Java Code Examples for java.util.function.ObjIntConsumer#accept()

@SuppressWarnings("unchecked")
static <T> void forEachPageEntry(final @NonNull Collection<? extends T> content, final int pageSize, final int page, final @NonNull ObjIntConsumer<? super T> consumer) {
  final int size = content.size();
  final int start = pageSize * (page - 1);
  final int end = pageSize * page;
  if(content instanceof List<?> && content instanceof RandomAccess) {
    final List<? extends T> list = (List<? extends T>) content;
    for(int i = start; i < end && i < size; i++) {
      consumer.accept(list.get(i), i);
    }
  } else {
    final Iterator<? extends T> it = content.iterator();

    // skip entries on previous pages
    for(int i = 0; i < start; i++) {
      it.next();
    }

    for(int i = start; i < end && i < size; i++) {
      consumer.accept(it.next(), i);
    }
  }
}
 

/**
 * Constructs a {@code TerminalOp} that implements a mutable reduce on
 * {@code int} values.
 *
 * @param <R> The type of the result
 * @param supplier a factory to produce a new accumulator of the result type
 * @param accumulator a function to incorporate an int into an
 *        accumulator
 * @param combiner a function to combine an accumulator into another
 * @return A {@code ReduceOp} implementing the reduction
 */
public static <R> TerminalOp<Integer, R>
makeInt(Supplier<R> supplier,
        ObjIntConsumer<R> accumulator,
        BinaryOperator<R> combiner) {
    Objects.requireNonNull(supplier);
    Objects.requireNonNull(accumulator);
    Objects.requireNonNull(combiner);
    class ReducingSink extends Box<R>
            implements AccumulatingSink<Integer, R, ReducingSink>, Sink.OfInt {
        @Override
        public void begin(long size) {
            state = supplier.get();
        }

        @Override
        public void accept(int t) {
            accumulator.accept(state, t);
        }

        @Override
        public void combine(ReducingSink other) {
            state = combiner.apply(state, other.state);
        }
    }
    return new ReduceOp<Integer, R, ReducingSink>(StreamShape.INT_VALUE) {
        @Override
        public ReducingSink makeSink() {
            return new ReducingSink();
        }
    };
}
 

/**
 * Constructs a {@code TerminalOp} that implements a mutable reduce on
 * {@code int} values.
 *
 * @param <R> The type of the result
 * @param supplier a factory to produce a new accumulator of the result type
 * @param accumulator a function to incorporate an int into an
 *        accumulator
 * @param combiner a function to combine an accumulator into another
 * @return A {@code ReduceOp} implementing the reduction
 */
public static <R> TerminalOp<Integer, R>
makeInt(Supplier<R> supplier,
        ObjIntConsumer<R> accumulator,
        BinaryOperator<R> combiner) {
    Objects.requireNonNull(supplier);
    Objects.requireNonNull(accumulator);
    Objects.requireNonNull(combiner);
    class ReducingSink extends Box<R>
            implements AccumulatingSink<Integer, R, ReducingSink>, Sink.OfInt {
        @Override
        public void begin(long size) {
            state = supplier.get();
        }

        @Override
        public void accept(int t) {
            accumulator.accept(state, t);
        }

        @Override
        public void combine(ReducingSink other) {
            state = combiner.apply(state, other.state);
        }
    }
    return new ReduceOp<Integer, R, ReducingSink>(StreamShape.INT_VALUE) {
        @Override
        public ReducingSink makeSink() {
            return new ReducingSink();
        }
    };
}
 

/**
 * Constructs a {@code TerminalOp} that implements a mutable reduce on
 * {@code int} values.
 *
 * @param <R> The type of the result
 * @param supplier a factory to produce a new accumulator of the result type
 * @param accumulator a function to incorporate an int into an
 *        accumulator
 * @param combiner a function to combine an accumulator into another
 * @return A {@code ReduceOp} implementing the reduction
 */
public static <R> TerminalOp<Integer, R>
makeInt(Supplier<R> supplier,
        ObjIntConsumer<R> accumulator,
        BinaryOperator<R> combiner) {
    Objects.requireNonNull(supplier);
    Objects.requireNonNull(accumulator);
    Objects.requireNonNull(combiner);
    class ReducingSink extends Box<R>
            implements AccumulatingSink<Integer, R, ReducingSink>, Sink.OfInt {
        @Override
        public void begin(long size) {
            state = supplier.get();
        }

        @Override
        public void accept(int t) {
            accumulator.accept(state, t);
        }

