void Primaries::RgbSystem::init (const vsutl::FilterBase &filter, const ::VSMap &in, ::VSMap &out, const char r_0 [], const char g_0 [], const char b_0 [], const char w_0 [])
{
assert (r_0 != 0);
assert (g_0 != 0);
assert (b_0 != 0);
assert (w_0 != 0);
const bool ready_old_flag = is_ready ();
std::array <Vec2, NBR_PLANES> rgb_old = _rgb;
Vec2 w_old = _white;
const char * name_0_arr [NBR_PLANES] = { r_0, g_0, b_0 };
for (int k = 0; k < NBR_PLANES; ++k)
{
_init_flag_arr [k] |=
read_coord_tuple (_rgb [k], filter, in, out, name_0_arr [k]);
}
_init_flag_arr [NBR_PLANES] |=
read_coord_tuple (_white, filter, in, out, w_0);
if (ready_old_flag && is_ready () && (rgb_old != _rgb || w_old != _white))
{
_preset = fmtcl::PrimariesPreset_UNDEF;
}
}
/// Set the callback which needs to be invoked when the future becomes
/// ready. If the future is ready the function will be invoked
/// immediately.
void future_data_base<traits::detail::future_data_void>::
set_on_completed(completed_callback_type data_sink)
{
if (!data_sink) return;
if (is_ready())
{
// invoke the callback (continuation) function right away
handle_on_completed(std::move(data_sink));
}
else
{
std::unique_lock<mutex_type> l(mtx_);
if (is_ready())
{
l.unlock();
// invoke the callback (continuation) function
handle_on_completed(std::move(data_sink));
}
else
{
on_completed_.push_back(std::move(data_sink));
}
}
}
void z80dma_device::timerproc()
{
int done;
if (--m_cur_cycle)
{
return;
}
if (m_is_read && !is_ready()) return;
if (m_is_read)
{
/* TODO: there's a nasty recursion bug with Alpha for Sharp X1 Turbo on the transfers with this function! */
do_read();
done = 0;
m_is_read = false;
m_cur_cycle = (PORTA_IS_SOURCE ? PORTA_CYCLE_LEN : PORTB_CYCLE_LEN);
}
else
{
done = do_write();
m_is_read = true;
m_cur_cycle = (PORTB_IS_SOURCE ? PORTA_CYCLE_LEN : PORTB_CYCLE_LEN);
}
if (done)
{
m_dma_enabled = 0; //FIXME: Correct?
m_status = 0x09;
m_status |= !is_ready() << 1; // ready line status
if(TRANSFER_MODE == TM_TRANSFER) m_status |= 0x10; // no match found
update_status();
if (LOG) logerror("Z80DMA '%s' End of Block\n", tag());
if (INT_ON_END_OF_BLOCK)
{
trigger_interrupt(INT_END_OF_BLOCK);
}
if (AUTO_RESTART)
{
if (LOG) logerror("Z80DMA '%s' Auto Restart\n", tag());
m_dma_enabled = 1;
m_addressA = PORTA_ADDRESS;
m_addressB = PORTB_ADDRESS;
m_count = BLOCKLEN;
m_status |= 0x30;
}
}
}
void z80dma_device::rdy_write_callback(int state)
{
// normalize state
m_rdy = state;
m_status = (m_status & 0xFD) | (!is_ready() << 1);
update_status();
if (is_ready() && INT_ON_READY)
{
trigger_interrupt(INT_RDY);
}
}
void z80dma_device::update_status()
{
UINT16 pending_transfer;
attotime next;
// no transfer is active right now; is there a transfer pending right now?
