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futureverse avatar

futureverse/future

0
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1,013 stars·92 forks·R·16 viewsfuture.futureverse.org↗

Future

Future is a unified framework for parallel and distributed computing in R that abstracts infrastructure complexity to enable asynchronous task execution. It provides a consistent interface for dispatching intensive computations to local multicore processors or remote clusters, allowing developers to manage background jobs without blocking the main session.

The framework distinguishes itself through a strategy-based execution abstraction that decouples task definitions from the underlying compute backend. This allows for the seamless swapping of execution environments while maintaining global state consistency through automatic environment snapshotting and variable synchronization. It further supports complex workflows by enabling hierarchical execution topologies, where specific strategies can be assigned to different levels of nested tasks.

Beyond basic task distribution, the library includes comprehensive tools for scientific computing, such as deterministic random seed coordination to ensure reproducible results across parallel workers. It also provides robust monitoring and observability features, including the ability to capture and relay standard output, diagnostic signals, and error conditions from background processes back to the primary session for unified debugging.

Features

  • Parallel Task Orchestrators - Provides a unified interface for dispatching and managing parallel tasks across local and remote infrastructure.
  • CPU-Bound Parallel Execution - Provides a framework for executing intensive R data analysis tasks across multiple CPU cores or background processes.
  • Future-Based Result Handling - Provides a unified interface for managing and retrieving results from asynchronous parallel tasks using future objects.
  • R - Offers a unified interface for executing R code asynchronously across local and distributed computing environments.
  • Asynchronous Task Management - Provides tools for checking status, retrieving results, and cancelling background jobs with non-blocking polling.
  • Asynchronous Task Schedulers - Schedules and dispatches background jobs while managing global variable synchronization and dependency resolution across workers.
  • Asynchronous Task Execution - Enables non-blocking execution of expressions in background processes to prevent main session stalls during intensive tasks.
  • Environment Synchronization Mechanisms - Ensures consistent execution environments by automatically synchronizing global variables and dependencies across parallel workers.
  • Execution Backend Abstractions - Decouples task definitions from compute backends using a pluggable strategy pattern for seamless environment switching.
  • Execution Backends - Configures and switches execution backends like local multicore or remote clusters to optimize resource usage.
  • Hierarchical Task Nesting - Supports complex hierarchical execution by allowing specific parallel strategies to be assigned to nested task structures.
  • Distributed Computing - Enables scaling of data processing workflows by dispatching computations to remote clusters through a unified interface.
  • Hierarchical Orchestrators - Supports complex workflows by enabling hierarchical execution topologies with nested parallel task management.
  • Random Number Generator Seeding - Coordinates random number generator seeds across parallel workers to ensure reproducible stochastic simulations.
  • Parallel Random Number Generators - Ensures statistically valid and reproducible random number generation across parallel workers in distributed simulations.
  • Seed Coordination Utilities - Ensures reproducible results in parallel simulations by coordinating random number generator seeds across workers.
  • Scientific Computing - Provides tools for managing parallel randomness and nested execution topologies in scientific R workflows.
  • Output Capture Utilities - Collects standard output and diagnostic signals from background workers and replays them in the main session.
  • Error Handling - Captures and relays standard output and diagnostic conditions from background workers to the main session for unified debugging.
  • Environment State Snapshots - Automatically captures and serializes the parent session environment to ensure background workers have the necessary context and dependencies.

Star history

Star history chart for futureverse/futureStar history chart for futureverse/future

How this analysis was created: This summary and feature list are AI-generated from collected project material and can contain mistakes. Stars, license and language are imported from GitHub. Inclusion does not mean that we have tested or audited this project. Check the source documentation for any feature you depend on. Learn more on our About page.

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    Failsafe is a JVM resilience library providing a collection of fault tolerance patterns for Java applications. It functions as an asynchronous execution wrapper that runs tasks in the background and returns futures to prevent thread blocking. The library allows for the composition of resilience policies, enabling multiple patterns to be stacked into a sequential pipeline. It includes specific implementations for circuit breaking to prevent system overload, rate limiting to control traffic flow, and a framework for managing retries and fallbacks. Capability areas cover traffic management thro

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  • morvanzhou/tutorialsMorvanZhou avatar

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Frequently asked questions

What does futureverse/future do?

Future is a unified framework for parallel and distributed computing in R that abstracts infrastructure complexity to enable asynchronous task execution. It provides a consistent interface for dispatching intensive computations to local multicore processors or remote clusters, allowing developers to manage background jobs without blocking the main session.

What are the main features of futureverse/future?

The main features of futureverse/future are: Parallel Task Orchestrators, CPU-Bound Parallel Execution, Future-Based Result Handling, R, Asynchronous Task Management, Asynchronous Task Schedulers, Asynchronous Task Execution, Environment Synchronization Mechanisms.

Which projects share features with futureverse/future?

Projects with overlapping indexed features include: dask/dask — Dask is a parallel computing framework and distributed task scheduler designed to scale Python data science workflows… jhalterman/failsafe — Failsafe is a JVM resilience library providing a collection of fault tolerance patterns for Java applications. It… apache/beam — Apache Beam is a distributed data pipeline framework and unified data processing model designed to handle both bounded… morvanzhou/tutorials — This repository is a comprehensive collection of instructional guides and practical examples for Python development,… effector/effector — Effector is a reactive state management library designed for building complex, event-driven applications. It functions… stdlib-js/stdlib.

Curated searches featuring Future

Hand-picked collections where Future appears.
  • Asynchronous concurrency models