static void
enumerate(pccluster t, uint tname, pclusteroperator co,
pclusteroperator * con)
{
uint tname1;
uint i;
assert(co == 0 || co->t == t);
con[tname] = co;
tname1 = tname + 1;
if (co == 0 || co->son == 0)
for (i = 0; i < t->sons; i++) {
enumerate(t->son[i], tname1, 0, con);
tname1 += t->son[i]->desc;
}
else {
assert(t->sons == co->sons);
for (i = 0; i < t->sons; i++) {
enumerate(t->son[i], tname1, co->son[i], con);
tname1 += t->son[i]->desc;
}
}
assert(tname1 == tname + t->desc);
}
void enumerate(int energy, int number, int flag, int count)
{
if(energy * flag == 0 )
{
return;
}
if(energy != flag && energy-flag <= flag)
{
array[count++] = flag;
enumerate(energy-flag, number-1, energy-flag, count);
count--;
enumerate(energy, number, flag-1, count);
}
if(energy != flag && energy-flag > flag)
{
array[count++] = flag;
enumerate(energy-flag, number-1, flag, count);
}
if(energy == flag)
{
array[count++] = flag;
calcu(count, array);
count--;
enumerate(energy, number, flag-1, count);
}
return;
}
void initialize(){
//Mark Init
enumerated = 0xABCDEF01;
//Global variable init
Pstack_state = PSTK_IDLE; //0x0;
MBus_msg_flag = 0;
cdc_data_index = 0;
// snsv3_r0 = SNSv3_R0_DEFAULT;
//Enumeration
enumerate(RAD_ADDR);
delay(100);
enumerate(SNS_ADDR);
delay(100);
//CDC init--------------------------------------
// SNSv3_R7
snsv3_r7.CDC_LDO_CDC_LDO_ENB = 0x1;
snsv3_r7.CDC_LDO_CDC_LDO_DLY_ENB = 0x1;
snsv3_r7.ADC_LDO_ADC_LDO_ENB = 0x1;
snsv3_r7.ADC_LDO_ADC_LDO_DLY_ENB = 0x1;
// Set ADC LDO to around 1.37V: 0x3//0x20
snsv3_r7.ADC_LDO_ADC_VREF_MUX_SEL = 0x3;
snsv3_r7.ADC_LDO_ADC_VREF_SEL = 0x20;
// Set CDC LDO to around 1.03V: 0x0//0x20
snsv3_r7.CDC_LDO_CDC_VREF_MUX_SEL = 0x0;
snsv3_r7.CDC_LDO_CDC_VREF_SEL = 0x20;
snsv3_r7.LC_CLK_CONF = 0x9; // default = 0x9
write_mbus_register(SNS_ADDR,7,snsv3_r7.as_int);
// SNSv3_R1
snsv3_r1.CDC_S_period = 0x1A;
snsv3_r1.CDC_R_period = 0xC;
snsv3_r1.CDC_CR_ext = 0x0;
write_mbus_register(SNS_ADDR,1,snsv3_r1.as_int);
// SNSv3_R0 (need to be initialized here)
snsv3_r0.CDC_ext_select_CR = 0x0;
snsv3_r0.CDC_max_select = 0x7;
snsv3_r0.CDC_ext_max = 0x0;
snsv3_r0.CDC_CR_fixB = 0x1;
snsv3_r0.CDC_ext_clk = 0x0;
snsv3_r0.CDC_outck_in = 0x1;
snsv3_r0.CDC_on_adap = 0x1; //0x0 (default 0x1)
snsv3_r0.CDC_s_recycle = 0x1; //0x1 (default 0x4)
snsv3_r0.CDC_Td = 0x0;
snsv3_r0.CDC_OP_on = 0x0;
snsv3_r0.CDC_Bias_2nd = 0x7;
snsv3_r0.CDC_Bias_1st = 0x7;
snsv3_r0.CDC_EXT_RESET = 0x1;
snsv3_r0.CDC_CLK = 0x0;
write_mbus_register(SNS_ADDR,0,snsv3_r0.as_int);
