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fastutil extends the Java Collections Framework by providing type-specific maps, sets, lists, and queues with a small memory footprint and fast operations; it provides also big (64-bit) arrays, sets, and lists, sorting algorithms, fast, practical I/O classes for binary and text files, and facilities for memory mapping large files. This jar (fastutil-core.jar) contains data structures based on integers, longs, doubles, and objects, only; fastutil.jar contains all classes. If you have both jars in your dependencies, this jar should be excluded.

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/*
	* Copyright (C) 2017-2022 Sebastiano Vigna
	*
	* Licensed under the Apache License, Version 2.0 (the "License");
	* you may not use this file except in compliance with the License.
	* You may obtain a copy of the License at
	*
	*     http://www.apache.org/licenses/LICENSE-2.0
	*
	* Unless required by applicable law or agreed to in writing, software
	* distributed under the License is distributed on an "AS IS" BASIS,
	* WITHOUT WARRANTIES OR CONDITIONS OF ANY KIND, either express or implied.
	* See the License for the specific language governing permissions and
	* limitations under the License.
	*/
package it.unimi.dsi.fastutil.floats;
import java.util.Objects;
import java.util.function.Consumer;
/** A type-specific {@link Consumer}; provides methods to consume a primitive type both as object
	* and as primitive.
	*
	* Except for the boolean case, this interface extends both a parameterized {@link java.util.function.Consumer}
	* and a type-specific JDK consumer (e.g., {@link java.util.function.IntConsumer}). For types missing
	* a type-specific JDK consumer (e.g., {@code short} or {@code float}), we extend the consumer associated with
	* the smallest primitive type that can represent the current type (e.g., {@code int} or {@code double}, respectively).
	*
	* @see Consumer
	* @since 8.0.0
	*/
@FunctionalInterface
public interface FloatConsumer extends Consumer, java.util.function.DoubleConsumer {
	/**
	 * Performs this operation on the given input.
	 *
	 * @param t the input.
	 */
	void accept(float t);
	/** {@inheritDoc}
	 * @deprecated Please use the corresponding exact type-specific method instead. */
	@Deprecated
	@Override
	default void accept(final double t) {
	 accept(it.unimi.dsi.fastutil.SafeMath.safeDoubleToFloat(t));
	}
	/** {@inheritDoc}
	 * @deprecated Please use the corresponding type-specific method instead. */
	@Deprecated
	@Override
	default void accept(final Float t) {
	 this.accept(t.floatValue());
	}
	/**
	 * Returns a composed type-specific consumer that performs, in sequence, this
	 * operation followed by the {@code after} operation.
	 * @param after the operation to perform after this operation.
	 * @return a composed {@code Consumer} that performs in sequence this
	 * operation followed by the {@code after} operation.
	 * @see Consumer#andThen
	 * @apiNote Implementing classes should generally override this method and 
	 * keep the default implementation of the other overloads, which will 
	 * delegate to this method (after proper conversions).
	 */
	default FloatConsumer andThen(final FloatConsumer after) {
	 Objects.requireNonNull(after);
	 return t -> { accept(t); after.accept(t); };
	}
	/** {@inheritDoc}	
	 * @implNote Composing with a JDK type-specific consumer will be slightly less efficient than using a type-specific consumer, as the argument will have to be widened at each call.  */
	@Override
	default FloatConsumer andThen(final java.util.function.DoubleConsumer after) {
	 return andThen(after instanceof FloatConsumer ? (FloatConsumer) after : (FloatConsumer) after::accept);
	}
	/** {@inheritDoc}
	 * @deprecated Please use the corresponding type-specific method instead. */
	@Deprecated
	@Override
	default Consumer andThen(final Consumer after) {
	 return Consumer.super.andThen(after);
	}
}