void simnet() {
// Input and output signals and buses
Signal A(8);
Signal B(8);
Signal Sum(8, "Sum");
Signal Carry(1, "C");
Signal Overflow(1, "V");
// A bus input switches
Switch("1a", A[7], '7');
Switch("1a", A[6], '6');
Switch("1a", A[5], '5');
Switch("1a", A[4], '4');
Switch("1a", A[3], '3');
Switch("1a", A[2], '2');
Switch("1a", A[1], '1');
Switch("1a", A[0], '0');
Space(SD("1a", "A Bus"));
// B bus input switches
Switch("3a", B[7], '&');
Switch("3a", B[6], '^');
Switch("3a", B[5], '%');
Switch("3a", B[4], '$');
Switch("3a", B[3], '#');
Switch("3a", B[2], '@');
Switch("3a", B[1], '!');
Switch("3a", B[0], ')');
Space(SD("3a", "B Bus"));
Add8("2b",
//inputs:
A, B,
//outputs:
Sum,
Carry,
Overflow
);
int parts[] = {4};
Probe("1c-2c.1a", Sum, 1, parts );
Space(SD("3c", "Sum"));
Space(SD("3b"));
Probe("3b", Overflow);
Space(SD("3b", "Overflow"));
Probe("3c", Carry);
Space(SD("3c", "Carry"));
}
void simnet()
{
Signal w, x, y, z, Present, a, b, c, d, e, f, g;
Signal Strobe(1);
Signal ResetA(1);
Signal ResetB(1);
Pulser ((SD("1a"), "r -- Reset counter"), ResetA, 'r',10000);
Pulser ((SD("2a"), "s -- Strobe counter"), Strobe, 's', 10000);
Not(SD("1b"), ResetA, ResetB);
Counter((SD("1c-2c"), "4-bit counter"), (ResetB, Strobe), (w,x,y,z));
circuits( SD("1d-4d"), w, x, y, z, Present, a, b, c, d, e, f, g);
Probe(( SD("1g"),"Present"), Present );
Probe( (SD("2f-2h"),"a"), a );
Probe( (SD("3f-4f"),"f"), f );
Probe( (SD("3h-4h"),"b"), b );
Probe( (SD("5f-5h"),"g"), g );
Probe( (SD("6f-7f"),"e"), e);
Probe( (SD("6h-7h"),"c"), c);
Probe( (SD("8f-8h"),"d"), d);
}
void simnet()
{
Signal w, x, y, z, Present, a, b, c, d, e, f, g;
Signal Strobe (1);
Signal ResetA (1);
Signal ResetB (1);
Signal Output (4);
Pulser ((SD("1a"), "r -- Reset counter"), ResetA, 'r', 10000);
Pulser ((SD("2a"), "s -- Strobe counter"), Strobe, 's', 10000);
Not (SD("1b"), ResetA, ResetB);
Counter ((SD("1c-2c"), "4-bit counter"), (ResetB, Strobe),(w,x,y,z));
circuits( SD("1d-4d"), w, x, y, z, Present, a, b, c, d, e, f, g);
Probe((SD("0d"), "Present"), Present);
Probe((SD("1f"), "a"), a);
Probe((SD("2g"), "b"), b);
Probe((SD("4g"), "c"), c);
Probe((SD("5f"), "d"), d);
Probe((SD("4e"), "e"), e);
Probe((SD("2e"), "f"), f);
Probe((SD("3f"), "g"), g);
}
static bool FindLength( demux_t *p_demux )
{
demux_sys_t *p_sys = p_demux->p_sys;
int64_t i_current_pos = -1, i_size = 0, i_end = 0;
if( !var_CreateGetBool( p_demux, "ps-trust-timestamps" ) )
return true;
if( p_sys->i_length == VLC_TICK_INVALID ) /* First time */
{
p_sys->i_length = VLC_TICK_0;
/* Check beginning */
int i = 0;
i_current_pos = vlc_stream_Tell( p_demux->s );
while( i < 40 && Probe( p_demux, false ) > 0 ) i++;
/* Check end */
i_size = stream_Size( p_demux->s );
i_end = VLC_CLIP( i_size, 0, 200000 );
if( vlc_stream_Seek( p_demux->s, i_size - i_end ) == VLC_SUCCESS )
{
i = 0;
while( i < 400 && Probe( p_demux, true ) > 0 ) i++;
if( i_current_pos >= 0 &&
vlc_stream_Seek( p_demux->s, i_current_pos ) != VLC_SUCCESS )
return false;
}
else return false;
}
/* Find the longest track */
for( int i = 0; i < PS_TK_COUNT; i++ )