}
int enumerate(int x)
{
if(x <= 0)
return 1;
else
return enumerate(x-1) + enumerate(x-2);
}
static void operation_init(void){
volatile uint32_t temp_addr;
volatile uint32_t temp_data;
volatile uint32_t temp_numBit;
// Set PMU Strength & division threshold
// PMU_CTRL Register
// PRCv9 Default: 0x8F770049
// Decrease 5x division switching threshold
set_pmu_sleep_clk_default();
// Speed up GOC frontend to match PMU frequency
// Speed up MBUS
// GOC_CTRL Register
// PRCv9 Default: 0x00202903
//*((volatile uint32_t *) 0xA2000008) = 0x00202608;
// For PREv9E GPIO Isolation disable >> bits 16, 17, 24
*((volatile uint32_t *) 0xA2000008) = 0x0120E508;
delay(DELAY_1);
//Enumerate & Initialize Registers
enumerated = 0xDEADBEEF;
exec_count = 0;
exec_count_irq = 0;
MBus_msg_flag = 0;
//Enumeration
enumerate(MD_ADDR);
delay(MBUS_DELAY*2);
enumerate(RAD_ADDR);
delay(MBUS_DELAY*2);
enumerate(HRV_ADDR);
delay(MBUS_DELAY*2);
// Set HRVv2 optimal settings for GaAs solar cell
hrvv2_r0.HRV_TOP_CONV_RATIO = 0;
write_mbus_register(HRV_ADDR,0x0,hrvv2_r0.as_int);
// Initialize other global variables
WAKEUP_PERIOD_CONT = 100; // 1: 2-4 sec with PRCv9
WAKEUP_PERIOD_CONT_INIT = 1; // 0x1E (30): ~1 min with PRCv9
radio_tx_count = 0;
radio_tx_option = 0;
md_start_motion = 0;
md_capture_img = 0;
md_count = 0;
INT_TIME = 5;
MD_INT_TIME = 15;
// Go to sleep without timer
//operation_sleep_notimer();
}
int _bproc_test_run(struct bproc_test_t *t, int nproc) {
int arr, error;
arr = enumerate(nproc, t->flags, -1);
while (arr != -1) {
error = __bproc_test_run(t, nproc, arr);
if (error) return 1;
arr = enumerate(nproc, t->flags, arr);
}
return 0;
}
int main (int argc, char const * argv [])
{
static char const * optv [] =
{
"",
PUTOPTV_S_DIVINE,
"Atheros Ethernet Interface Enumerator",
(char const *) (0)
};
signed c;
while ((c = getoptv (argc, argv, optv)) != -1)
{
switch (c)
{
default:
break;
}
}
argc -= optind;
argv += optind;
if (argc)
{
error (1, ECANCELED, ERROR_TOOMANY);
}
enumerate ();
return (0);
}
void QuickSaves::delete_surplus_saves(size_t max_saves)
{
if (max_saves < 1)
return; // unlimited saves, no need to prune
clear();
// Check the directory to count the saves. If there
// are fewer than the max, no need to go further.
vector<dir_entry> entries;
DirectorySpecifier path;
path.SetToQuickSavesDir();
if (path.ReadDirectory(entries)) {
if (entries.size() <= max_saves)
return;
}
// We might have too many unnamed saves; load and
// count them, deleting any extras.
