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reactor/reactor-core

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5,224 estrellas·1,244 forks·Java·Apache-2.0·14 vistasprojectreactor.io↗

Reactor Core

Reactor Core es un kit de herramientas de programación reactiva y una base no bloqueante para componer pipelines de datos asíncronos en la JVM. Sirve como framework de procesamiento de flujos asíncronos y sistema de gestión de contrapresión (backpressure), permitiendo a los desarrolladores transformar, filtrar y combinar secuencias de eventos mientras regulan el flujo de datos entre productores y consumidores para evitar el agotamiento de recursos.

La biblioteca se diferencia por un sofisticado sistema de planificación de concurrencia y control de flujo basado en la demanda. Desacopla el procesamiento de señales de hilos específicos utilizando un registro de planificadores y proporciona mecanismos para la propagación de metadatos inmutables conscientes del contexto a través de límites asíncronos. También cuenta con herramientas especializadas para la captura de trazas en tiempo de ensamblaje y planificación de tiempo virtual para facilitar la prueba de operadores basados en el tiempo.

El proyecto cubre una amplia gama de capacidades, incluyendo procesamiento funcional de datos para agregación y ventanas de secuencias, una variedad de estrategias de recuperación de errores como reintentos con retroceso exponencial y utilidades para conectar API de callback heredadas o síncronas en flujos reactivos. Además, proporciona instrumentación para el monitoreo de pipelines y un conjunto de herramientas de prueba para verificar secuencias de señales.

