IPDPS 2027

Deadlines
Systems/CORE A

IPDPS 2027

IEEE International Parallel and Distributed Processing Symposium

June 1-5, 2027Seattle, USAOfficial conference site Site reachable

IPDPS 2027 is the 41st IEEE International Parallel & Distributed Processing Symposium, serving as a premier international forum for presenting cutting-edge research in high-performance computing, parallel, and distributed systems. The conference features technical paper sessions, workshops, tutorials, and mentoring, with a focus on innovations across algorithms, architectures, ML/AI, programming models, and system software, all aimed at advancing computational science and engineering.

Official CFP Back to deadlines Verified September 9, 2026

Key deadlines

Verified September 9, 2026

Abstract registration

October 2, 2026

AoE

Full paper

October 9, 2026

AoE

Conference timeline

Submission and decisions

Abstract registrationKey deadline

October 2, 2026 · AoE

Full paperKey deadline

October 9, 2026 · AoE

Paper fit

Contribution paths

A strong submission should clearly identify its contribution and evaluate it appropriately.

Main Conference Paper

Full manuscripts presenting novel and impactful research in high performance computing in parallel and distributed processing, limited to 10 single-spaced double-column pages in IEEE conference style, including figures and tables. Must be submitted with an abstract by October 1, 2026, and full version by October 8, 2026.

Reproducibility Appendix

A mandatory appendix submitted after paper acceptance, describing the processes used to obtain computational results, with clear labeling of reproducible and non-reproducible results.

Workshop Paper

Papers submitted to individual workshops held during the conference, with separate submission deadlines typically after the main conference notification. Proceedings are distributed at the conference and submitted to IEEE Xplore.

Research areas in scope

01

Algorithms

Algorithms for computational and data science in parallel and distributed computing environmentsStructured and unstructured mesh and meshless methodsDense and sparse linear algebra computationsSpectral methodsN-body computationsClusteringData miningCompressionCombinatorial algorithms (graph and string algorithms)Algorithms for tightly or loosely coupled systemsCommunication, synchronization, power management, distributed resource management, distributed data and transactions, mobilityNovel algorithm designs and implementations for emerging architectures (ML/AI accelerators, quantum computing systems)
02

Applications

Real-world applications (combinatorial, scientific, engineering, data analysis, visualization) using parallel and distributed computingInnovations originating in target application areas for scalable implementationDesign, implementation, and evaluation of parallel and distributed applicationsImplementations targeting emerging architectures (ML/AI accelerators, quantum computing systems)Application domain advances enabled by ML/AI
03

Architecture

Existing and emerging architectures for high performance computingInstruction-level and thread-level parallelismManycore, multicore, accelerator, domain-specific, and special-purpose architectures (including ML/AI accelerators)Reconfigurable architecturesMemory technologies and hierarchiesVolatile and non-volatile emerging memory technologiesCo-design paradigms for processing-in-memory architecturesSolid-state devicesExascale system designsData center and warehouse-scale architecturesNovel big data architecturesNetwork and interconnect architecturesEmerging technologies for interconnectsParallel I/O and storage systemsPower-efficient and green computing systemsResilience, security, and dependable architecturesEmerging architectural principles for machine learning, approximate computing, quantum computing, neuromorphic, analog, and bio-inspired computing
04

Machine Learning and Artificial Intelligence (ML/AI)

ML/AI training on resource-limited platforms (e.g., edge platforms)Computational optimization methods for AI (pruning, quantization, knowledge distillation)Parallel and distributed learning algorithmsEnergy-efficient methods for ML/AIFederated learningAgentic AIDesign and implementation of ML/AI algorithms on parallel architectures (distributed memory, GPUs, tensor cores, emerging ML/AI accelerators)New ML/AI methods benefiting HPC applications or HPC system managementDesign and development of ML/AI software pipelines (frameworks for distributed training, integration of compression, compiler techniques, DSLs)ML/AI innovations best reviewed by ML/AI experts
05

Measurements, Modeling, and Experiments

Experiments and performance-oriented studies in parallel and distributed computingMetrics related to time, energy, power, accuracy, and resilienceMethods, experiments, and tools for measuring, evaluating, and analyzing performanceDesign and experimental evaluation of applications in simulation and analysisExperiments on novel commercial or research accelerators and architectures (quantum, neuromorphic, non-Von Neumann systems)Innovations in support of large-scale infrastructures and facilitiesExperiences and methods for allocating and managing system and facility resources
06

Programming Models, Compilers, and Runtime Systems

Design of parallel programming models and paradigmsLanguages and compilers supporting parallel modelsRuntime and middleware solutionsFrameworks targeting cloud and distributed systemsApplication frameworks for fault tolerance and resilienceSoftware supporting data management and scalable data analyticsRuntime systems for future novel computing platforms (quantum, neuromorphic, bio-inspired computing)Novel compiler techniques and frameworks leveraging machine learning methods
07

System Software

Storage and I/O systemsSystem software for resource management, job scheduling, and energy efficiencySystem software support for accelerators and heterogeneous HPC computing systemsInteractions between operating system, hardware, and other software layersSystem software for data managementSystem software solutions for ML/AI workloads (e.g., energy-efficient software methods)System software support for fault tolerance and resilienceContainers and virtual machinesSpecialized operating systems and related support for high-performance computingSystem software for future novel computing platforms (quantum, neuromorphic, bio-inspired computing)System software advances enabled by ML/AI

Policies worth checking twice

  • Submissions must be double-anonymous: no author names, affiliations, or identifying information in manuscripts.
  • Manuscripts must not exceed 10 single-spaced double-column pages (IEEE conference style) including figures and tables; references have no page limit.
  • No supplementary sections or appendices are allowed during submission.
  • Each author may submit a maximum of eight papers.
  • Submissions must not be under consideration for another conference, workshop, or journal; violation leads to administrative rejection.
  • Accepted papers must be presented in person at the conference.
  • Authors must submit a reproducibility appendix after acceptance.
  • arXiv preprints are allowed but must not breach anonymity; authors should not direct reviewers to arXiv versions.

Official sources

Compiled from the official call for papers. The organizers’ pages remain authoritative.

Last verified September 9, 2026