enumerate();
size_t unnamed_saves = 0;
for (std::vector<QuickSave>::iterator it = begin(); it != end(); ++it) {
if (it->name.length())
continue;
if (++unnamed_saves > max_saves)
delete_quick_save(*it);
}
clear();
}
KFR_INTRINSIC friend vec<T, N> get_elements(const expression_rectangular& self, cinput_t,
size_t index, vec_shape<T, N>)
{
using TI = utype<T>;
const vec<TI, N> i = enumerate(vec_shape<TI, N>()) + static_cast<TI>(index);
return select(i < static_cast<TI>(self.m_size), T(1), T(0));
}
static void enumerate (table_data * data, json_value * value)
{
int index;
for (index = 0; index < value->u.object.length; index++) {
switch (value->u.object.values[index].value->type)
{
case json_object:
enumerate(data, value->u.object.values[index].value);
break;
case json_string:
add_data_column(data,value->u.object.values[index].name,value->u.object.values[index].value->u.string.ptr, datatype_text);
// puts(value->u.object.values[index].value->u.string.ptr);
break;
case json_integer:
add_data_column(data,value->u.object.values[index].name,&(value->u.object.values[index].value->u.integer), datatype_integer);
// printf("%d\n",(value->u.object.values[index].value->u.integer));
break;
case json_double:
add_data_column(data,value->u.object.values[index].name,&(value->u.object.values[index].value->u.dbl), datatype_real);
// printf("%f\n",value->u.object.values[index].value->u.dbl);
break;
case json_boolean:
add_data_column(data,value->u.object.values[index].name,&(value->u.object.values[index].value->u.boolean), datatype_boolean);
// printf("%d\n",value->u.object.values[index].value->u.boolean);
break;
case json_null:
add_data_column(data,value->u.object.values[index].name,0, datatype_null);
break;
default:
break;
}
}
}
static I impl(I begin, S end, C pred, P proj, detail::forward_iterator_tag_ fi)
{
using difference_type = iter_difference_t<I>;
difference_type const alloc_limit = 3; // might want to make this a function
// of trivial assignment.
// Either prove all true and return begin or point to first false
while(true)
{
if(begin == end)
return begin;
if(!invoke(pred, invoke(proj, *begin)))
break;
++begin;
}
// We now have a reduced range [begin, end)
// *begin is known to be false
using value_type = iter_value_t<I>;
auto len_end = enumerate(begin, end);
auto p = len_end.first >= alloc_limit
? detail::get_temporary_buffer<value_type>(len_end.first)
: detail::value_init{};
std::unique_ptr<value_type, detail::return_temporary_buffer> const h{p.first};
return stable_partition_fn::impl(
begin, len_end.second, pred, proj, len_end.first, p, fi);
}
inline std::string create_find_autogenerate_sql(Entity & x)
{
// filter out non-autogenerate columns
typedef typename
boost::mpl::remove_if<
typename result_of::columns_of<Entity>::type,
boost::mpl::not_<
is_autogenerate<boost::mpl::_1>
>
>::type
filtered_columns;
std::stringstream ss;
ss << "SELECT ";
enumerate(filtered_columns(), detail::output_table_column_ref<Connection>(), ss, ',');
ss << " FROM ";
output_table_name<Connection>(ss, table_name_of<Entity>());
ss << " t0";
for_each(columns_of<Entity>(), detail::output_join<Connection>(), ss);
ss << " WHERE t0.";