pending_transfer = is_ready() & m_dma_enabled;
if (pending_transfer)
{
m_is_read = true;
m_cur_cycle = (PORTA_IS_SOURCE ? PORTA_CYCLE_LEN : PORTB_CYCLE_LEN);
next = attotime::from_hz(clock());
m_timer->adjust(
attotime::zero,
0,
// 1 byte transferred in 4 clock cycles
next);
}
else
{
if (m_is_read)
{
// no transfers active right now
m_timer->reset();
}
}
// set the busreq line
m_out_busreq_cb(pending_transfer ? ASSERT_LINE : CLEAR_LINE);
}
int AudioRBResampler::get_num_of_ready_frames() {
if (!is_ready())
return 0;
int32_t increment = (src_mix_rate * MIX_FRAC_LEN) / target_mix_rate;
int read_space = get_reader_space();
return (int64_t(read_space) << MIX_FRAC_BITS) / increment;
}
long HX711::read() {
// wait for the chip to become ready
while (!is_ready());
byte data[3];
// pulse the clock pin 24 times to read the data
for (byte j = 3; j--;) {
for (char i = 8; i--;) {
digitalWrite(PD_SCK, HIGH);
bitWrite(data[j], i, digitalRead(DOUT));
digitalWrite(PD_SCK, LOW);
}
}
// set the channel and the gain factor for the next reading using the clock pin
for (int i = 0; i < GAIN; i++) {
digitalWrite(PD_SCK, HIGH);
digitalWrite(PD_SCK, LOW);
}
data[2] ^= 0x80;
return ((uint32_t) data[2] << 16) | ((uint32_t) data[1] << 8) | (uint32_t) data[0];
}
void z80dma_device::update_status()
{
UINT16 pending_transfer;
attotime next;
// no transfer is active right now; is there a transfer pending right now?
pending_transfer = is_ready() & m_dma_enabled;
if (pending_transfer)
{
m_is_read = true;
m_cur_cycle = (PORTA_IS_SOURCE ? PORTA_CYCLE_LEN : PORTB_CYCLE_LEN);
next = ATTOTIME_IN_HZ(clock());
timer_adjust_periodic(m_timer,
attotime_zero,
0,
// 1 byte transferred in 4 clock cycles
next);
}
else
{
if (m_is_read)
{
// no transfers active right now
timer_reset(m_timer, attotime_never);
}
}
// set the busreq line
devcb_call_write_line(&m_out_busreq_func, pending_transfer ? ASSERT_LINE : CLEAR_LINE);
}
void trigger_impl_future(std::true_type,
typed_continuation<Result, RemoteResult>&& cont, F&& f, Ts&&... vs)
{
typedef
typename std::is_same<RemoteResult, util::unused_type>::type
is_void;
auto result = util::invoke(std::forward<F>(f),
std::forward<Ts>(vs)...);
typedef typename hpx::util::decay<decltype(result)>::type future_type;
if(result.is_ready())
{
detail::deferred_trigger<Result, RemoteResult>(
is_void(), std::move(cont), std::move(result));
return;
}
void (*fun)(is_void, typed_continuation<Result, RemoteResult>&&,
future_type&&)
= &detail::deferred_trigger<Result, RemoteResult, future_type>;
result.then(
hpx::util::bind(
hpx::util::one_shot(fun)
, is_void()
, std::move(cont) //-V575
, util::placeholders::_1
)
);
}
// Resume coroutine.
// Pre: The coroutine must be ready.
// Post: The coroutine relinquished control. It might be ready
// or exited.
// Throws:- 'abnormal_exit' if the coroutine was exited by another
// uncaught exception.
// Note, it guarantees that the coroutine is resumed. Can throw only
// on return.
void invoke()
{
this->init();
HPX_ASSERT(is_ready());
do_invoke();
// TODO: could use a binary or here to eliminate
// shortcut evaluation (and a branch), but maybe the compiler is
// smart enough to do it anyway as there are no side effects.
if (m_exit_status)
{
if (m_exit_status == ctx_exited_return)
return;
if (m_exit_status == ctx_exited_abnormally)
{
std::rethrow_exception(m_type_info);
//std::type_info const* tinfo = nullptr;
//std::swap(m_type_info, tinfo);
//throw abnormal_exit(tinfo ? *tinfo :
// typeid(unknown_exception_tag));
}
else {
HPX_ASSERT(0 && "unknown exit status");
}
}
}
size_t empty_fd(int fd, void *buffer, int size) {
size_t bytes_copied = 0;
while (is_ready(fd)) {
bytes_copied += read(fd, buffer, size);
}
return bytes_copied;
}
result_type get()
{
if(!is_ready())
{
wait();
}
return *res_;
}
static int
set_ready_fd(int fd, ofp_fd_set *fd_set, int(*is_ready)(int fd))
{
if (OFP_FD_ISSET(fd, fd_set) && is_ready(fd))
return 1;
OFP_FD_CLR(fd, fd_set);
return 0;
}
//
//
//
/// @brief A private member function to allocate memory for arrays of any
/// rank order. Its behavior is driven by the array::data_length() member
/// function and thus by the current values of @c rank1, @c rank2, @c rank3
/// and @c rank4 data members. If the data length is null nothing is done.
