@Test(dataProvider = "Node.Builder<Integer>", groups = { "serialization-hostile" })
public void testIntIteration(List<Integer> l, Function<Integer, Node.Builder.OfInt> m) {
    Node.Builder.OfInt nb = m.apply(l.size());
    nb.begin(l.size());
    for (Integer i : l) {
        nb.accept((int) i);
    }
    nb.end();

    Node.OfInt n = nb.build();
    assertEquals(n.count(), l.size());

    {
        List<Integer> _l = new ArrayList<>();
        n.forEach((IntConsumer) _l::add);

        assertContents(_l, l);
    }

}
 

@Test(dataProvider = "IntSpinedBuffer", groups = { "serialization-hostile" })
public void testIntLastSplit(int[] array, SpinedBuffer.OfInt sb) {
    Spliterator.OfInt spliterator = sb.spliterator();
    Spliterator.OfInt split = spliterator.trySplit();
    long splitSizes = (split == null) ? 0 : split.getExactSizeIfKnown();
    long lastSplitSize = spliterator.getExactSizeIfKnown();
    splitSizes += lastSplitSize;

    assertEquals(splitSizes, array.length);

    List<Integer> contentOfLastSplit = new ArrayList<>();
    spliterator.forEachRemaining((IntConsumer) contentOfLastSplit::add);

    assertEquals(contentOfLastSplit.size(), lastSplitSize);

    List<Integer> end = Arrays.stream(array)
            .boxed()
            .skip(array.length - lastSplitSize)
            .collect(Collectors.toList());
    assertEquals(contentOfLastSplit, end);
}
 

/**
 * Map a pre-existing {@link MarkFile} if one present and is active.
 *
 * Total length of {@link MarkFile} will be mapped until {@link #close()} is called.
 *
 * @param directory            for the {@link MarkFile} file.
 * @param filename             of the {@link MarkFile} file.
 * @param versionFieldOffset   to use for version field access.
 * @param timestampFieldOffset to use for timestamp field access.
 * @param timeoutMs            for the activity check (in milliseconds) and for how long to wait for file to exist.
 * @param epochClock           to use for time checks.
 * @param versionCheck         to use for existing {@link MarkFile} file and version field.
 * @param logger               to use to signal progress or null.
 */
public MarkFile(
    final File directory,
    final String filename,
    final int versionFieldOffset,
    final int timestampFieldOffset,
    final long timeoutMs,
    final EpochClock epochClock,
    final IntConsumer versionCheck,
    final Consumer<String> logger)
{
    validateOffsets(versionFieldOffset, timestampFieldOffset);

    this.parentDir = directory;
    this.markFile = new File(directory, filename);
    this.mappedBuffer = mapExistingMarkFile(
        markFile, versionFieldOffset, timestampFieldOffset, timeoutMs, epochClock, versionCheck, logger);
    this.buffer = new UnsafeBuffer(mappedBuffer);
    this.versionFieldOffset = versionFieldOffset;
    this.timestampFieldOffset = timestampFieldOffset;
}
 

@Override
@HotSpotIntrinsicCandidate
public void forEachRemaining(IntConsumer consumer) {
    Objects.requireNonNull(consumer);

    int i = from;
    final int hUpTo = upTo;
    int hLast = last;
    from = upTo;
    last = 0;
    while (i < hUpTo) {
        consumer.accept(i++);
    }
    if (hLast > 0) {
        // Last element of closed range
        consumer.accept(i);
    }
}
 

@Override
public final IntStream peek(IntConsumer action) {
    Objects.requireNonNull(action);
    return new StatelessOp<Integer>(this, StreamShape.INT_VALUE,
                                    0) {
        @Override
        Sink<Integer> opWrapSink(int flags, Sink<Integer> sink) {
            return new Sink.ChainedInt<Integer>(sink) {
                @Override
                public void accept(int t) {
                    action.accept(t);
                    downstream.accept(t);
                }
            };
        }
    };
}
 

