int main()
{
int i, j, t, s, q;
for (scanf("%d", &t); t-- > 0 && scanf("%d", &n) == 1;) {
for (i = 0; i < n; i++)
for (j = 0; j < n; j++)
scanf("%d", &a[i][j]);
m = (n + 1) / 2;
for (i = 0; i < m && scanf("%d", &s) == 1; i++) {
while (s-- > 0 && scanf("%d", &q) == 1) {
if (q == 1) apply1(i);
if (q == 2) apply2(i);
if (q == 3) apply3(i);
if (q == 4) apply4(i);
}
}
for (i = 0; i < n; i++)
for (j = 0; j < n; j++)
printf(((j + 1) < n) ? "%d " : "%d\n", a[i][j]);
}
return 0;
}
static void build_composites() {
composite[0] = pair(pos_occ(a), neg_occ(a));
composite[0]->id = 100;
composite[1] = pair(pos_occ(a), pos_occ(a));
composite[1]->id = 101;
composite[2] = pair(neg_occ(a), pos_occ(a));
composite[2]->id = 102;
composite[3] = pair(neg_occ(a), neg_occ(a));
composite[3]->id = 103;
composite[4] = pair(pos_occ(a), true_occ);
composite[4]->id = 104;
composite[5] = pair(pos_occ(a), false_occ);
composite[5]->id = 105;
composite[6] = pair(neg_occ(a), pos_occ(b));
composite[6]->id = 106;
composite[7] = pair(neg_occ(a), neg_occ(b));
composite[7]->id = 107;
composite[8] = apply2(f, pos_occ(c), pos_occ(c));
composite[8]->id = 108;
composite[9] = update2(f, pos_occ(c), neg_occ(d), pos_occ(h));
composite[9]->id = 109;
composite[10] = lambda(pos_occ(a), 0);
composite[10]->id = 110;
composite[11] = lambda(pos_occ(a), 1);
composite[11]->id = 110;
}
static void apply(ElementType const & element_in, MeshTypeOut & segment_out,
EdgeRefinementFlagAccessor const edge_refinement_flag_accessor,
VertexToVertexHandleAccessor const vertex_to_vertex_handle_accessor,
EdgeToVertexHandleAccessor edge_to_vertex_handle_accessor)
{
typedef typename viennagrid::result_of::const_element_range<ElementType, viennagrid::line_tag>::type EdgeOnCellRange;
typedef typename viennagrid::result_of::iterator<EdgeOnCellRange>::type EdgeOnCellIterator;
std::size_t edges_to_refine = 0;
EdgeOnCellRange edges_on_cell(element_in);
for (EdgeOnCellIterator eocit = edges_on_cell.begin();
eocit != edges_on_cell.end();
++eocit)
{
if ( edge_refinement_flag_accessor(*eocit) )
++edges_to_refine;
}
switch (edges_to_refine)
{
case 0: apply0(element_in, segment_out, edge_refinement_flag_accessor, vertex_to_vertex_handle_accessor, edge_to_vertex_handle_accessor); break;
case 1: apply1(element_in, segment_out, edge_refinement_flag_accessor, vertex_to_vertex_handle_accessor, edge_to_vertex_handle_accessor); break;
case 2: apply2(element_in, segment_out, edge_refinement_flag_accessor, vertex_to_vertex_handle_accessor, edge_to_vertex_handle_accessor); break;
case 3: apply3(element_in, segment_out, edge_refinement_flag_accessor, vertex_to_vertex_handle_accessor, edge_to_vertex_handle_accessor); break;
default: //nothing to do...
break;
}
} //apply()
AbSyn
defineUnary(String name, AbSyn param, AbSyn retType, AbSyn rhs)
{
AbSyn theLambda = lambda(comma1(abCopy(param)),
abCopy(retType),
label(id(name), rhs));
AbSyn theDefine = define(declare(id(name),
apply2(id("->"), abCopy(param),
abCopy(retType))),
theLambda);
abFree(retType);
abFree(param);
return theDefine;
}
