPID = endp_id(x,0,l);
|
unsigned int LOCALP = (l==0) ? l : l + R2R_CHANELS_MESH_TORI; // first local port is connected to router port 0. The rest are connected at the }
|
unsigned int LOCALP = (l==0) ? l : l + R2R_CHANELS_MESH_TORI; // first local port is connected to router port 0. The rest are connected at the }
|
//assign router_chan_in[x][LOCALP]= chan_in_all [ENDPID];
|
//assign router_chan_in[x][LOCALP]= chan_in_all [ENDPID];
|
//assign chan_out_all [ENDPID] = router_chan_out[x][LOCALP];
|
//assign chan_out_all [ENDPID] = router_chan_out[x][LOCALP];
|
//connect_r2e(1,x,LOCALP,ENDPID);
|
//connect_r2e(1,x,LOCALP,ENDPID);
|
r2e_cnt_all[ENDPID].r1=x;
|
r2e_cnt_all[ENDPID].r1=x;
|
r2e_cnt_all[ENDPID].p1=LOCALP;
|
r2e_cnt_all[ENDPID].p1=LOCALP;
|
er_addr [ENDPID] = x;
|
er_addr [ENDPID] = x;
|
|
|
}// locals
|
}// locals
|
}//x
|
}//x
|
|
|
#else // :mesh_torus
|
#else // :mesh_torus
|
#define R2R_CHANELS_MESH_TORI 4
|
#define R2R_CHANELS_MESH_TORI 4
|
for (y=0; y<T2; y=y+1) {//: y_loop
|
for (y=0; y<T2; y=y+1) {//: y_loop
|
for (x=0; x<T1; x=x+1) {// :x_loop
|
for (x=0; x<T1; x=x+1) {// :x_loop
|
unsigned int R_ADDR = (y<<nxw) + x;
|
unsigned int R_ADDR = (y<<nxw) + x;
|
unsigned int ROUTER_NUM = (y * T1) + x;
|
unsigned int ROUTER_NUM = (y * T1) + x;
|
//assign current_r_addr [ROUTER_NUM] = R_ADDR[RAw-1 :0];
|
//assign current_r_addr [ROUTER_NUM] = R_ADDR[RAw-1 :0];
|
router1[ROUTER_NUM]->current_r_addr = R_ADDR;
|
router1[ROUTER_NUM]->current_r_addr = R_ADDR;
|
router1[ROUTER_NUM]->current_r_id = ROUTER_NUM;
|
router1[ROUTER_NUM]->current_r_id = ROUTER_NUM;
|
|
|
if(x < T1-1) {//: not_last_x
|
if(x < T1-1) {//: not_last_x
|
//assign router_chan_in[`router_id(x,y)][EAST]= router_chan_out [`router_id(x+1,y)][WEST];
|
//assign router_chan_in[`router_id(x,y)][EAST]= router_chan_out [`router_id(x+1,y)][WEST];
|
//conect_r2r(1,router_id(x,y),EAST,1,router_id(x+1,y),WEST);
|
//conect_r2r(1,router_id(x,y),EAST,1,router_id(x+1,y),WEST);
|
r2r_cnt_all[num]=fill_r2r_cnt(1,router_id(x,y),EAST,1,router_id(x+1,y),WEST);
|
r2r_cnt_all[num]=fill_r2r_cnt(1,router_id(x,y),EAST,1,router_id(x+1,y),WEST);
|
num++;
|
num++;
|
|
|
}else {// :last_x
|
}else {// :last_x
|
#if defined (IS_MESH) // :last_x_mesh
|
#if defined (IS_MESH) // :last_x_mesh
|
// assign router_chan_in[`router_id(x,y)][EAST] = {SMARTFLIT_CHANEL_w{1'b0}};
|
// assign router_chan_in[`router_id(x,y)][EAST] = {SMARTFLIT_CHANEL_w{1'b0}};
|
connect_r2gnd(1,router_id(x,y),EAST);
|
connect_r2gnd(1,router_id(x,y),EAST);
|
#elif defined (IS_TORUS) // : last_x_torus
|
#elif defined (IS_TORUS) // : last_x_torus
|