{
ps_track_t *tk = &p_sys->tk[i];
if( tk->i_first_pts != VLC_TICK_INVALID &&
tk->i_last_pts > tk->i_first_pts )
{
vlc_tick_t i_length = tk->i_last_pts - tk->i_first_pts;
if( i_length > p_sys->i_length )
{
p_sys->i_length = i_length;
p_sys->i_time_track_index = i;
msg_Dbg( p_demux, "we found a length of: %"PRId64 "s", SEC_FROM_VLC_TICK(p_sys->i_length) );
}
}
}
return true;
}
void
DiskProbe::RefsReceived(BMessage* message)
{
bool traverseLinks = (modifiers() & B_SHIFT_KEY) == 0;
int32 index = 0;
entry_ref ref;
while (message->FindRef("refs", index++, &ref) == B_OK) {
const char* attribute = NULL;
if (message->FindString("attributes", index - 1, &attribute) == B_OK)
traverseLinks = false;
BEntry entry;
status_t status = entry.SetTo(&ref, traverseLinks);
if (status == B_OK)
status = Probe(entry, attribute);
if (status != B_OK) {
char buffer[1024];
snprintf(buffer, sizeof(buffer),
B_TRANSLATE_COMMENT("Could not open \"%s\":\n"
"%s", "Opening of entry reference buffer for a DiskProbe "
"request Alert message. The name of entry reference and "
"error message is shown."),
ref.name, strerror(status));
BAlert* alert = new BAlert(B_TRANSLATE("DiskProbe request"),
buffer, B_TRANSLATE("OK"), NULL, NULL,
B_WIDTH_AS_USUAL, B_STOP_ALERT);
alert->SetFlags(alert->Flags() | B_CLOSE_ON_ESCAPE);
alert->Go();
}
}
}
void simnet() {
Signal muxIn(4);
Signal muxOut(1, "muxOut");
Signal select(2);
Space(SD("1b", "Note input/select line order: Incorrect order is a common mistake!"));
// Input lines
Switch("1a", muxIn[3], '3');
Space(SD("1a", "input[3]"));
Switch("1a", muxIn[2], '2');
Space(SD("1a", "input[2]"));
Switch("1a", muxIn[1], '1');
Space(SD("1a", "input[1]"));
Switch("1a", muxIn[0], '0');
Space(SD("1a", "input[0]"));
// Select lines
Switch("2b.1a", select[1], 'a');
Space(SD("2b.2a", "select[1]"));
Switch("2b.1b", select[0], 'b');
Space(SD("2b.2b", "select[0]"));
// select and muxIn are specified in MSB down to LSB order
Mux("1b", select, muxIn, muxOut);
Probe("1c", muxOut);
}
int At250xx::Read(int probe, int type)
{
UserDebug1(UserApp1, "At250xx::Read(%d)\n", probe);
if (probe || GetNoOfBank() == 0)
Probe();
int size = GetNoOfBank() * GetBankSize();
UserDebug1(UserApp1, "At250xx::Read() ** Size = %d\n", size);
int rv = size;
if (type & PROG_TYPE)
{
rv = GetBus()->Read(0, GetBufPtr(), size);
if (rv != size)
{
if (rv > 0)
rv = OP_ABORTED;
}
}
UserDebug1(UserApp1, "At250xx::Read() = %d\n", rv);
return rv;
}
/* -1 => not found */
PSWDictValue DPSWDictLookup(PSWDict dict, char *name)
{
Entry e;
e = Probe(dict, Hash(name, dict->nEntries), name);
if (e == NIL) return -1;
return e->value;
}
//-----------------------------------------------------------------------------
// Purpose:
// Input : origin -
// &m_vecDirection -
// &m_flForce -
//-----------------------------------------------------------------------------
void C_BaseExplosionEffect::GetForceDirection( const Vector &origin, float magnitude, Vector *resultDirection, float *resultForce )
{
Vector d[6];
//All cardinal directions
d[0] = Vector( 1, 0, 0 );
d[1] = Vector( -1, 0, 0 );