/// The operation is carried out by the master thread only.
//
/// @return @c true if the memory was allocated properly, and @c false
/// otherwise.
//
inline bool init_data()
{
#pragma omp master
if(data_length() > 0)
{
data = new (std::nothrow) data_type[data_length()]();
}
return is_ready();
};
bool stepped_cooldown::try_to_fire_and_reset(stepped_timestamp s, fixed_delta t) {
if (is_ready(s, t)) {
ready_to_fire = false;
when_last_fired = s;
return true;
}
return false;
}
void z80dma_device::timerproc()
{
int done;
if (--m_cur_cycle)
{
return;
}
if (m_is_read && !is_ready()) return;
if (m_is_read)
{
do_read();
done = 0;
m_is_read = false;
m_cur_cycle = (PORTA_IS_SOURCE ? PORTA_CYCLE_LEN : PORTB_CYCLE_LEN);
}
else
{
done = do_write();
m_is_read = true;
m_cur_cycle = (PORTB_IS_SOURCE ? PORTA_CYCLE_LEN : PORTB_CYCLE_LEN);
}
if (done)
{
m_dma_enabled = 0; //FIXME: Correct?
m_status = 0x19;
m_status |= !is_ready() << 1; // ready line status
if(TRANSFER_MODE == TM_TRANSFER) m_status |= 0x10; // no match found
update_status();
if (LOG) logerror("Z80DMA '%s' End of Block\n", tag());
if (INT_ON_END_OF_BLOCK)
{
trigger_interrupt(INT_END_OF_BLOCK);
}
}
}
static int
none_of_ready(int nfds, ofp_fd_set *fd_set, int (*is_ready)(int fd))
{
int fd;
for (fd = OFP_SOCK_NUM_OFFSET; fd < nfds && fd_set; ++fd)
if (OFP_FD_ISSET(fd, fd_set) && is_ready(fd))
return 0;
return 1;
}
void create(unsigned int size1)
{
if(!is_ready())
{
rank1 = size1;
if(!init_data())
{
reset_data_members();
}
}
};
void event_environment::log_error(const char * text_id, const char * error_message)
{
assert(is_ready());
std::stringstream format;
format<<"Error on "<<text_id<<" event: "<<error_message<<std::endl;
if(m_log_error_function)
m_log_error_function(format.str().c_str());
else std::cerr<<format.str();
}
void * poll_t(void * arg) {
struct pollfd pfd;
int ready;
State * state = (State *)arg;
while ((ready = is_ready(state)) >= 0) {
pfd.fd = state->clockid;
pfd.events = POLLIN;
if (poll(&pfd, 1, 0)) {
send_poll_request(state, getID());
reset_clock(state->clockid);
}
}
return NULL;
}
//
//
//
/// @brief Checks if all the elements are negative. Only if the current array
/// was previously initialized either by construction or the array::create().
//
/// @return @c true if all the elements are negative, and @c false otherwise.