//assign router_chan_in[`router_id(x,y)][EAST] = router_chan_out [`router_id(0,y)][WEST];
|
//assign router_chan_in[`router_id(x,y)][EAST] = router_chan_out [`router_id(0,y)][WEST];
|
//conect_r2r(1,router_id(x,y),EAST,1,router_id(0,y),WEST);
|
//conect_r2r(1,router_id(x,y),EAST,1,router_id(0,y),WEST);
|
r2r_cnt_all[num]=fill_r2r_cnt(1,router_id(x,y),EAST,1,router_id(0,y),WEST);
|
r2r_cnt_all[num]=fill_r2r_cnt(1,router_id(x,y),EAST,1,router_id(0,y),WEST);
|
num++;
|
num++;
|
#elif defined (IS_FMESH) //:last_x_fmesh
|
#elif defined (IS_FMESH) //:last_x_fmesh
|
//connect to endp
|
//connect to endp
|
unsigned int EAST_ID = T1*T2*T3 + 2*T1 + T2 + y;
|
unsigned int EAST_ID = T1*T2*T3 + 2*T1 + T2 + y;
|
//connect_r2e(1,router_id(x,y),EAST,EAST_ID);
|
//connect_r2e(1,router_id(x,y),EAST,EAST_ID);
|
r2e_cnt_all[EAST_ID].r1=router_id(x,y);
|
r2e_cnt_all[EAST_ID].r1=router_id(x,y);
|
r2e_cnt_all[EAST_ID].p1=EAST;
|
r2e_cnt_all[EAST_ID].p1=EAST;
|
er_addr [EAST_ID] = R_ADDR;
|
er_addr [EAST_ID] = R_ADDR;
|
#endif//topology
|
#endif//topology
|
}
|
}
|
|
|
|
|
if(y>0) {// : not_first_y
|
if(y>0) {// : not_first_y
|
//assign router_chan_in[`router_id(x,y)][NORTH] = router_chan_out [`router_id(x,(y-1))][SOUTH];
|
//assign router_chan_in[`router_id(x,y)][NORTH] = router_chan_out [`router_id(x,(y-1))][SOUTH];
|
//conect_r2r(1,router_id(x,y),NORTH,1,router_id(x,(y-1)),SOUTH);
|
//conect_r2r(1,router_id(x,y),NORTH,1,router_id(x,(y-1)),SOUTH);
|
r2r_cnt_all[num]=fill_r2r_cnt(1,router_id(x,y),NORTH,1,router_id(x,(y-1)),SOUTH);
|
r2r_cnt_all[num]=fill_r2r_cnt(1,router_id(x,y),NORTH,1,router_id(x,(y-1)),SOUTH);
|
num++;
|
num++;
|
}else {// :first_y
|
}else {// :first_y
|
#if defined (IS_MESH) // : first_y_mesh
|
#if defined (IS_MESH) // : first_y_mesh
|
//assign router_chan_in[`router_id(x,y)][NORTH] = {SMARTFLIT_CHANEL_w{1'b0}};
|
//assign router_chan_in[`router_id(x,y)][NORTH] = {SMARTFLIT_CHANEL_w{1'b0}};
|
connect_r2gnd(1,router_id(x,y),NORTH);
|
connect_r2gnd(1,router_id(x,y),NORTH);
|
#elif defined (IS_TORUS)// :first_y_torus
|
#elif defined (IS_TORUS)// :first_y_torus
|
//assign router_chan_in[`router_id(x,y)][NORTH] = router_chan_out [`router_id(x,(T2-1))][SOUTH];
|
//assign router_chan_in[`router_id(x,y)][NORTH] = router_chan_out [`router_id(x,(T2-1))][SOUTH];
|
//conect_r2r(1,router_id(x,y),NORTH,1,router_id(x,(T2-1)),SOUTH);
|
//conect_r2r(1,router_id(x,y),NORTH,1,router_id(x,(T2-1)),SOUTH);
|
r2r_cnt_all[num]=fill_r2r_cnt(1,router_id(x,y),NORTH,1,router_id(x,(T2-1)),SOUTH);
|
r2r_cnt_all[num]=fill_r2r_cnt(1,router_id(x,y),NORTH,1,router_id(x,(T2-1)),SOUTH);
|
num++;