Features

  • Flow Control - Provides a demand-based backpressure system to regulate data production and prevent consumer overwhelm.
  • Backpressure Controllers - Implements a sophisticated demand-based flow control system to prevent consumer overwhelm and resource exhaustion.
  • Backpressure Coordination - Regulates data production speed through demand-based signaling to prevent consumer overwhelm and resource exhaustion.
  • Reactive Stream Libraries - Provides a non-blocking foundation for composing asynchronous data pipelines based on the Reactive Streams specification.
  • Collection Element Transformations - Provides functional operators to transform elements, filter them based on predicates, or signal errors.
  • Reactive Stream Processing - Provides a complete toolkit for processing asynchronous sequences using non-blocking functional operators.
  • Stream Subscriptions - Attaches consumers to data sequences to handle produced values, errors, and completion signals.
  • Sequence Transformations - Provides a rich set of operators for mapping, flattening, and transforming asynchronous data sequences.
  • Asynchronous Streams - Provides the fundamental interfaces for producing and consuming sequences of data emitted over time asynchronously.
  • Demand-Based - Regulates flow by requesting specific quantities of data to prevent consumer overwhelm.
  • Context Propagation - Implements mechanisms for capturing and transferring metadata across asynchronous execution boundaries without thread-local storage.
  • Contextual Metadata Propagation - Stores immutable key-value pairs tied to a subscriber to propagate metadata across asynchronous boundaries.
  • Parallel Workload Distribution - Subdivides data sequences into concurrent tasks to distribute the processing workload across multiple CPU cores.
  • Asynchronous Stream Processing Frameworks - Acts as a comprehensive non-blocking foundation for composing asynchronous data pipelines on the JVM.
  • Stream Combinators - Implements a comprehensive set of non-blocking operators for transforming, filtering, and combining asynchronous data streams.
  • Asynchronous Value Representations - Provides Mono as a specialized representation for a non-blocking computation emitting zero or one value.
  • Concurrent Thread Execution - Provides a comprehensive scheduler registry to manage thread execution and decouple signal processing from specific threads.
  • Execution Context Management - Provides a scheduler registry to decouple signal processing from specific threads and manage concurrency.
  • JVM Reactive Toolkits - Offers a comprehensive set of operators and types for orchestrating complex asynchronous workflows on the JVM.
  • Stream Operator Chains - Allows the composition of asynchronous pipelines by linking stream operators sequentially to transform and filter data.
  • Asynchronous Task Orchestration - Allows composing multiple asynchronous operations into complex sequences or fork-join structures.
  • Backpressure Management - Implements a demand-based flow control system to regulate data production and prevent consumer overwhelm.
  • Concurrency Schedulers - Provides a robust set of abstractions for managing the execution context and scheduling of asynchronous tasks.
  • Scheduler-Based Concurrency Models - Decouples signal processing from specific threads using a pluggable scheduler registry to control timing and parallelism.
  • Stream Windowing - Implements sophisticated windowing operators to group streaming data by time intervals or element counts.
  • Single-Value Result Handling - Manages asynchronous computations that produce zero or one element with deterministic sequence generation and timeout handling.
  • Event Sequence Verification - Compares step-by-step scenarios of expected values, errors, and completion events against actual signal sequences.
  • Reactive Sequence Generation - Generates event streams from constants, iterables, suppliers, futures, and programmatic generators.
  • Stream Aggregation - Reduces a sequence of emitted elements into a single summary value, collection, or boolean result.
  • Predicate-Based Filters - Excludes elements from a stream based on predicates, type checks, or position-based constraints.
  • Reactive Stream Testing - Verifies the behavior and timing of event streams using specialized publishers, subscribers, and schedulers.
  • Virtual Time Testing - Replaces the real-time clock with a virtual scheduler to test time-based operators and long delays instantaneously.
  • Functional Stream Transformations - Applies chains of functional operators to filter, transform, and handle errors for data flowing from a producer.
  • Bounded Buffer Synchronization - Uses bounded buffers to synchronize production and consumption speeds.
  • Sequence - Stores emitted elements and replays them to late subscribers based on a fixed count or time duration.
  • Cold Publisher Generation - Supports the creation of cold publishers that restart the data sequence for each unique subscriber.
  • Interval Sampling - Selects a subset of stream elements based on time intervals, windows, or timeout triggers.
  • Parallel Processing - Distributes a data stream across multiple processing rails to execute transformations concurrently.
  • Parallel Data Merging - Combines results from multiple parallel processing rails back into a single sequential stream.
  • Synchronous Sequence Generation - Enables the production of data sequences using stateful generators that emit items one-by-one.
  • Stream Mathematical Aggregations - Calculates sums, averages, minimums, and maximums across streams of numeric data.
  • Chain Checkpoints - Adds markers to reactive chains to pinpoint failure locations during debugging.
  • Verification - Provides assertions to verify that specific context was correctly passed through an operator chain.
  • Event Sequence Tracing - Logs the entire sequence of emissions, errors, and backpressure requests to analyze signal behavior.
  • Reactive Stream Retries - Provides the ability to automatically re-subscribe to an upstream source when a stream terminates with an error.
  • Last Value Caching - Caches the most recent signal and serves it to subsequent subscribers with configurable TTL expiration.
  • Asynchronous Task Execution - Executes asynchronous tasks using a specialized work-stealing scheduler for high-performance task dispatching.
  • Work-Stealing Schedulers - Utilizes a fork-join scheduler to distribute data streams across multiple processing rails via work-stealing.
  • Execution Context Switching - Enables shifting the execution thread or scheduler for subsequent operations to maintain thread affinity.
  • Exponential Backoff Retries - Implements sophisticated retry operators including exponential backoff to handle transient failures.
  • Blocking Operation Handlers - Offloads synchronous blocking operations to dedicated worker threads to prevent event loop starvation.
  • Reactive API Bridging - Offers utilities to wrap legacy listener-based or callback APIs into reactive Flux and Mono types.
  • Value-Based Stream Generation - Generates event streams from constants, collections, ranges, or enumerated values using factory methods.
  • Error Interception Handlers - Implements programmable handlers to intercept and transform exceptions thrown during operator execution.
  • Assembly-Time Trace Capture - Provides specialized assembly-time trace capture to accurately locate errors within complex asynchronous operator chains.
  • Asynchronous API Bridging - Provides utilities to convert listener-based event sources into reactive streams with configurable overflow strategies.
  • Asynchronous Operation Chaining - Enables wrapping sequences of asynchronous operations into reusable functions for consistent application across subscribers.
  • Boolean Predicates - Includes operators that evaluate stream elements against predicates to emit a single boolean summary.
  • Concurrent Emission Handling - Handles concurrent data production across multiple threads using failure handlers to prevent reactive specification violations.
  • Data Broadcasting - Shares a single data source among several subscribers and controls when the upstream subscription triggers.
  • Error Recovery - Provides operators to intercept errors and switch to fallback publishers or return default values.
  • Exception Traceback Capture - Records stack traces during the assembly of the operator chain to pinpoint the exact location of failures.
  • Execution Schedulers - Allows specifying the thread that handles the initial subscription process and subsequent operator chain execution.
  • Subscription Cancellation Cascades - Stops a data source from producing further elements and triggers resource cleanup via a disposable handle.
  • Historical Event Replay - Delivers previously emitted values to new subscribers before transitioning to the live data stream.
  • Imperative-Reactive Bridges - Bridges non-reactive callbacks or listener-based APIs into reactive streams using configurable overflow strategies.
  • Manual Event Signaling - Produces data and terminal signals in a standalone fashion to drive a stream for multiple subscribers.
  • Multicast Stream Sharing - Shares a single upstream data source among multiple subscribers using reference counting to manage subscription lifecycles.
  • Non-Destructive Signal Peeking - Executes side-effect actions upon signals without altering the stream of data.
  • Reactive Stream Spans - Tracks the end-to-end lifecycle of reactive sequences to generate spans for distributed tracing.
  • Reactive Stream Adaptation - Converts a publisher into a standard flow publisher to ensure compatibility across different reactive implementations.
  • Reactive Subscription Management - Groups multiple active subscriptions into a single handle to cancel them simultaneously or replace them atomically.
  • Reactive Value Combinations - Merges the most recent values from multiple asynchronous sources using custom combinator functions.
  • Demand Reshaping - Modifies downstream demand by batching requests or prefetching items to optimize throughput.
  • Sequence Buffering - Groups stream elements into collections based on size, duration, or specific boundaries.
  • Signal Performance Metrics - Records performance metrics at specific stages of a stream to analyze signal behavior and throughput.
  • Signal Replay Buffers - Stores a history of emitted items to deliver them to late subscribers who join after the source has started.
  • Stream Element Grouping - Splits a data stream into multiple sub-streams by partitioning elements that share a common key.
  • Subscription-Triggered Emissions - Defines whether a data sequence restarts for every subscriber or shares a single active emission.
  • Synchronous API Bridging - Blocks execution to retrieve a value or converts a reactive stream into a standard iterable or future.
  • Asynchronous Schedulers - Defines execution contexts to shift task processing across different thread pools for non-blocking execution.
  • Assembly-Time Tracing - Marks points in the operator chain during construction to provide precise tracebacks for upstream errors.
  • Reactive Path Probing - Tracks subscription, request, and cancellation events to verify which logical branches of the pipeline were executed.
  • Callback-to-Stream Adapters - Wraps legacy callback or listener-based APIs into reactive streams to signal values, completion, or errors.

