public FlightControl(Vessel vessel)
{
rotation = new Vector(0, 0, 0);
translation = new Vector(0, 0, 0);
neutral = new Flushable<bool>();
killRotation = new Flushable<bool>();
bound = true;
this.vessel = vessel;
Vessel.OnFlyByWire += OnFlyByWire;
}
public FlightControl(Vessel vessel)
{
rotation = new Vector(0, 0, 0);
translation = new Vector(0, 0, 0);
neutral = new Flushable <bool>();
killRotation = new Flushable <bool>();
bound = true;
this.vessel = vessel;
Vessel.OnFlyByWire += OnFlyByWire;
}
public FlightControl(Vessel vessel)
{
neutral = new Flushable<bool>();
killRotation = new Flushable<bool>();
bound = false;
Vessel = vessel;
floatSuffixes = new List<string> { "YAW", "PITCH", "ROLL", "STARBOARD", "TOP", "FORE", "MAINTHROTTLE", "WHEELTHROTTLE", "WHEELSTEER" };
vectorSuffixes = new List<string> { "ROTATION", "TRANSLATION" };
}
public FlightControl(Vessel vessel)
{
neutral = new Flushable <bool>();
killRotation = new Flushable <bool>();
bound = false;
Vessel = vessel;
floatSuffixes = new List <string> {
"YAW", "PITCH", "ROLL", "STARBOARD", "TOP", "FORE", "MAINTHROTTLE", "WHEELTHROTTLE", "WHEELSTEER"
};
vectorSuffixes = new List <string> {
"ROTATION", "TRANSLATION"
};
}
/// <summary>
/// Flushes the given object. The same as calling <seealso cref="Flushable.flush()"/>, but
/// errors while flushing are silently ignored.
/// </summary>
public static void flushSilently(Flushable flushable)
{
try
{
if (flushable != null)
{
flushable.flush();
}
}
catch (IOException ignore)
{
LOG.debugCloseException(ignore);
}
}
void OnTriggerEnter2D(Collider2D col)
{
if (col.gameObject.GetComponent <Flushable>() != null)
{
Flushable flushable = col.gameObject.GetComponent <Flushable>();
if ((goodReceptacle && flushable.isGood == true) || (!goodReceptacle && flushable.isGood == false))
{
Score.AddScore(flushable.scoreValue);
Debug.Log("score");
}
else
{
Timer.Penalty(flushable.time);
Debug.Log("penalty");
}
Debug.Log(col.gameObject);
}
}
//JAVA TO C# CONVERTER TODO TASK: Most Java annotations will not have direct .NET equivalent attributes:
//ORIGINAL LINE: @Test public void shouldNotCallTransactionClosedOnFailedForceLogToDisk() throws Exception
//JAVA TO C# CONVERTER WARNING: Method 'throws' clauses are not available in C#:
public virtual void ShouldNotCallTransactionClosedOnFailedForceLogToDisk()
{
// GIVEN
long txId = 3;
string failureMessage = "Forces a failure";
FlushablePositionAwareChannel channel = spy(new InMemoryClosableChannel());
IOException failure = new IOException(failureMessage);
//JAVA TO C# CONVERTER WARNING: The original Java variable was marked 'final':
//ORIGINAL LINE: final java.io.Flushable flushable = mock(java.io.Flushable.class);
Flushable flushable = mock(typeof(Flushable));
doAnswer(invocation =>
{
invocation.callRealMethod();
return(flushable);
}).when(channel).prepareForFlush();
doThrow(failure).when(flushable).flush();
when(_logFile.Writer).thenReturn(channel);
TransactionMetadataCache metadataCache = new TransactionMetadataCache();
TransactionIdStore transactionIdStore = mock(typeof(TransactionIdStore));
when(transactionIdStore.NextCommittingTransactionId()).thenReturn(txId);
Mockito.reset(_databaseHealth);
TransactionAppender appender = Life.add(new BatchingTransactionAppender(_logFiles, NO_ROTATION, metadataCache, transactionIdStore, BYPASS, _databaseHealth));
// WHEN
TransactionRepresentation transaction = mock(typeof(TransactionRepresentation));
when(transaction.AdditionalHeader()).thenReturn(new sbyte[0]);
try
{
appender.Append(new TransactionToApply(transaction), _logAppendEvent);
fail("Expected append to fail. Something is wrong with the test itself");
}
catch (IOException e)
{
// THEN
assertSame(failure, e);
verify(transactionIdStore, times(1)).nextCommittingTransactionId();
verify(transactionIdStore, never()).transactionClosed(eq(txId), anyLong(), anyLong());
verify(_databaseHealth).panic(failure);
}
}
private static void Main()
{
// create bridge, with default setup
// it will lookup jni4net.j.jar next to jni4net.n.dll
Bridge.CreateJVM(new BridgeSetup()
{
Verbose = true
});
// here you go!