        @Override
        public void combine(ReducingSink other) {
            state = combiner.apply(state, other.state);
        }
    }
    return new ReduceOp<Integer, R, ReducingSink>(StreamShape.INT_VALUE) {
        @Override
        public ReducingSink makeSink() {
            return new ReducingSink();
        }
    };
}
 

/**
 * Constructs a {@code TerminalOp} that implements a mutable reduce on
 * {@code int} values.
 *
 * @param <R> The type of the result
 * @param supplier a factory to produce a new accumulator of the result type
 * @param accumulator a function to incorporate an int into an
 *        accumulator
 * @param combiner a function to combine an accumulator into another
 * @return A {@code ReduceOp} implementing the reduction
 */
public static <R> TerminalOp<Integer, R>
makeInt(Supplier<R> supplier,
        ObjIntConsumer<R> accumulator,
        BinaryOperator<R> combiner) {
    Objects.requireNonNull(supplier);
    Objects.requireNonNull(accumulator);
    Objects.requireNonNull(combiner);
    class ReducingSink extends Box<R>
            implements AccumulatingSink<Integer, R, ReducingSink>, Sink.OfInt {
        @Override
        public void begin(long size) {
            state = supplier.get();
        }

        @Override
        public void accept(int t) {
            accumulator.accept(state, t);
        }

        @Override
        public void combine(ReducingSink other) {
            state = combiner.apply(state, other.state);
        }
    }
    return new ReduceOp<Integer, R, ReducingSink>(StreamShape.INT_VALUE) {
        @Override
        public ReducingSink makeSink() {
            return new ReducingSink();
        }
    };
}
 

/**
 * Constructs a {@code TerminalOp} that implements a mutable reduce on
 * {@code int} values.
 *
 * @param <R> The type of the result
 * @param supplier a factory to produce a new accumulator of the result type
 * @param accumulator a function to incorporate an int into an
 *        accumulator
 * @param combiner a function to combine an accumulator into another
 * @return A {@code ReduceOp} implementing the reduction
 */
public static <R> TerminalOp<Integer, R>
makeInt(Supplier<R> supplier,
        ObjIntConsumer<R> accumulator,
        BinaryOperator<R> combiner) {
    Objects.requireNonNull(supplier);
    Objects.requireNonNull(accumulator);
    Objects.requireNonNull(combiner);
    class ReducingSink extends Box<R>
            implements AccumulatingSink<Integer, R, ReducingSink>, Sink.OfInt {
        @Override
        public void begin(long size) {
            state = supplier.get();
        }

        @Override
        public void accept(int t) {
            accumulator.accept(state, t);
        }

        @Override
        public void combine(ReducingSink other) {
            state = combiner.apply(state, other.state);
        }
    }
    return new ReduceOp<Integer, R, ReducingSink>(StreamShape.INT_VALUE) {
        @Override
        public ReducingSink makeSink() {
            return new ReducingSink();
        }
    };
}
 

private void forEachMaterializedValueIndex(ObjIntConsumer<String> consumer) {
    int k = 0;
    for (int i = 0; i < stepValues.length; i++) {
        String value = stepValues[i];
        for (int j = 0; j < stepLengths[i]; j++) {
            consumer.accept(value, offset + k++);
        }
    }
}
 

/**
 * Constructs a {@code TerminalOp} that implements a mutable reduce on
 * {@code int} values.
 *
 * @param <R> The type of the result
 * @param supplier a factory to produce a new accumulator of the result type
 * @param accumulator a function to incorporate an int into an
 *        accumulator
 * @param combiner a function to combine an accumulator into another
 * @return A {@code ReduceOp} implementing the reduction
 */
public static <R> TerminalOp<Integer, R>
makeInt(Supplier<R> supplier,
        ObjIntConsumer<R> accumulator,
        BinaryOperator<R> combiner) {
    Objects.requireNonNull(supplier);
    Objects.requireNonNull(accumulator);
    Objects.requireNonNull(combiner);
    class ReducingSink extends Box<R>
            implements AccumulatingSink<Integer, R, ReducingSink>, Sink.OfInt {
        @Override
        public void begin(long size) {
            state = supplier.get();
        }

        @Override
        public void accept(int t) {
            accumulator.accept(state, t);
        }

        @Override
        public void combine(ReducingSink other) {
            state = combiner.apply(state, other.state);
        }
    }
    return new ReduceOp<Integer, R, ReducingSink>(StreamShape.INT_VALUE) {
        @Override
        public ReducingSink makeSink() {
            return new ReducingSink();
        }
    };
}
 