//
bool is_negative() const
{
if(is_ready())
{
auto check = [](int iter)
{
return (iter < 0.0);
};
return std::all_of(data, data_end(), check);
}
else
{
return false;
}
};
lua_State * event_environment::push_listeners_table(const char * text_id, int num_id)
{
assert(is_ready());
lua_rawgeti(m_state, LUA_REGISTRYINDEX, m_numeric_id_index);
assert(lua_type(m_state, -1) == LUA_TTABLE);
int bottom = lua_gettop(m_state);
lua_pushinteger(m_state, num_id);
lua_gettable(m_state, -2);
assert(lua_type(m_state, -1) == LUA_TTABLE);
lua_replace(m_state, bottom);
return m_state;
}
long HX711::read() {
// wait for the chip to become ready
while (!is_ready()) {
// Will do nothing on Arduino but prevent resets of ESP8266 (Watchdog Issue)
yield();
}
unsigned long value = 0;
byte data[3] = { 0 };
byte filler = 0x00;
// pulse the clock pin 24 times to read the data
data[2] = shiftIn(DOUT, PD_SCK, MSBFIRST);
data[1] = shiftIn(DOUT, PD_SCK, MSBFIRST);
data[0] = shiftIn(DOUT, PD_SCK, MSBFIRST);
// set the channel and the gain factor for the next reading using the clock pin
for (unsigned int i = 0; i < GAIN; i++) {
digitalWrite(PD_SCK, HIGH);
digitalWrite(PD_SCK, LOW);
}
// Datasheet indicates the value is returned as a two's complement value
// Flip all the bits
data[2] = ~data[2];
data[1] = ~data[1];
data[0] = ~data[0];
// Replicate the most significant bit to pad out a 32-bit signed integer
if ( data[2] & 0x80 ) {
filler = 0xFF;
} else if ((0x7F == data[2]) && (0xFF == data[1]) && (0xFF == data[0])) {
filler = 0xFF;
} else {
filler = 0x00;
}
// Construct a 32-bit signed integer
value = ( static_cast<unsigned long>(filler) << 24
| static_cast<unsigned long>(data[2]) << 16
| static_cast<unsigned long>(data[1]) << 8
| static_cast<unsigned long>(data[0]) );
// ... and add 1
return static_cast<long>(++value);
}
void uci(void) {
/* printf("Entering UCI mode. Type in commands here (quit to quit, help for a list of commands)\n\n"); */
// Default state
isWhitesMove=1;
//set_position_startpos();
FILE *fp;
fp=fopen("chess.log", "a");
fprintf(fp, "---- CHESS v0.0 ------------\n");
int keep_going = 1;
char string[256];
while (keep_going == 1) {
//printf( "Command: " );
fflush (stdout);
int x = scanf ("%79s",string);
fprintf(fp, "Received command: %s\n", string);
if (strcmp(string, "quit")==0) {
keep_going = 0;
} else if (strcmp(string, "uci")==0) {
show_uci_info();
} else if (strcmp(string, "isready")==0) {
is_ready();
} else if (strcmp(string, "position")==0) {
set_position();
} else if (strcmp(string, "go")==0) {
go();
} else if (strcmp(string, "stop")==0) {
stop();
} else if (strcmp(string, "draw")==0) {
draw();
} else if (strcmp(string, "move")==0) {
uci_make_move();
} else if (strcmp(string, "dumpmoves")==0) {
dump_moves();
} else if (strcmp(string, "info")==0) {
info();
} else if (strcmp(string, "test")==0) {
run_tests();
} else {
printf( "Unknown command: %s\n", string );
}
}
fclose(fp);
}
// Nothrow.
void do_invoke() throw ()
{
HPX_ASSERT(is_ready());
#if defined(HPX_HAVE_THREAD_PHASE_INFORMATION)
++m_phase;
#endif
m_state = ctx_running;
#if defined(HPX_HAVE_ADDRESS_SANITIZER)
start_switch_fiber(&asan_fake_stack);
#endif
swap_context(m_caller, *this, detail::invoke_hint());
#if defined(HPX_HAVE_ADDRESS_SANITIZER)
finish_switch_fiber(asan_fake_stack, m_caller);
#endif
}
bool pipesvr_win32::setup(remote_server *svr) {
if (is_ready()) {
return true;
}
if (!svr) {
return false;
}
svr_ = svr;
log_info("Creating pipe %s...", pipe_name_);
pipe_ = CreateNamedPipe(pipe_name_,
PIPE_ACCESS_DUPLEX,
PIPE_TYPE_BYTE | // from message
PIPE_READMODE_BYTE | // from message
PIPE_NOWAIT |
PIPE_REJECT_REMOTE_CLIENTS,
PIPE_UNLIMITED_INSTANCES, // max. instances
LEN_NETBUF, // output buffer size
LEN_NETBUF, // input buffer size
NMPWAIT_USE_DEFAULT_WAIT, // client time-out