@Override
public final IntStream peek(IntConsumer action) {
    Objects.requireNonNull(action);
    return new StatelessOp<Integer>(this, StreamShape.INT_VALUE,
                                    0) {
        @Override
        Sink<Integer> opWrapSink(int flags, Sink<Integer> sink) {
            return new Sink.ChainedInt<Integer>(sink) {
                @Override
                public void accept(int t) {
                    action.accept(t);
                    downstream.accept(t);
                }
            };
        }
    };
}
 

public HybridBatchLearner(int numIterations,
		IDataCollection<LabeledAmrSentence> trainingData, boolean sortData,
		int maxSentenceLength, GraphAmrParser parser,
		IJointOutputLogger<LogicalExpression, LogicalExpression, LogicalExpression> parserOutputLogger,
		ICategoryServices<LogicalExpression> categoryServices,
		ILexiconGeneratorPrecise<LabeledAmrSentence, LogicalExpression, IJointModelImmutable<SituatedSentence<AMRMeta>, LogicalExpression, LogicalExpression>> genlex,
		IJointInferenceFilterFactory<LabeledAmrSentence, LogicalExpression, LogicalExpression, LogicalExpression> filterFactory,
		IntConsumer postIteration, boolean pruneLexicon,
		BiFunction<Predicate<LexicalEntry<LogicalExpression>>, Map<LexicalEntry<LogicalExpression>, Double>, Set<LexicalEntry<LogicalExpression>>> votingProcedure,
		IWeightUpdateProcedure estimator,
		IGradientFunction gradientFunction,
		Integer conditionedInferenceBeam,
		ILexiconGenerator<LabeledAmrSentence, LogicalExpression, IJointModelImmutable<SituatedSentence<AMRMeta>, LogicalExpression, LogicalExpression>> alignmentGenlex,
		boolean resumedLearning,
		ILexiconImmutable<LogicalExpression> entriesNotToPrune) {
	super(numIterations, trainingData, sortData, maxSentenceLength, parser,
			parserOutputLogger, categoryServices, genlex, filterFactory,
			postIteration, pruneLexicon, votingProcedure, estimator,
			gradientFunction, conditionedInferenceBeam, alignmentGenlex,
			resumedLearning, entriesNotToPrune);
}
 

@Test(dataProvider = "Node.Builder<Integer>", groups = { "serialization-hostile" })
public void testIntIteration(List<Integer> l, Function<Integer, Node.Builder.OfInt> m) {
    Node.Builder.OfInt nb = m.apply(l.size());
    nb.begin(l.size());
    for (Integer i : l) {
        nb.accept((int) i);
    }
    nb.end();

    Node.OfInt n = nb.build();
    assertEquals(n.count(), l.size());

    {
        List<Integer> _l = new ArrayList<>();
        n.forEach((IntConsumer) _l::add);

        assertContents(_l, l);
    }

}
 

@Override
public boolean tryAdvance(IntConsumer consumer) {
    Objects.requireNonNull(consumer);

    final int i = from;
    if (i < upTo) {
        from++;
        consumer.accept(i);
        return true;
    }
    else if (last > 0) {
        last = 0;
        consumer.accept(i);
        return true;
    }
    return false;
}
 

@Override
public boolean tryAdvance(IntConsumer consumer) {
    Objects.requireNonNull(consumer);

    final int i = from;
    if (i < upTo) {
        from++;
        consumer.accept(i);
        return true;
    }
    else if (last > 0) {
        last = 0;
        consumer.accept(i);
        return true;
    }
    return false;
}
 

@Override
public void forEachRemaining(IntConsumer action) {
    Objects.requireNonNull(action);

    int index = this.index; //local index for replayability

    if (!reverse) {
        for (;index < max && index > -1;) {
            action.accept(array[index++]);

        }
    } else {
        for (;index > (start-1) & index < max;) {
            action.accept(array[index--]);

        }
    }
}
 

@Override
public final IntStream peek(IntConsumer action) {
    Objects.requireNonNull(action);
    return new StatelessOp<Integer>(this, StreamShape.INT_VALUE,
                                    0) {
        @Override
        Sink<Integer> opWrapSink(int flags, Sink<Integer> sink) {
            return new Sink.ChainedInt<Integer>(sink) {
                @Override
                public void accept(int t) {
                    action.accept(t);
                    downstream.accept(t);
                }
            };
        }
    };
}
 

@Override
public boolean tryAdvance(IntConsumer action) {
    Objects.requireNonNull(action);

    if (count == -2) {
        action.accept(first);
        count = -1;
        return true;
    }
    else {
        return false;
    }
}
 

private void testAlreadyAborted(final IntConsumer action)
{
    final int index = 128;
    final int recordIndex = index - HEADER_LENGTH;
    when(buffer.getInt(lengthOffset(recordIndex))).thenReturn(10);
    when(buffer.getInt(typeOffset(recordIndex))).thenReturn(PADDING_MSG_TYPE_ID);

    final IllegalStateException exception = assertThrows(IllegalStateException.class,
        () -> action.accept(index));
    assertEquals("claimed space previously aborted", exception.getMessage());
}
 