output_column_name<Connection>(ss, primary_key_column_of<Entity>());
ss << '=';
last_insert_id_hook<Connection>()(ss);
ss << ';';
return ss.str();
}
void case_(std::stringstream & ss, C const& col, boost::mpl::int_<1>) const
{
typedef typename foreign_entity_type_of<C>::type foreign_entity_type;
join_index = dynamic::detail::join_idx_of(col);
enumerate(columns_of<foreign_entity_type>(), *this, ss, ',');
}
static void operation_init(void){
// Set PMU Strength & division threshold
// Change PMU_CTRL Register
// PRCv9 Default: 0x8F770049
// Decrease 5x division switching threshold
*((volatile uint32_t *) 0xA200000C) = 0x8F77004B;
// Speed up GOC frontend to match PMU frequency
// PRCv9 Default: 0x00202903
*((volatile uint32_t *) 0xA2000008) = 0x00202508;
delay(100);
//Enumerate & Initialize Registers
enumerated = 0xDEADBEEF;
MBus_msg_flag = 0;
//Enumeration
enumerate(MRR_ADDR);
delay(MBUS_DELAY*10);
// Initialize other global variables
WAKEUP_PERIOD_CONT = 3; // 1: 2-4 sec with PRCv9
WAKEUP_PERIOD_CONT_INIT = 1; // 0x1E (30): ~1 min with PRCv9
}
int main() {
char line[64];
size_t size = 64;
int t, x, i;
sp S = NULL;
// GETLINE FROM STDIN AND PUSH INTO STACK
if (fgets(line, size, stdin) == NULL) {
printf("ERROR WITH THE INPUT LINE!\n");
abort();
} else {
// STORE THE CHARACTER IN THE LINE (AS INT)
t = 0;
while(line[t] != '\n') t++;
for (i = t-1; i >= 0; i--) {
x = line[i] - '0';
S = push(x, S);
printf("counting: %d, x is: %c\n", i, x+'0');
}
}
// CALCULATE THE POSTFIX
enumerate(S);
return 0;
}
winstd::heap::~heap()
{
if (m_h != invalid) {
enumerate();
HeapDestroy(m_h);
}
}
int main( int argc, char **argv )
{
if( argc != 2 )
return std::cerr << "Usage: " << argv[0] << " file.ogg" << std::endl, -1;
// enumerate audio devices
for( auto &it : enumerate() )
std::cout << "Audio device: " << it << std::endl;
// create as many audio contexts as you want
context_t sfx, music, voice, ambient, video, ui;
// sfx uses device #0
if( !sfx.init(0) )
return std::cerr << "Cant open audio device." << std::endl, -1;
// print device name
std::cout << "Using audio device: " << sfx.devname << std::endl;
// @todo: purge @playonce
int source = sfx.playonce( argv[1] );
// wait for source to finish
if( source >= 0 )
while( sfx.sources[ source ].is_playing() )
{}
return 0;
}
void AbstractConfiguration::keys(const std::string& key, Keys& range) const
{
Mutex::ScopedLock lock(_mutex);
range.clear();
enumerate(key, range);
}
inline std::string create_find_sql(PrimaryKey const& key, Columns const& cols)
{
extension::concrete_hooks<Connection> hooks;
// calculate join indices
join_index_set indices;
calc_join_indices(cols, indices);
std::stringstream ss;
ss << "SELECT ";
enumerate(cols, detail::output_select_expr<Connection>(indices.size()), ss, ',');
ss << " FROM ";
output_table_name<Connection>(ss, table_name_of<Entity>());
ss << " t0";
// output joins
for (join_index_set::const_iterator i = indices.begin(); i != indices.end(); ++i)
{
i->output_join(ss, hooks);
}
// output extra joins
for_each(cols, detail::output_extra_joins<Connection>(indices.size()), ss);
ss << " WHERE t0.";
output_column_name<Connection>(ss, primary_key_column_of<Entity>());
ss << '=';