d[2] = Vector( 0, 1, 0 );
d[3] = Vector( 0, -1, 0 );
d[4] = Vector( 0, 0, 1 );
d[5] = Vector( 0, 0, -1 );
//Init the results
(*resultDirection).Init();
(*resultForce) = 1.0f;
//Get the aggregate force vector
for ( int i = 0; i < 6; i++ )
{
(*resultForce) += Probe( origin, &d[i], magnitude );
(*resultDirection) += d[i];
}
//If we've hit nothing, then point up
if ( (*resultDirection) == vec3_origin )
{
(*resultDirection) = Vector( 0, 0, 1 );
(*resultForce) = EXPLOSION_FORCE_MIN;
}
//Just return the direction
VectorNormalize( (*resultDirection) );
}
void SimpleSendRecvImpl::RecvThread::run()
{
Group *g = (Group *)this->group;
while (1) {
MPI_Status status;
// PING;fflush(0);
MPI_CALL(Probe(MPI_ANY_SOURCE,g->tag,g->comm,&status));
Action *action = new Action;
action->addr = Address(g,status.MPI_SOURCE);
MPI_CALL(Get_count(&status,MPI_BYTE,&action->size));
action->data = malloc(action->size);
double t0 = getSysTime();
MPI_CALL(Recv(action->data,action->size,MPI_BYTE,status.MPI_SOURCE,status.MPI_TAG,
g->comm,MPI_STATUS_IGNORE));
double t1 = getSysTime();
#if PROFILE_MPI
if (logIt) {
t_recv += (t1-t0);
b_recv += action->size;
MsgLog log;
log.to = action->addr.rank;
log.size = action->size;
log.begin = t0;
log.end = t1;
recvLog.push_back(log);
}
#endif
g->procQueue.put(action);
}
}
bool ChannelEditor::Create(void)
{
if (!XMLParseBase::LoadWindowFromXML("osd.xml", "ChannelEditor", this))
return false;
MythUIButton *probeButton = NULL;
MythUIButton *okButton = NULL;
bool err = false;
UIUtilE::Assign(this, m_callsignEdit, "callsign", &err);
UIUtilE::Assign(this, m_channumEdit, "channum", &err);
UIUtilE::Assign(this, m_channameEdit, "channame", &err);
UIUtilE::Assign(this, m_xmltvidEdit, "XMLTV", &err);
UIUtilE::Assign(this, probeButton, "probe", &err);
UIUtilE::Assign(this, okButton, "ok", &err);
if (err)
{
LOG(VB_GENERAL, LOG_ERR, "Cannot load screen 'ChannelEditor'");
return false;
}
BuildFocusList();
connect(okButton, SIGNAL(Clicked()), SLOT(Confirm()));
connect(probeButton, SIGNAL(Clicked()), SLOT(Probe()));
SetFocusWidget(okButton);
return true;
}
void simnet()
{
Signal Init, Clock, w, x, y, z;
// Insert your Pulsers here
Pulser ((SD("2a"), "i -- Initialization"), Init, 'i', 10000);
Pulser ((SD("3a"), "c -- Clock"), Clock, 'c', 10000);
circuits( SD("1b-4b"), Init, Clock, w, x, y, z );
// Insert your Probes here
Probe ((SD("1c"), "w"), w);
Probe ((SD("2c"), "x"), x);
Probe ((SD("3c"), "y"), y);
Probe ((SD("4c"), "z"), z);
}
void HWStubDevice::Init(struct libusb_device *dev)
{
libusb_ref_device(dev);
m_dev = dev;
m_handle = 0;
m_hwdev = 0;
m_valid = Probe();
}
int Device::ReadCalibration(int addr)
{
int val;
val = Probe(0);
if (val >= 0)
val = GetBus()->ReadCalibration(addr);
return val;
}
void simnet()
{
Signal Init, Clock, w, x, y, z;
// Insert your Pulsers here
// A pulser is used to generate a temporary value of "One" on a specified
// signal line (signal value: Zero ==> One ==> Zero)
Pulser ((SD("ba"), "v -- Init"), ResetA, 'v', 10001);
Pulser ((SD("ca"), "c -- Clock"), clock_Strobe, 'c', 10000);