|
num++;
|
#elif defined (IS_FMESH) // :first_y_fmesh
|
#elif defined (IS_FMESH) // :first_y_fmesh
|
unsigned int NORTH_ID = T1*T2*T3 + x;
|
unsigned int NORTH_ID = T1*T2*T3 + x;
|
//connect_r2e(1,router_id(x,y),NORTH,NORTH_ID);
|
//connect_r2e(1,router_id(x,y),NORTH,NORTH_ID);
|
r2e_cnt_all[NORTH_ID].r1=router_id(x,y);
|
r2e_cnt_all[NORTH_ID].r1=router_id(x,y);
|
r2e_cnt_all[NORTH_ID].p1=NORTH;
|
r2e_cnt_all[NORTH_ID].p1=NORTH;
|
er_addr [NORTH_ID] = R_ADDR;
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er_addr [NORTH_ID] = R_ADDR;
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#endif//topology
|
#endif//topology
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}//y>0
|
}//y>0
|
|
|
|
|
if(x>0){// :not_first_x
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if(x>0){// :not_first_x
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//assign router_chan_in[`router_id(x,y)][WEST] = router_chan_out [`router_id((x-1),y)][EAST];
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//assign router_chan_in[`router_id(x,y)][WEST] = router_chan_out [`router_id((x-1),y)][EAST];
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//conect_r2r(1,router_id(x,y),WEST,1,router_id((x-1),y),EAST);
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//conect_r2r(1,router_id(x,y),WEST,1,router_id((x-1),y),EAST);
|
r2r_cnt_all[num]=fill_r2r_cnt(1,router_id(x,y),WEST,1,router_id((x-1),y),EAST);
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r2r_cnt_all[num]=fill_r2r_cnt(1,router_id(x,y),WEST,1,router_id((x-1),y),EAST);
|
num++;
|
num++;
|
|
|
}else {// :first_x
|
}else {// :first_x
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|
|
#if defined (IS_MESH) // :first_x_mesh
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#if defined (IS_MESH) // :first_x_mesh
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//assign router_chan_in[`router_id(x,y)][WEST] = {SMARTFLIT_CHANEL_w{1'b0}};
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//assign router_chan_in[`router_id(x,y)][WEST] = {SMARTFLIT_CHANEL_w{1'b0}};
|
connect_r2gnd(1,router_id(x,y),WEST);
|
connect_r2gnd(1,router_id(x,y),WEST);
|
|
|
#elif defined (IS_TORUS) // :first_x_torus
|
#elif defined (IS_TORUS) // :first_x_torus
|
//assign router_chan_in[`router_id(x,y)][WEST] = router_chan_out [`router_id((NX-1),y)][EAST] ;
|
//assign router_chan_in[`router_id(x,y)][WEST] = router_chan_out [`router_id((NX-1),y)][EAST] ;
|
//conect_r2r(1,router_id(x,y),WEST,1,router_id((T1-1),y),EAST);
|
//conect_r2r(1,router_id(x,y),WEST,1,router_id((T1-1),y),EAST);
|