/**
 * Constructs a {@code TerminalOp} that implements a mutable reduce on
 * {@code int} values.
 *
 * @param <R> The type of the result
 * @param supplier a factory to produce a new accumulator of the result type
 * @param accumulator a function to incorporate an int into an
 *        accumulator
 * @param combiner a function to combine an accumulator into another
 * @return A {@code ReduceOp} implementing the reduction
 */
public static <R> TerminalOp<Integer, R>
makeInt(Supplier<R> supplier,
        ObjIntConsumer<R> accumulator,
        BinaryOperator<R> combiner) {
    Objects.requireNonNull(supplier);
    Objects.requireNonNull(accumulator);
    Objects.requireNonNull(combiner);
    class ReducingSink extends Box<R>
            implements AccumulatingSink<Integer, R, ReducingSink>, Sink.OfInt {
        @Override
        public void begin(long size) {
            state = supplier.get();
        }

        @Override
        public void accept(int t) {
            accumulator.accept(state, t);
        }

        @Override
        public void combine(ReducingSink other) {
            state = combiner.apply(state, other.state);
        }
    }
    return new ReduceOp<Integer, R, ReducingSink>(StreamShape.INT_VALUE) {
        @Override
        public ReducingSink makeSink() {
            return new ReducingSink();
        }
    };
}
 

/**
 * Iterates each method of the {@code clazz} and call consume {@code c} for it.
 *
 * @param c Method consumer.
 */
private void forEachMethod(Class<?> clazz, ObjIntConsumer<Method> c) {
    Method[] methods = clazz.getMethods();

    List<Method> notOrdered = new ArrayList<>();
    List<Method> ordered = new ArrayList<>();

    for (int i = 0; i < methods.length; i++) {
        Method m = methods[i];

        if (Modifier.isStatic(m.getModifiers()))
            continue;

        if (SYS_METHODS.contains(m.getName()))
            continue;

        Class<?> retClazz = m.getReturnType();

        if (retClazz == void.class)
            continue;

        if (m.getAnnotation(Order.class) != null)
            ordered.add(m);
        else
            notOrdered.add(m);
    }

    Collections.sort(ordered, Comparator.comparingInt(m -> m.getAnnotation(Order.class).value()));
    Collections.sort(notOrdered, Comparator.comparing(Method::getName));

    for (int i = 0; i < ordered.size(); i++)
        c.accept(ordered.get(i), i);

    for (int i = 0; i < notOrdered.size(); i++)
        c.accept(notOrdered.get(i), i + ordered.size());
}
 

public void forEachPrimitive(ObjIntConsumer<V> action) {
    AtomicReferenceArray<V> values = this.values;
    for (int index = 0; index < values.length(); index++) {
        V value = values.get(index);
        if (value != null) {
            action.accept(value, index);
        }
    }
}
 

private static <T> void forEachWithIndex(
        final Iterable<T> collection,
        final ObjIntConsumer<T> consumer) {

    int index = 0;
    for (final T element : collection) {
        consumer.accept(element, index++);
    }
}
 

/**
 * Constructs a {@code TerminalOp} that implements a mutable reduce on
 * {@code int} values.
 *
 * @param <R> The type of the result
 * @param supplier a factory to produce a new accumulator of the result type
 * @param accumulator a function to incorporate an int into an
 *        accumulator
 * @param combiner a function to combine an accumulator into another
 * @return A {@code ReduceOp} implementing the reduction
 */
public static <R> TerminalOp<Integer, R>
makeInt(Supplier<R> supplier,
        ObjIntConsumer<R> accumulator,
        BinaryOperator<R> combiner) {
    Objects.requireNonNull(supplier);
    Objects.requireNonNull(accumulator);
    Objects.requireNonNull(combiner);
    class ReducingSink extends Box<R>
            implements AccumulatingSink<Integer, R, ReducingSink>, Sink.OfInt {
        @Override
        public void begin(long size) {
            state = supplier.get();
        }

        @Override
        public void accept(int t) {
            accumulator.accept(state, t);
        }

        @Override
        public void combine(ReducingSink other) {
            state = combiner.apply(state, other.state);
        }
    }
    return new ReduceOp<Integer, R, ReducingSink>(StreamShape.INT_VALUE) {
        @Override
        public ReducingSink makeSink() {
            return new ReducingSink();
        }
    };
}
 