output_column_value<Connection>(ss, key);
// output group by (if any are any group bys)
detail::output_group_by<Connection>(ss, cols);
ss << ';';
return ss.str();
}
// 2005-06-28 CDC Not ideal, but this lets you extract data from a text string
bool FUNCSTRINGPARSE::execute(void)
{
bool result= false;
VMREGTYPE pFormat = 0;
const char* format = "null";
VMREGTYPE pstr = 0;
const char* str= "null";
int resultmax = 0;
bool eolmode = false;
if ( machine.pop(pFormat) && ( ( format=machine.GetString((VPVOID)pFormat) ) !=0 ) )
{
// Count how many results there should be based on the format string
enumerate(format, resultmax, eolmode);
resultmax++; // There's always a status value
VMREGTYPE* resultset=new VMREGTYPE[resultmax]; // Store results so we can push them on in reverse
resultset[0] = 0;
if ( machine.pop(pstr) && (str=(char*)machine.GetString((VPVOID)pstr)) )
secernate(format, str, resultset, resultmax);
while ( resultmax-- )
result= machine.push((VMREGTYPE)resultset[resultmax]);
delete[] resultset;
}
#ifdef DEBUGGING
//cLog::mLogMessage("FUNCSTRINGPARSE(%d,%s,%s) %s\n",resultset[0],format,str,result?"succeeded":"failed");
#endif
return result;
}
int main(int argc, char **argv)
{
int reti;
uint16_t vid;
struct vol *vol;
struct dir *retdir;
struct path *path;
/* initialize */
printf("Initializing\n============\n");
TEST(setuplog("default:note","/dev/tty"));
TEST( afp_options_parse_cmdline(&obj, 3, &args[0]) );
TEST_int( afp_config_parse(&obj, NULL), 0);
TEST_int( configinit(&obj), 0);
TEST( cnid_init() );
TEST( load_volumes(&obj, NULL) );
TEST_int( dircache_init(8192), 0);
obj.afp_version = 32;
printf("\n");
/* now run tests */
printf("Running tests\n=============\n");
TEST_expr(vid = openvol(&obj, "test"), vid != 0);
TEST_expr(vol = getvolbyvid(vid), vol != NULL);
/* test directory.c stuff */
TEST_expr(retdir = dirlookup(vol, DIRDID_ROOT_PARENT), retdir != NULL);
TEST_expr(retdir = dirlookup(vol, DIRDID_ROOT), retdir != NULL);
TEST_expr(path = cname(vol, retdir, cnamewrap("Network Trash Folder")), path != NULL);
TEST_expr(retdir = dirlookup(vol, DIRDID_ROOT), retdir != NULL);
TEST_int(getfiledirparms(&obj, vid, DIRDID_ROOT_PARENT, "test"), 0);
TEST_int(getfiledirparms(&obj, vid, DIRDID_ROOT, ""), 0);
TEST_expr(reti = createdir(&obj, vid, DIRDID_ROOT, "dir1"),
reti == 0 || reti == AFPERR_EXIST);
TEST_int(getfiledirparms(&obj, vid, DIRDID_ROOT, "dir1"), 0);
/*
FIXME: this doesn't work although it should. "//" get translated to \000 \000 at means ".."
ie this should getfiledirparms for DIRDID_ROOT_PARENT -- at least afair!
TEST_int(getfiledirparms(&configs->obj, vid, DIRDID_ROOT, "//"), 0);
*/
TEST_int(createfile(&obj, vid, DIRDID_ROOT, "dir1/file1"), 0);
TEST_int(delete(&obj, vid, DIRDID_ROOT, "dir1/file1"), 0);
TEST_int(delete(&obj, vid, DIRDID_ROOT, "dir1"), 0);
TEST_int(createfile(&obj, vid, DIRDID_ROOT, "file1"), 0);
TEST_int(getfiledirparms(&obj, vid, DIRDID_ROOT, "file1"), 0);
TEST_int(delete(&obj, vid, DIRDID_ROOT, "file1"), 0);
/* test enumerate.c stuff */
TEST_int(enumerate(&obj, vid, DIRDID_ROOT), 0);
}
void NoisyCnaEnumerate::solve(const StlIntVector& pi,
int limit,
int timeLimit,
int threads,
int state_tree_limit,
bool monoclonal,