r2r_cnt_all[num]=fill_r2r_cnt(1,router_id(x,y),WEST,1,router_id((T1-1),y),EAST);
|
r2r_cnt_all[num]=fill_r2r_cnt(1,router_id(x,y),WEST,1,router_id((T1-1),y),EAST);
|
num++;
|
num++;
|
#elif defined (IS_FMESH) // :first_x_fmesh
|
#elif defined (IS_FMESH) // :first_x_fmesh
|
unsigned int WEST_ID = T1*T2*T3 + 2*T1 + y;
|
unsigned int WEST_ID = T1*T2*T3 + 2*T1 + y;
|
//connect_r2e(1,router_id(x,y),WEST,WEST_ID);
|
//connect_r2e(1,router_id(x,y),WEST,WEST_ID);
|
r2e_cnt_all[WEST_ID].r1=router_id(x,y);
|
r2e_cnt_all[WEST_ID].r1=router_id(x,y);
|
r2e_cnt_all[WEST_ID].p1=WEST;
|
r2e_cnt_all[WEST_ID].p1=WEST;
|
er_addr [WEST_ID] = R_ADDR;
|
er_addr [WEST_ID] = R_ADDR;
|
#endif//topology
|
#endif//topology
|
}
|
}
|
|
|
if(y < T2-1) {// : firsty
|
if(y < T2-1) {// : firsty
|
//assign router_chan_in[`router_id(x,y)][SOUTH] = router_chan_out [`router_id(x,(y+1))][NORTH];
|
//assign router_chan_in[`router_id(x,y)][SOUTH] = router_chan_out [`router_id(x,(y+1))][NORTH];
|
// conect_r2r(1,router_id(x,y),SOUTH,1,router_id(x,(y+1)),NORTH);
|
// conect_r2r(1,router_id(x,y),SOUTH,1,router_id(x,(y+1)),NORTH);
|
r2r_cnt_all[num]=fill_r2r_cnt(1,router_id(x,y),SOUTH,1,router_id(x,(y+1)),NORTH);
|
r2r_cnt_all[num]=fill_r2r_cnt(1,router_id(x,y),SOUTH,1,router_id(x,(y+1)),NORTH);
|
num++;
|
num++;
|
}else {// : lasty
|
}else {// : lasty
|
|
|
#if defined (IS_MESH) // :ly_mesh
|
#if defined (IS_MESH) // :ly_mesh
|
|
|
//assign router_chan_in[`router_id(x,y)][SOUTH]= {SMARTFLIT_CHANEL_w{1'b0}};
|
//assign router_chan_in[`router_id(x,y)][SOUTH]= {SMARTFLIT_CHANEL_w{1'b0}};
|
connect_r2gnd(1,router_id(x,y),SOUTH);
|
connect_r2gnd(1,router_id(x,y),SOUTH);
|
|
|
#elif defined (IS_TORUS) // :ly_torus
|
#elif defined (IS_TORUS) // :ly_torus
|
//assign router_chan_in[`router_id(x,y)][SOUTH]= router_chan_out [`router_id(x,0)][NORTH];
|
//assign router_chan_in[`router_id(x,y)][SOUTH]= router_chan_out [`router_id(x,0)][NORTH];
|
// conect_r2r(1,router_id(x,y),SOUTH,1,router_id(x,0),NORTH);
|
// conect_r2r(1,router_id(x,y),SOUTH,1,router_id(x,0),NORTH);
|
r2r_cnt_all[num]=fill_r2r_cnt(1,router_id(x,y),SOUTH,1,router_id(x,0),NORTH);
|
r2r_cnt_all[num]=fill_r2r_cnt(1,router_id(x,y),SOUTH,1,router_id(x,0),NORTH);
|
num++;
|
num++;
|
#elif defined (IS_FMESH) // :ly_Fmesh
|
#elif defined (IS_FMESH) // :ly_Fmesh
|
unsigned int SOUTH_ID = T1*T2*T3 + T1 + x;
|
unsigned int SOUTH_ID = T1*T2*T3 + T1 + x;
|
//connect_r2e(1,router_id(x,y),SOUTH,SOUTH_ID);
|
//connect_r2e(1,router_id(x,y),SOUTH,SOUTH_ID);
|
r2e_cnt_all[SOUTH_ID].r1=router_id(x,y);
|
r2e_cnt_all[SOUTH_ID].r1=router_id(x,y);
|
r2e_cnt_all[SOUTH_ID].p1=SOUTH;
|