NULL); // no security attribute
if (pipe_ == PIPE_NONE) {
DWORD error = GetLastError();
switch (error) {
case ERROR_PIPE_BUSY:
log_error("Failed to create pipe with error 0x%x. Is the server "
"already running?", error);
break;
default:
log_error("Failed to create pipe with error 0x%x.", error);
break;
}
return false;
}
else {
log_info("Pipe created.");
}
return true;
}
long HX711::read() {
// Byte: 0 1 2 3
// Bits: 76543210 76543210 76543210 76543210
// Data: |--------|--------|--------|--------|
// Bit#: 33222222 22221111 11111100 00000000
// 10987654 32109876 54321098 76543210
union DataBuffer {
byte data[4];
long value;
} data_buffer;
// Wait for the chip to become ready
for (; !is_ready() ;) {
// Will do nothing on Arduino but prevent resets of ESP8266 (Watchdog Issue)
yield();
}
// Pulse the clock pin 24 times to read the data
data_buffer.data[1] = shiftIn(DOUT, PD_SCK, MSBFIRST);
data_buffer.data[2] = shiftIn(DOUT, PD_SCK, MSBFIRST);
data_buffer.data[3] = shiftIn(DOUT, PD_SCK, MSBFIRST);
// Set the channel and the gain factor for the next reading using the clock pin
for (unsigned int i = GAIN ; 0 < i ; --i) {
digitalWrite(PD_SCK, HIGH);
digitalWrite(PD_SCK, LOW);
}
// Replicate the most significant bit to pad out a 32-bit signed integer
if ( data_buffer.data[1] & 0x80 ) {
data_buffer.data[0] = 0xFF;
} else {
data_buffer.data[0] = 0x00;
}
// Datasheet indicates the value is a 24-bit two's complement (signed) value
// https://cdn.sparkfun.com/datasheets/Sensors/ForceFlex/hx711_english.pdf
// Flip all the bits
data_buffer.value = ~data_buffer.value;
// ... and add 1
return ++data_buffer.value;
}
long LCS::read() {
// wait for the chip to become ready
while (!is_ready());
byte data1[3];
byte data2[3];
byte data3[3];
// pulse the clock pin 24 times to read the data
for (byte j = 3; j--;) {
for (char i = 8; i--;) {
digitalWrite(PD_SCK, HIGH);
bitWrite(data1[j], i, digitalRead(DOUT1)); //@@@@@@@@@@@@@@@@@ I feel like this might pose a problem if 3 bitWrites takes too long @@@@@@@@@@@@@@@@
bitWrite(data2[j], i, digitalRead(DOUT2));
bitWrite(data3[j], i, digitalRead(DOUT3));
digitalWrite(PD_SCK, LOW);
}
}
// set the channel and the gain factor for the next reading using the clock pin
for (int i = 0; i < GAIN; i++) {
digitalWrite(PD_SCK, HIGH);
digitalWrite(PD_SCK, LOW);
}
data1[2] ^= 0x80;
data2[2] ^= 0x80;
data3[2] ^= 0x80;
long result1 = ((uint32_t) data1[2] << 16) | ((uint32_t) data1[1] << 8) | (uint32_t) data1[0];
long result2 = ((uint32_t) data2[2] << 16) | ((uint32_t) data2[1] << 8) | (uint32_t) data2[0];
long result3 = ((uint32_t) data3[2] << 16) | ((uint32_t) data3[1] << 8) | (uint32_t) data3[0];
long total = (long)((double)result3/1)+ (long)((double)result2*1) + result1;//(long) ((double)result1/1.045);
//long total = result3;
BVAL[COUNTER] = total;
inc_counter();
return total;
}
bool pipesvr_win32::connect() {
/* ensure need to connect */
if (!is_ready() || is_connected()) {
return false;
}
if (!ConnectNamedPipe(pipe_, NULL)) {
DWORD error = GetLastError();
switch (error) {
case ERROR_PIPE_CONNECTED: /* process on other side of pipe */
return connected_ = true;
case ERROR_PIPE_LISTENING: /* other end of pipe not connected */
return false;
default:
log_error("Failed to connect to pipe with error 0x%x.", error);
return false;
}
}
return connected_ = true;
}
void try_connect() {
if (!ready && started && num_trials <= 20
&& lastmillis - last_connect_trial >= 1000) {
if (is_ready()) {
ready = true;
ClientSystem::connect("127.0.0.1", TESSERACT_SERVER_PORT);
}
else {
conoutf("Waiting for server to finish starting up .. (%d)",
num_trials);
}
if (num_trials == 20) {
logger::log(logger::ERROR,
"Failed to start server. See %s for more information.",
server_log_file);
}
num_trials++;
last_connect_trial = lastmillis;
}
}