const IntSet& whiteList)
{
RealTensor F, F_lb, F_ub;
StateTreeVector S;
StlIntVector mapNewCharToOldChar;
StlIntVector mapOldCharToNewChar;
_comp.init(pi[0], F, S, F_lb, F_ub, mapNewCharToOldChar, mapOldCharToNewChar);
RootedCladisticNoisyAncestryGraph G(F, S, F_lb, F_ub);
G.init();
collapse(mapNewCharToOldChar, mapOldCharToNewChar, G);
if (monoclonal)
{
fixTrunk(F_ub, S, mapNewCharToOldChar, mapOldCharToNewChar, G);
}
G.setLabels(F);
// G.RootedCladisticAncestryGraph::writeDOT(std::cerr);
IntSet remappedWhiteList;
for (const int c : whiteList)
{
int cc = mapOldCharToNewChar[c];
if (cc != -1)
{
remappedWhiteList.insert(cc);
}
}
RootedCladisticNoisyEnumeration enumerate(G,
limit,
timeLimit,
threads,
_treeSize,
true,
monoclonal,
remappedWhiteList);
enumerate.run();
if (enumerate.objectiveValue() >= _treeSize)
{
if (enumerate.objectiveValue() > _treeSize)
{
_sols.clear();
_treeSize = enumerate.objectiveValue();
}
enumerate.populateSolutionSet(_sols);
}
std::cerr << std::endl << "Tree size: " << enumerate.objectiveValue() << "/" << _treeSize << std::endl;
}
//---------------------------------------------------------------------
D3D10VideoModeList::D3D10VideoModeList( D3D10Driver* pDriver )
{
if( NULL == pDriver )
OGRE_EXCEPT( Exception::ERR_INVALIDPARAMS, "pDriver parameter is NULL", "D3D10VideoModeList::D3D10VideoModeList" );
mpDriver = pDriver;
enumerate();
}
void EnumeratorARCer::runComputation( )
{
SUSPEND_SIGNAL_RECEIVED = false;
if (signal( SIGUSR1, suspend_signal_handler) == SIG_ERR)
error("void EnumeratorARCer::runComputation( ) :"
"Can`t catch signal");
enumerate();
}
void AbstractConfiguration::keys(Keys& range) const
{
FastMutex::ScopedLock lock(_mutex);
std::string key;
range.clear();
enumerate(key, range);
}
void containertest() {
typedef typename S::template container<unsigned>::type cont;
cont c;
BOOST_CHECK(c.size()==0);
c.push(10);
c.push(9);
BOOST_CHECK(c.size()==2);
BOOST_CHECK(c.top()==9);
{
bool nine=false,ten=false;
for(typename cont::const_iterator i=c.begin(),e=c.end();i!=e;++i) {
if (*i==9)
nine=true;
else if (*i==10)
ten=true;
else
BOOST_CHECK(false);
}
test_counter n;
enumerate(c,n);
BOOST_CHECK(n.n==2);
BOOST_CHECK(nine&&ten);
}
{
bool nine=false,ten=false;
for(typename cont::iterator i=c.begin(),e=c.end();i!=e;++i) {
if (*i==9)
nine=true;
else if (*i==10)
ten=true;
else
BOOST_CHECK(false);
}
test_counter n;
enumerate(c,n);
BOOST_CHECK(n.n==2);
BOOST_CHECK(nine&&ten);
}
}
rho::StringW CBarcodeSingleton::getInitialDefaultID()
{
CMethodResult oRes;
enumerate(oRes);
rho::Vector<rho::StringW>& arIDs = oRes.getStringArray();
return arIDs[0];
}
int main()
{
unsigned int n;
int bitset = 0;
while (~scanf("%d", &n)) {
enumerate(n);
}
return 0;
}
rho::String C<%= name.camel_case %>Singleton::getInitialDefaultID()
{
CMethodResult oRes;
enumerate(oRes);
rho::Vector<rho::String>& arIDs = oRes.getStringArray();
return arIDs[0];
}
void case_(std::stringstream & ss, C, boost::mpl::int_<0>) const
{
typedef typename foreign_entity_type_of<C>::type foreign_entity_type;
unsigned int temp = join_idx;
join_idx = ++alias_count;
enumerate(columns_of<foreign_entity_type>(), *this, ss, ',');
join_idx = temp;
}