
Innovative data system architecture for LCLS-II upgrade, addressing high-throughput challenges with real-time analysis, fast feedback, and data reduction while preserving scientific content.

Explore multiscale dataflow computing for high-performance, energy-efficient systems. Learn about Maxeler's innovative approach, ecosystem, and applications in various industries.

Explore data-intensive science challenges, high-performance computing, and the role of programming languages like Julia in addressing big data and computational demands in scientific research.

Explore integrated simulation of fusion plasma using Whole Device Modeling. Learn about multi-physics models, code coupling, and exascale computing for advancing fusion research.

Explore high-throughput spectroscopy and materials discovery using advanced computational methods, workflows, and data analysis frameworks for accelerated insights in materials science.

Explore uncertainty quantification, exascale software ecosystems, and infrastructure resilience in this technical talk by Sarah Osborn at WiDS Livermore 2024.

Explore Earth System Prediction's evolution, from post-WWII insights to modern numerical forecasting. Learn about the critical gap in sub-seasonal to decadal decisions and the challenges of integrating diverse Earth System components.

Explore cutting-edge multi-physics simulations for stellar astrophysics at exascale computing levels, focusing on the ExaStar project and its applications in computational relativity.

Explore future exascale computing architectures and their applications in materials science, presented by Lawrence Livermore National Laboratory expert Erik Draeger at UCLA's IPAM.

Explore the Exascale Computing Project's legacy, including key outcomes in algorithm design, performance portability, and multidisciplinary collaboration for advanced computational science.

Explore AI technologies in the exascale era, examining their impact on computing's future and potential advancements in computational power and capabilities.

Explore genomic data analysis at scale, covering parallel algorithms, architectures, and programming models for efficient processing of large-scale genomic datasets on advanced computing systems.

Discover how to install, integrate, and utilize UnifyFS for efficient node-local storage access in high-performance computing environments.

Explore Berkeley Lab's journey from atomic age to supercomputing forefront. Discover exascale computing challenges, energy efficiency innovations, and future HPC directions with specialized hardware and chiplets.

Discover Oracle's next-gen Exadata Exascale cloud architecture, designed to meet AI, analytics, and mission-critical workload needs. Learn about its intelligent features, performance, and benefits for enterprises facing data challenges.

Discover how RDMA and malleable multilevel checkpointing can enhance HPC system reliability through iCheck framework, offering improved performance and efficient data transfer mechanisms for supercomputing applications.

Explore strategies for developing performance-portable scientific applications, focusing on QMCPACK's redesign for GPU and CPU compatibility in materials property prediction.

Explore the impact of El Capitan, LLNL's exascale supercomputer, on nuclear stockpile stewardship, fusion research, and AI. Learn about its software, partnerships, and facility upgrades.

Simplify scientific Python package installation in HPC environments with a new tool that reduces errors and enables sharing among users.

Explore HACC's evolution for exascale systems, new capabilities, and performance optimization in cosmology simulations.

Explore key insights and lessons learned from Exascale Computing Project applications development with Erik Draeger, deputy director of Application Development.