Example #1
0
int main(){
    int num_test_cases, cols, rows, i, num, k;
    char inp[500], ch;
    std::string ret;
    std::map<char, std::string> storage;
    
    gen_binary(storage);

    scanf("%d",&num_test_cases); getchar();
    for(int x=0; x<num_test_cases; x++){
       inp[0] = '\0'; k = 0;
       scanf("%d %d",&rows, &cols);
       getchar();
       while(ch=getchar()){
          if(ch == EOF || ch == '\n') break;
          inp[k++]=ch;
       }
       inp[k] = '\0';
      // printf("%d**%d**%s**\n",rows, cols, inp);
       
       char M[rows*cols];
       i=0;
       while(inp[i] != '\0'){
          ret = storage[inp[i]];
          for(int j=0; j<5; j++){
              M[5*i+j] = ret[j];
          }
          i++;
       }
       for(int z=0; z<rows*cols; z++){
           if(M[z] != '0' && M[z] != '1'){
               M[z] = '0';
           }
       }
       printf("%d ",x+1);
       convert(M, rows, cols);
       printf("\n");
    }
}
Example #2
0
void gen_or(exprt &expr)
{
  gen_binary(expr, "or", false);
}
Example #3
0
void gen_and(exprt &expr)
{
  gen_binary(expr, "and", true);
}
Example #4
0
exprt gen_implies(const exprt &op1, const exprt &op2)
{
  return gen_binary("=>", typet("bool"), op1, op2);
}
Example #5
0
exprt gen_or(const exprt &op1, const exprt &op2)
{
  return gen_binary("or", typet("bool"), op1, op2);
}
Example #6
0
exprt gen_and(const exprt &op1, const exprt &op2)
{
  return gen_binary("and", typet("bool"), op1, op2);
}
Example #7
0
/* Object evaluation */
void gen_address(Node node)										/*;gen_address*/
{
	/*
	 *  This procedure generates code for the o_expressions
	 *  or, in other words, the left-handsides.
	 */

	Node   pre_node, array_node, range_node, lbd_node, ubd_node, record_node,
	  field_node, id_node;
	Symbol	node_name, type_name, record_name, record_type,
	  field_name, comp_type, proc_name, return_type;
	int		f_off, bse, off, nk;
	Fortup	ft1;

#ifdef TRACE
	if (debug_flag)
		gen_trace_node("GEN_ADDRESS", node);
#endif

	while (N_KIND(node) == as_insert) {
		FORTUP(pre_node=(Node), N_LIST(node), ft1);
			compile(pre_node);
		ENDFORTUP(ft1);
		node = N_AST1(node);
	}

	node_name = N_UNQ(node);
	if (is_simple_name(node)) {
		type_name = get_type(node);
		if (is_renaming(node_name))
			gen_ks(I_PUSH, mu_addr, node_name);
		else
			gen_s(I_PUSH_EFFECTIVE_ADDRESS, node_name);

		/* Arrays are treated in a different manner, depending on their */
		/* nature: parameters, constants, variables... */
		if (is_array_type(type_name)) {
			if (is_formal_parameter(node_name)) {
				type_name = assoc_symbol_get(node_name, FORMAL_TEMPLATE);
			}
			gen_s(I_PUSH_EFFECTIVE_ADDRESS, type_name);
		}

	}
	else {
		switch (nk = N_KIND(node)) {
		case as_raise:
			compile(node);
			break;

		case as_index:
			gen_subscript(node);
			break;

		case as_slice:
			array_node = N_AST1(node);
			range_node = N_AST2(node);
			/*range_name = N_UNQ(range_node); -- never used   ds 7-8-85 */

			/* Note: case of type simple name changed into range attribute */
			/* by expander */
			if (N_KIND(range_node) == as_attribute) {
				gen_attribute(range_node);
			}
			else { /* range */
				lbd_node = N_AST1(range_node);
				ubd_node = N_AST2(range_node);
				gen_value(lbd_node);
				gen_value(ubd_node);
			}
			if (N_KIND(array_node) == as_attribute) {
				gen_attribute(array_node);
			}
			else {
				gen_address(array_node);
			}
			gen(I_ARRAY_SLICE);
			break;

		case as_selector:
			record_node = N_AST1(node);
			field_node = N_AST2(node);
			record_name = N_UNQ(record_node);
			record_type = get_type(record_node);
			field_name = N_UNQ(field_node);
			f_off = FIELD_OFFSET(field_name);
			if (f_off >= 0 &&
			  ((! has_discriminant(record_type))
			  || NATURE(field_name) == na_discriminant)){
				if (is_simple_name(record_node)
				  && !(is_renaming(record_name)) && is_global(record_name)) {
					reference_of(record_name);
					bse = REFERENCE_SEGMENT;
					off = REFERENCE_OFFSET;
					/* The SETL version has generate(I_PUSH_IMMEDIATE, mu_addr,
					 *  ref, field_name);
					 * which we translate as (I_PUSH_EFFECTIVE_ADDRESS ...
					 * ref       = [bse, off+f_off];
					 * Replace use of explicit ref by PUSH_IMMEDIATE
					 */
					/*  gen_rc(I_PUSH_IMMEDIATE, explicit_ref_new(bse,
					 *   off+f_off), "");
					 */
					gen_kv(I_PUSH_IMMEDIATE, mu_word, int_const(bse));
					gen_kv(I_PUSH_IMMEDIATE, mu_word, int_const(off+f_off));
				}
				else {
					gen_address(record_node);
					if (f_off != 0 ) {
						gen_ki(I_ADD_IMMEDIATE, mu_word, f_off);
					}
				}
				if (is_array_type(comp_type=TYPE_OF(field_name))) {
					gen_s(I_PUSH_EFFECTIVE_ADDRESS, comp_type);
				}
			}
			else {
				gen_address(record_node);
				gen_s(I_PUSH_EFFECTIVE_ADDRESS, record_type);
				/* translating following assuming field_name is comment part of
				 *-- instruction		ds	7-5-86
				 * 		gen_i(I_SELECT, FIELD_NUMBER(field_name), field_name);
				 */
				gen_i(I_SELECT, (int) FIELD_NUMBER(field_name));
			}
			break;

		case as_all:
			id_node = N_AST1(node);
			gen_value(id_node);
			if (is_array_type(N_TYPE(node)))
				gen_k(I_DEREF, mu_dble);
			break;

		case as_call:
			id_node   = N_AST1(node);
			proc_name   = N_UNQ(id_node);
			return_type = TYPE_OF(proc_name);
			gen_kc(I_DUPLICATE, kind_of(return_type), "place holder");
			compile(node);  	 /* processed from now as a procedure call */
			break;

		case as_un_op:
			gen_unary(node);
			break;

		case as_op:
			gen_binary(node);
			break;

		case as_string_ivalue:
			gen_value(node);
			break;

		default:
			compiler_error_k("GEN_ADDRESS called with kind ", node);
		}
	}
}
Example #8
0
void gen_or(exprt &expr)
{
  gen_binary(expr, ID_or, false);
}
Example #9
0
void gen_and(exprt &expr)
{
  gen_binary(expr, ID_and, true);
}