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Preguntas frecuentes

¿Qué hace reactor/reactor-core?

Reactor Core es un kit de herramientas de programación reactiva y una base no bloqueante para componer pipelines de datos asíncronos en la JVM. Sirve como framework de procesamiento de flujos asíncronos y sistema de gestión de contrapresión (backpressure), permitiendo a los desarrolladores transformar, filtrar y combinar secuencias de eventos mientras regulan el flujo de datos entre productores y consumidores para evitar el agotamiento de recursos.

¿Cuáles son las características principales de reactor/reactor-core?

Las características principales de reactor/reactor-core son: Flow Control, Backpressure Controllers, Backpressure Coordination, Reactive Stream Libraries, Collection Element Transformations, Reactive Stream Processing, Stream Subscriptions, Sequence Transformations.

¿Qué alternativas de código abierto existen para reactor/reactor-core?

Las alternativas de código abierto para reactor/reactor-core incluyen: reactor/reactor — Reactor is a reactive streams library and framework for building asynchronous data pipelines. It provides a system for… reactive-streams/reactive-streams-jvm — This project provides a formal specification and a set of standard Java interfaces for asynchronous stream processing.… reactivex/rxpy — RxPY is a functional reactive programming library and a ReactiveX observable library for Python. It serves as an… reactive-extensions/rxjs — The Reactive Extensions for JavaScript. reactivex/rxswift — RxSwift is a reactive programming library for Swift that provides a framework for managing push-based data flows and… zio/zio — ZIO is a functional effect system for the JVM that models asynchronous and concurrent programs as pure, composable…

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