r2e_cnt_all[SOUTH_ID].p1=SOUTH;
|
er_addr [SOUTH_ID] = R_ADDR;
|
er_addr [SOUTH_ID] = R_ADDR;
|
#endif//topology
|
#endif//topology
|
}
|
}
|
|
|
|
|
// endpoint(s) connection
|
// endpoint(s) connection
|
// connect other local ports
|
// connect other local ports
|
for (l=0; l<T3; l=l+1) {// :locals
|
for (l=0; l<T3; l=l+1) {// :locals
|
unsigned int ENDPID = endp_id(x,y,l);
|
unsigned int ENDPID = endp_id(x,y,l);
|
unsigned int LOCALP = (l==0) ? l : l + R2R_CHANELS_MESH_TORI; // first local port is connected to router port 0. The rest are connected at the }
|
unsigned int LOCALP = (l==0) ? l : l + R2R_CHANELS_MESH_TORI; // first local port is connected to router port 0. The rest are connected at the }
|
|
|
//assign router_chan_in [`router_id(x,y)][LOCALP] = chan_in_all [ENDPID];
|
//assign router_chan_in [`router_id(x,y)][LOCALP] = chan_in_all [ENDPID];
|
//assign chan_out_all [ENDPID] = router_chan_out [`router_id(x,y)][LOCALP];
|
//assign chan_out_all [ENDPID] = router_chan_out [`router_id(x,y)][LOCALP];
|
//assign er_addr [ENDPID] = R_ADDR;
|
//assign er_addr [ENDPID] = R_ADDR;
|
// connect_r2e(1,router_id(x,y),LOCALP,ENDPID);
|
// connect_r2e(1,router_id(x,y),LOCALP,ENDPID);
|
r2e_cnt_all[ENDPID].r1=router_id(x,y);
|
r2e_cnt_all[ENDPID].r1=router_id(x,y);
|
r2e_cnt_all[ENDPID].p1=LOCALP;
|
r2e_cnt_all[ENDPID].p1=LOCALP;
|
er_addr [ENDPID] = R_ADDR;
|
er_addr [ENDPID] = R_ADDR;
|
}// locals
|
}// locals
|
|
|
}//y
|
}//y
|
}//x
|
}//x
|
#endif
|
#endif
|
|
|
R2R_TABLE_SIZ=num;
|
R2R_TABLE_SIZ=num;
|
|
|
}
|
}
|
|
|
|
|
unsigned int get_mah_distance ( unsigned int id1, unsigned int id2){
|
unsigned int get_mah_distance ( unsigned int id1, unsigned int id2){
|
#if defined (IS_FMESH)
|
#if defined (IS_FMESH)
|
unsigned int x1,y1,p1,x2,y2,p2;
|
unsigned int x1,y1,p1,x2,y2,p2;
|
fmesh_addrencod_sep ( id1, &x1, &y1, &p1);
|
fmesh_addrencod_sep ( id1, &x1, &y1, &p1);
|
fmesh_addrencod_sep ( id2, &x2, &y2, &p2);
|
fmesh_addrencod_sep ( id2, &x2, &y2, &p2);
|
#else
|
#else
|
unsigned int x1,y1,l1,x2,y2,l2;
|
unsigned int x1,y1,l1,x2,y2,l2;
|
mesh_tori_addrencod_sep(id1, &x1, &y1, &l1);
|
mesh_tori_addrencod_sep(id1, &x1, &y1, &l1);
|
mesh_tori_addrencod_sep(id2, &x2, &y2, &l2);
|
mesh_tori_addrencod_sep(id2, &x2, &y2, &l2);
|
#endif
|
#endif
|
|
|
unsigned int x_diff = (x1 > x2) ? (x1 - x2) : (x2 - x1);
|
unsigned int x_diff = (x1 > x2) ? (x1 - x2) : (x2 - x1);
|
unsigned int y_diff = (y1 > y2) ? (y1 - y2) : (y2 - y1);
|
unsigned int y_diff = (y1 > y2) ? (y1 - y2) : (y2 - y1);
|
return x_diff + y_diff;
|
return x_diff + y_diff;
|
}
|
}
|
|
|
|
|
#endif
|
#endif
|
|
|