[email protected]("Hello Java world!");
// OK, simple hello is boring, let's play with Java properties
// they are Hashtable realy
Properties javaSystemProperties = java.lang.System.getProperties();
// let's enumerate all keys.
// We use Adapt helper to convert enumeration from java o .NET
foreach (java.lang.String key in Adapt.Enumeration(javaSystemProperties.keys()))
{
[email protected](key);
// this is automatic conversion of CLR string to java.lang.String
[email protected](" : ");
// we use the hashtable
Object value = javaSystemProperties.get(key);
// and this is CLR ToString() redirected to Java toString() method
string valueToString = value.ToString();
[email protected](valueToString);
}
// Java output is really Stream
PrintStream stream = java.lang.System.@out;
// it implements java.io.Flushable interface
Flushable flushable = stream;
flushable.flush();
}
//JAVA TO C# CONVERTER TODO TASK: Most Java annotations will not have direct .NET equivalent attributes:
//ORIGINAL LINE: @Test public void shouldBeAbleToWriteACheckPoint() throws Throwable
//JAVA TO C# CONVERTER WARNING: Method 'throws' clauses are not available in C#:
public virtual void ShouldBeAbleToWriteACheckPoint()
{
// Given
FlushablePositionAwareChannel channel = mock(typeof(FlushablePositionAwareChannel), RETURNS_MOCKS);
Flushable flushable = mock(typeof(Flushable));
when(channel.PrepareForFlush()).thenReturn(flushable);
when(channel.PutLong(anyLong())).thenReturn(channel);
when(_logFile.Writer).thenReturn(channel);
BatchingTransactionAppender appender = Life.add(CreateTransactionAppender());
// When
appender.CheckPoint(new LogPosition(1L, 2L), LogCheckPointEvent.NULL);
// Then
verify(channel, times(1)).putLong(1L);
verify(channel, times(1)).putLong(2L);
verify(channel, times(1)).prepareForFlush();
verify(flushable, times(1)).flush();
verify(_databaseHealth, never()).panic(any());
}
public long maybeLimitIO(long previousStamp, int recentlyCompletedIOs, Flushable flushable)
{
return(0);
}
// The stamp is in two 32-bit parts:
// The high bits are the number of IOs performed since the last pause.
// The low bits is the 32-bit timestamp in milliseconds (~25 day range) since the last pause.
// We keep adding summing up the IOs until either a quantum elapses, or we've exhausted the IOs we're allowed in
// this quantum. If we've exhausted our IOs, we pause for the rest of the quantum.
// We don't make use of the Flushable at this point, because IOs from fsyncs have a high priority, so they
// might jump the IO queue and cause delays for transaction log IOs. Further, fsync on some file systems also
// flush the entire IO queue, which can cause delays on IO rate limited cloud machines.
// We need the Flushable to be implemented in terms of sync_file_range before we can make use of it.
// NOTE: The check-pointer IOPS setting is documented as being a "best effort" hint. We are making use of that
// wording here, and not compensating for over-counted IOs. For instance, if we receive 2 quantums worth of IOs
// in one quantum, we are not going to sleep for two quantums. The reason is that such compensation algorithms
// can easily over-compensate, and end up sleeping a lot more than what makes sense for other rate limiting factors
// in the system, thus wasting IO bandwidth. No, "best effort" here means that likely end up doing a little bit
// more IO than what we've been configured to allow, but that's okay. If it's a problem, people can just reduce
// their IOPS limit setting a bit more.
public override long MaybeLimitIO(long previousStamp, int recentlyCompletedIOs, Flushable flushable)
{
long state = _stateUpdater.get(this);
if (GetDisabledCounter(state) > 0)
{
return(Org.Neo4j.Io.pagecache.IOLimiter_Fields.INITIAL_STAMP);
}
long now = CurrentTimeMillis() & _timeMask;
long then = previousStamp & _timeMask;
if (now - then > QUANTUM_MILLIS)
{
return(now + ((( long )recentlyCompletedIOs) << TIME_BITS));
}
long ioSum = (previousStamp >> TIME_BITS) + recentlyCompletedIOs;
if (ioSum >= GetIOPQ(state))
{
long millisLeftInQuantum = QUANTUM_MILLIS - (now - then);
_pauseNanos.accept(this, TimeUnit.MILLISECONDS.toNanos(millisLeftInQuantum));
return(CurrentTimeMillis() & _timeMask);
}
return(then + (ioSum << TIME_BITS));
}