circuits( SD("1b-4b"), Init, Clock, w, x, y, z );
// Insert your Probes here
Probe ((SD("bh"), "w"), w_probe);
Probe ((SD("ch"), "x"), x_probe);
Probe ((SD("dh"), "y"), y_probe);
Probe ((SD("eh"), "z"), z_probe);
}
long NameTable::Find (char *k)
{
register NameTableEntry *e;
for (e = Probe (k); e; e = e->next)
if (! strcmp (e->key, k))
return (e->value);
return (-1);
}
void simnet()
{
Signal Init, Clock, w, x, y, z;
Pulser ((SD("1a"), "Init"), Init, 'i', 1000);
Pulser ((SD("4a"), "Clock"), Clock, 'c', 1000);
// Insert your Pulsers here
circuits( SD("1b-4b"), Init, Clock, w, x, y, z);
Probe ( (SD("1e-1f"), "w"), w);
Probe ( (SD("2e-2f"), "x"), x);
Probe ( (SD("3e-3f"), "y"), y);
Probe ( (SD("4e-4f"), "z"), z);
// Insert your Probes here
}
boolean Table::Find (void*& v, void* k) {
register TableEntry* e;
for (e = Probe(k); e != nil; e = e->chain) {
if (e->key == k) {
v = e->value;
return true;
}
}
return false;
}
ECode TestCase::AddFailure(
/* [in] */ ECode ec,
/* [in] */ const String& message,
/* [in] */ const String& backtrace)
{
AutoPtr<ITestFailure> failure;
CTestFailure::New((ITest*)Probe(EIID_ITest), ec,
message, backtrace, (ITestFailure**)&failure);
mFailures.PushBack(failure);
return NOERROR;
}
void simnet()
{
Signal Init, Clock, w, x, y, z;
// Insert your Pulsers here
Pulser ((SD("1a"), "c - Clock"), Clock, 'c', 10000);
Pulser ((SD("2a"), "i - Init"), Init, 'i', 10000);
circuits( SD("5b-8b"), Init, Clock, w, x, y, z );
// Insert your Probes here
Probe ((SD("2d"), "w"), w);
Probe ((SD("3d"), "x"), x);
Probe ((SD("4d"), "y"), y);
Probe ((SD("5d"), "z"), z);
}
ECode CEGLDisplayImpl::Equals(
/* [in] */ IInterface *o,
/* [out] */ Boolean *equals)
{
if (Probe(EIID_IInterface) == o) return TRUE;
if (o == NULL || IEGLDisplay::Probe(o) == NULL) return FALSE;
CEGLDisplayImpl* that = (CEGLDisplayImpl*)(IEGLDisplay::Probe(o));
*equals = mEGLDisplay == that->mEGLDisplay;
return NOERROR;
}
ECode TestCase::ToString(
/* [out] */ String* str)
{
VALIDATE_NOT_NULL(str);
String name;
GetName(&name);
AutoPtr<IClassInfo> clazz;
_CObject_ReflectClassInfo(Probe(EIID_ITest), (IClassInfo**)&clazz);
StringBuf_<512> clazzName;
clazz->GetName(&clazzName);
*str = name + "(" + String((const char*)clazzName) + ")";
return NOERROR;
}
void simnet()
{
Signal a, b, c, d, F; // Switch and output objects
Switch ( SD("1a"), a, 'a' ); // Switch a controlled by 'a' key
Switch ( SD("2a"), b, 'b' ); // Switch b controlled by 'b' key
Switch ( SD("3a"), c, 'c' ); // Switch c controlled by 'c' key
Switch ( SD("4a"), d, 'd' ); // Switch d controlled by 'd' key
circuit( SD("1c-4c"), a, b, c, d, F );
Probe ( (SD("2e"), "F"), F ); // Probe
}
ECode TestCase::RunTest()
{
AutoPtr<ICharSequence> cseq;
CStringWrapper::New(mName, (ICharSequence**)&cseq);
FAIL_RETURN(AssertNotNull(String("TestCase.mName cannot be null"), cseq)); // Some VMs crash when calling getMethod(null,null);
AutoPtr<IMethodInfo> runMethod;
// try {
// use getMethod to get all public inherited
// methods. getDeclaredMethods returns all
// methods of this class but excludes the
// inherited ones.