/**
 * Constructs a {@code TerminalOp} that implements a mutable reduce on
 * {@code int} values.
 *
 * @param <R> The type of the result
 * @param supplier a factory to produce a new accumulator of the result type
 * @param accumulator a function to incorporate an int into an
 *        accumulator
 * @param combiner a function to combine an accumulator into another
 * @return A {@code ReduceOp} implementing the reduction
 */
public static <R> TerminalOp<Integer, R>
makeInt(Supplier<R> supplier,
        ObjIntConsumer<R> accumulator,
        BinaryOperator<R> combiner) {
    Objects.requireNonNull(supplier);
    Objects.requireNonNull(accumulator);
    Objects.requireNonNull(combiner);
    class ReducingSink extends Box<R>
            implements AccumulatingSink<Integer, R, ReducingSink>, Sink.OfInt {
        @Override
        public void begin(long size) {
            state = supplier.get();
        }

        @Override
        public void accept(int t) {
            accumulator.accept(state, t);
        }

        @Override
        public void combine(ReducingSink other) {
            state = combiner.apply(state, other.state);
        }
    }
    return new ReduceOp<Integer, R, ReducingSink>(StreamShape.INT_VALUE) {
        @Override
        public ReducingSink makeSink() {
            return new ReducingSink();
        }
    };
}
 

/**
 * Constructs a {@code TerminalOp} that implements a mutable reduce on
 * {@code int} values.
 *
 * @param <R> The type of the result
 * @param supplier a factory to produce a new accumulator of the result type
 * @param accumulator a function to incorporate an int into an
 *        accumulator
 * @param combiner a function to combine an accumulator into another
 * @return A {@code ReduceOp} implementing the reduction
 */
public static <R> TerminalOp<Integer, R>
makeInt(Supplier<R> supplier,
        ObjIntConsumer<R> accumulator,
        BinaryOperator<R> combiner) {
    Objects.requireNonNull(supplier);
    Objects.requireNonNull(accumulator);
    Objects.requireNonNull(combiner);
    class ReducingSink extends Box<R>
            implements AccumulatingSink<Integer, R, ReducingSink>, Sink.OfInt {
        @Override
        public void begin(long size) {
            state = supplier.get();
        }

        @Override
        public void accept(int t) {
            accumulator.accept(state, t);
        }

        @Override
        public void combine(ReducingSink other) {
            state = combiner.apply(state, other.state);
        }
    }
    return new ReduceOp<Integer, R, ReducingSink>(StreamShape.INT_VALUE) {
        @Override
        public ReducingSink makeSink() {
            return new ReducingSink();
        }
    };
}
 

private void forEachValueIndex(ObjIntConsumer<String> consumer) {
    for (int i = 0; i < values.length; i++) {
        consumer.accept(values[i], offset + i);
    }
}
 

static <E> void forEachIndexed(Iterable<E> iterable, ObjIntConsumer<E> consumer) {
    int i = 0;
    for(E e : iterable) {
        consumer.accept(e, i++);
    }
}
 

public void forData(ObjIntConsumer<int[]> target)
{
	target.accept(m_buf, m_size);
}
 

public void iterate(ObjIntConsumer<WorldObject> consumer) {
	for(Entry<WorldObject> entry : worldObjects.int2ObjectEntrySet()) {
		WorldObject object = entry.getValue();
		consumer.accept(object, entry.getIntKey());
	}
}
 

/**
 * Returns an {@code IntCollector} which partitions the input numbers
 * according to an {@code IntPredicate}, reduces the values in each
 * partition according to another {@code IntCollector}, and organizes them
 * into a {@code Map<Boolean, D>} whose values are the result of the
 * downstream reduction.
 *
 * <p>
 * There are no guarantees on the type, mutability, serializability, or
 * thread-safety of the {@code Map} returned.
 *
 * @param <A> the intermediate accumulation type of the downstream collector
 * @param <D> the result type of the downstream reduction
 * @param predicate a predicate used for classifying input elements
 * @param downstream an {@code IntCollector} implementing the downstream
 *        reduction
 * @return an {@code IntCollector} implementing the cascaded partitioning
 *         operation
 */
static <A, D> IntCollector<?, Map<Boolean, D>> partitioningBy(IntPredicate predicate, IntCollector<A, D> downstream) {
    ObjIntConsumer<A> downstreamAccumulator = downstream.intAccumulator();
    ObjIntConsumer<BooleanMap<A>> accumulator = (result, t) -> downstreamAccumulator.accept(
        predicate.test(t) ? result.trueValue : result.falseValue, t);
    return BooleanMap.partialCollector(downstream).asInt(accumulator);
}