@Override
public void forEach(Consumer<? super Integer> consumer) {
    if (consumer instanceof IntConsumer) {
        forEach((IntConsumer) consumer);
    }
    else {
        if (Tripwire.ENABLED)
            Tripwire.trip(getClass(), "{0} calling SpinedBuffer.OfInt.forEach(Consumer)");
        spliterator().forEachRemaining(consumer);
    }
}
 

@Override
default void forEachRemaining(Consumer<? super Integer> consumer) {
  if (consumer instanceof IntConsumer) {
    forEachRemaining((IntConsumer) consumer);
  } else {
    checkCriticalNotNull(consumer);
    forEachRemaining((IntConsumer) consumer::accept);
  }
}
 

/**
 * {@inheritDoc}
 * @implSpec
 * If the action is an instance of {@code IntConsumer} then it is cast
 * to {@code IntConsumer} and passed to {@link #forEachRemaining};
 * otherwise the action is adapted to an instance of
 * {@code IntConsumer}, by boxing the argument of {@code IntConsumer},
 * and then passed to {@link #forEachRemaining}.
 */
@Override
default void forEachRemaining(Consumer<? super Integer> action) {
    if (action instanceof IntConsumer) {
        forEachRemaining((IntConsumer) action);
    }
    else {
        // The method reference action::accept is never null
        Objects.requireNonNull(action);
        if (Tripwire.ENABLED)
            Tripwire.trip(getClass(), "{0} calling PrimitiveIterator.OfInt.forEachRemainingInt(action::accept)");
        forEachRemaining((IntConsumer) action::accept);
    }
}
 

@Override
public void forEach(Consumer<? super Integer> consumer) {
    if (consumer instanceof IntConsumer) {
        forEach((IntConsumer) consumer);
    }
    else {
        if (Tripwire.ENABLED)
            Tripwire.trip(getClass(), "{0} calling SpinedBuffer.OfInt.forEach(Consumer)");
        spliterator().forEachRemaining(consumer);
    }
}
 

/**
 * Creates an {@code PrimitiveIterator.OfInt} from a
 * {@code Spliterator.OfInt}.
 *
 * <p>Traversal of elements should be accomplished through the iterator.
 * The behaviour of traversal is undefined if the spliterator is operated
 * after the iterator is returned.
 *
 * @param spliterator The spliterator
 * @return An iterator
 * @throws NullPointerException if the given spliterator is {@code null}
 */
public static PrimitiveIterator.OfInt iterator(Spliterator.OfInt spliterator) {
    Objects.requireNonNull(spliterator);
    class Adapter implements PrimitiveIterator.OfInt, IntConsumer {
        boolean valueReady = false;
        int nextElement;

        @Override
        public void accept(int t) {
            valueReady = true;
            nextElement = t;
        }

        @Override
        public boolean hasNext() {
            if (!valueReady)
                spliterator.tryAdvance(this);
            return valueReady;
        }

        @Override
        public int nextInt() {
            if (!valueReady && !hasNext())
                throw new NoSuchElementException();
            else {
                valueReady = false;
                return nextElement;
            }
        }
    }

    return new Adapter();
}
 

public boolean tryAdvance(IntConsumer consumer) {
    if (consumer == null) throw new NullPointerException();
    long i = index, f = fence;
    if (i < f) {
        consumer.accept(ThreadLocalRandom.current().internalNextInt(origin, bound));
        index = i + 1;
        return true;
    }
    return false;
}
 

@Override
public void forEachRemaining(IntConsumer consumer) {
    if (buffer == null && !finished) {
        Objects.requireNonNull(consumer);
        init();

        ph.wrapAndCopyInto((Sink.OfInt) consumer::accept, spliterator);
        finished = true;
    }
    else {
        do { } while (tryAdvance(consumer));
    }
}
 

@Override
public boolean tryAdvance(IntConsumer action) {
    Objects.requireNonNull(action);

    action.accept(s.getAsInt());
    return true;
}
 

@Override
public void forEachRemaining(IntConsumer action) {
    int[] a; int i, hi; // hoist accesses and checks from loop
    if (action == null)
        throw new NullPointerException();
    if ((a = array).length >= (hi = fence) &&
        (i = index) >= 0 && i < (index = hi)) {
        do { action.accept(a[i]); } while (++i < hi);
    }
}
 