AutoPtr<IClassInfo> clazz;
ECode ec = _CObject_ReflectClassInfo(Probe(EIID_ITest), (IClassInfo**)&clazz);
if (SUCCEEDED(ec)) {
ec = clazz->GetMethodInfo(mName.string(), (IMethodInfo**)&runMethod);
}
if (FAILED(ec)) return Fail(String("Method \"") + mName + String("\" not found"));
// } catch (NoSuchMethodException e) {
// fail("Method \""+fName+"\" not found");
// }
// if (!Modifier.isPublic(runMethod.getModifiers())) {
// fail("Method \""+fName+"\" should be public");
// }
// try {
ec = runMethod->Invoke(Probe(EIID_ITest), NULL);
return ec;
// }
// catch (InvocationTargetException e) {
// e.fillInStackTrace();
// throw e.getTargetException();
// }
// catch (IllegalAccessException e) {
// e.fillInStackTrace();
// throw e;
// }
}
/* 0 => normal return (not found)
-1 => found. If found, value is replaced. */
PSWDictValue DPSWDictEnter(PSWDict dict, char *name, PSWDictValue value)
{
Entry e;
integer x = Hash(name, dict->nEntries);
e = Probe(dict, x, name);
if (e != NIL) {
e->value = value;
return -1;
}
e = (Entry)DPScalloc(sizeof(EntryRec), 1);
e->next = (dict->entries)[x]; (dict->entries)[x] = e;
e->value = value;
e->name = name; /* MakeAtom(name); */
return 0;
}
void* Module::operator[](std::string name) const
{
void* p = Probe(std::move(name));
if (p == nullptr)
{
#if defined(_WIN32)
throw std::runtime_error(""); // FIXME: GetLastError string
#else
throw std::runtime_error(dlerror());
#endif
}
return p;
}
Atom DPSMakeAtom(char *name)
{
Entry e;
integer x = Hash(name, 511);
char *newname;
if (atoms == NIL) atoms = DPSCreatePSWDict(511);
e = Probe(atoms, x, name);
if (e == NIL) {
e = (Entry)DPScalloc(sizeof(EntryRec), 1);
e->next = (atoms->entries)[x]; (atoms->entries)[x] = e;
e->value = 0;
newname = (char *)DPScalloc(strlen(name)+1, 1);
strcpy(newname, name);
e->name = newname;
}
return (Atom) e->name;
}
void MultiIsendIrecvImpl::RecvThread::run()
{
// note this thread not only _probes_ for new receives, it
// also immediately starts the receive operation using Irecv()
Group *g = (Group *)this->group;
while (1) {
MPI_Status status;
MPI_CALL(Probe(MPI_ANY_SOURCE,g->tag,g->comm,&status));
Action *action = new Action;
action->addr = Address(g,status.MPI_SOURCE);
MPI_CALL(Get_count(&status,MPI_BYTE,&action->size));
action->data = malloc(action->size);
MPI_CALL(Irecv(action->data,action->size,MPI_BYTE,status.MPI_SOURCE,status.MPI_TAG,
g->comm,&action->request));
g->recvQueue.put(action);
}
}
int At250xx::Write(int probe, int type)
{
if (probe || GetNoOfBank() == 0)
Probe();
int size = GetNoOfBank() * GetBankSize();
int rv = size;
if (type & PROG_TYPE)
{
rv = GetBus()->Write(0, GetBufPtr(), size);
if (rv != size)
{
if (rv > 0)
rv = OP_ABORTED;
}
}
return rv;
}
void simnet() {
// input to ROM
Signal address(4, "address");
Switch("1a", address[3], '3');
Switch("1a", address[2], '2');
Switch("1a", address[1], '1');
Switch("1a", address[0], '0');
// output from ROM
Signal bits(8, "ROM Output");
// burn the rom
loadRom(romContents, NUM_WORDS, "romfile.txt");
// instantiate the rom
Rom("1b", address, bits, ROMSIZE, WORDSIZE, romContents);
Probe("1c", bits);
}
