
Explore AI realities, efficient model training, and cutting-edge research with Jonathan Frankle. Gain insights on facial recognition, the lottery ticket hypothesis, and navigating AI hype.

Explore exascale computing, HPC architectures, and GPU programming with Dr. Meifeng Lin from Brookhaven National Laboratory.

Explore GPU computing and Krylov solvers for advanced numerical computations, enhancing problem-solving skills in high-performance computing environments.

Explore the journey to exascale computing in particle accelerator and laser-plasma modeling, featuring WarpX's development and the 2022 ACM Gordon Bell Prize.

Explore GPU-based electronic structure computations for exascale platforms using PROGRESS and BML libraries. Learn implementation strategies, performance optimization, and scaling techniques.

Explore modern Fortran's evolution, focusing on program design, parallelism, and interoperability. Discover how this 65-year-old language remains relevant for scientific simulations.

Explore asynchronous MPI communication with OpenMP tasks to improve parallel code scalability. Learn to integrate MPI detached communication for real asynchronous execution across processes.

Explore LLVM's impact on HPC, covering portable CUDA, debugging at scale, GPU execution of legacy code, and ML in compilers. Learn about efforts to enhance performance, tooling, and development in HPC.

Explore new C++23 Ranges library algorithms and their types, from C++98 to C++23. Gain insights into advanced programming techniques and language features for efficient coding.

Explore a decade of C++ performance portability challenges and solutions, focusing on Kokkos ecosystem development for efficient cross-platform scientific computing.

Explore modern C++ techniques to crack the Enigma code, comparing historical methods with contemporary computing power. Learn cryptography and parallel processing concepts.

Explore GPU acceleration and optimizations for cross-vendor graphics cards using Vulkan & Kompute. Learn to implement GPU-accelerated machine learning algorithms and leverage hardware capabilities for performance improvements.

Explore HPVM's approach to programming heterogeneous parallel systems, focusing on performance, ease of use, and retargetability across diverse hardware targets.

Explore advanced ML techniques for climate data processing, compression, and Earth virtualization, enhancing high-performance computing in climate science.

Explore heterogeneous multi-core systems for efficient embedded ML, addressing challenges in core optimization, workload mapping, and data sharing. Gain insights from KULeuven MICAS research.

Explore architectural trade-offs and challenges of deploying Kubernetes on bare metal infrastructure, focusing on node discovery, hardware management, and community-driven solutions using KOps.

Explore common challenges and solutions for managing device-enabled pods in Kubernetes, focusing on GPU allocation, network cards, and memory placement for AI/ML workloads.

Uncover how AI/ML drives Kubernetes networking evolution, exploring DRA and KNI implementations, hardware allocation for networking, and standardized API developments in this comprehensive technical overview.

Discover how NVIDIA manages GeForce NOW's massive GPU infrastructure using Kubernetes, exploring automated maintenance systems and self-healing operators that keep the game streaming platform running for millions of users.

Discover how to optimize AI/ML workloads on Kubernetes using distributed cache systems, achieving high-performance data access with 50+ GB/s throughput and sub-2ms latency for large-scale GPU clusters.

Discover how Bloomberg leverages Karmada to manage multi-cluster GPU workloads, optimize resource utilization, and streamline AI model training across data centers with intelligent scheduling and high availability.