/**
 * {@inheritDoc}
 * @implSpec
 * If the action is an instance of {@code IntConsumer} then it is cast
 * to {@code IntConsumer} and passed to {@link #forEachRemaining};
 * otherwise the action is adapted to an instance of
 * {@code IntConsumer}, by boxing the argument of {@code IntConsumer},
 * and then passed to {@link #forEachRemaining}.
 */
@Override
default void forEachRemaining(Consumer<? super Integer> action) {
    if (action instanceof IntConsumer) {
        forEachRemaining((IntConsumer) action);
    }
    else {
        // The method reference action::accept is never null
        Objects.requireNonNull(action);
        if (Tripwire.ENABLED)
            Tripwire.trip(getClass(), "{0} calling PrimitiveIterator.OfInt.forEachRemainingInt(action::accept)");
        forEachRemaining((IntConsumer) action::accept);
    }
}
 

public void forEachRemaining(IntConsumer consumer) {
    if (consumer == null) throw new NullPointerException();
    long i = index, f = fence;
    if (i < f) {
        index = f;
        SplittableRandom r = rng;
        int o = origin, b = bound;
        do {
            consumer.accept(r.internalNextInt(o, b));
        } while (++i < f);
    }
}
 

/**
 * Fills each column for the specified simFeeder to a minimum height as specified. The blocks
 * used will be randomly chosen from the given ArrayList.
 * 
 * @param simFeeder
 * @param minHeight
 * @param possibleBlocks
 * @return
 */
private static SimulationFeeder fillToLevel(SimulationFeeder simFeeder, int minHeight,
      ArrayList<Species> possibleBlocks) {
   SimulationFeeder ret = new SimulationFeeder(simFeeder);
   if (minHeight == 0 || possibleBlocks.isEmpty()) {
      return ret;
   }
   // Using IntStream from random to streamline the performance a little bit.
   int[] numToAdd = new int[Board.NUM_COLS];
   int sum = 0;
   for (int i = 1; i <= Board.NUM_COLS; i++) {
      numToAdd[i - 1] = Math.max(0, minHeight - ret.getQueueSize(i));
      sum += numToAdd[i - 1];
   }
   IntStream is = RAND.ints(sum, 0, possibleBlocks.size());
   is.forEachOrdered(new IntConsumer() {
      int curCol = 1;
      
      @Override
      public void accept(int arg0) {
         while (curCol <= Board.NUM_COLS && numToAdd[curCol - 1] <= 0) {
            curCol++;
         }
         if (curCol <= Board.NUM_COLS) {
            ret.addToQueue(curCol, possibleBlocks.get(arg0));
            numToAdd[curCol - 1]--;
         }
      }
   });
   return ret;
}
 

@Override
public void forEach(IntConsumer action) {
    if (!isParallel()) {
        adapt(sourceStageSpliterator()).forEachRemaining(action);
    }
    else {
        super.forEach(action);
    }
}
 

@Override
public void forEach(Consumer<? super Integer> consumer) {
    if (consumer instanceof IntConsumer) {
        forEach((IntConsumer) consumer);
    }
    else {
        if (Tripwire.ENABLED)
            Tripwire.trip(getClass(), "{0} calling SpinedBuffer.OfInt.forEach(Consumer)");
        spliterator().forEachRemaining(consumer);
    }
}
 

/**
 * Creates an {@code PrimitiveIterator.OfInt} from a
 * {@code Spliterator.OfInt}.
 *
 * <p>Traversal of elements should be accomplished through the iterator.
 * The behaviour of traversal is undefined if the spliterator is operated
 * after the iterator is returned.
 *
 * @param spliterator The spliterator
 * @return An iterator
 * @throws NullPointerException if the given spliterator is {@code null}
 */
public static PrimitiveIterator.OfInt iterator(Spliterator.OfInt spliterator) {
    Objects.requireNonNull(spliterator);
    class Adapter implements PrimitiveIterator.OfInt, IntConsumer {
        boolean valueReady = false;
        int nextElement;

        @Override
        public void accept(int t) {
            valueReady = true;
            nextElement = t;
        }

        @Override
        public boolean hasNext() {
            if (!valueReady)
                spliterator.tryAdvance(this);
            return valueReady;
        }

        @Override
        public int nextInt() {
            if (!valueReady && !hasNext())
                throw new NoSuchElementException();
            else {
                valueReady = false;
                return nextElement;
            }
        }
    }

    return new Adapter();
}
 

@Override
public boolean tryAdvance(IntConsumer action) {
    Objects.requireNonNull(action);

    action.accept(s.getAsInt());
    return true;
}