
Explore advanced tessellation techniques using CUDA to overcome OpenGL limitations, enabling higher-order surfaces, custom UV coordinates, and trimming curves for improved visual quality in graphics rendering.

Exploring machine learning for atmospheric physics parameterization, focusing on cloud superparameterization emulation. Discusses challenges, strategies, and lessons learned in applying ML to climate modeling.

Explores advanced techniques for efficient large-scale language model training on GPU clusters, discussing parallelism methods, novel scheduling, and performance optimization to achieve unprecedented model sizes and training speeds.

Exploring Kubernetes' potential for ATLAS experiment computing, including batch processing, GPU resource management, and interactive analysis clusters for high-energy physics research.

Optimizing Kubernetes for GPU-powered machine learning in academia: architecture, challenges, and successes with NVIDIA DGX A100 machines, open-source integration, and research applications.

Explore Chapel, a programming language for efficient parallel computing across devices. Learn key features and applications in aerodynamics, data science, and atmospheric research.

Explore Docker's role in scaling machine learning across heterogeneous systems with multiple processors, including GPUs and AI accelerators. Learn about container benefits and future trends in multi-processor ML workloads.

Explore KServe's Multi-Model Serving solution for scalable machine learning deployment. Learn design, implementation, and benchmarks for efficient model serving across frameworks.

Explore the architecture and challenges of building a cloud-agnostic LLM serving platform on Kubernetes, including control plane, dataplane, and serverless inference using KEDA for auto-scaling.

Explore challenges and solutions for managing large-scale Kubernetes clusters on bare metal, focusing on security, GPU provisioning, and scalability for AI workloads at CoreWeave and Loft Labs.

Explore how IBM's Vela supercomputer uses MCAD to queue custom resources for large-scale AI training on Kubernetes, enabling flexible frameworks and fault tolerance across hundreds of GPUs.

Learn best practices for SRE teams supporting GPU-enabled Kubernetes clusters for HPC and AI workloads, including key metrics, monitoring tools, and operational strategies.

Explore challenges and best practices for training Large Language Models on Kubernetes, including optimization techniques, resource management, and benchmarks comparing K8s to bare metal environments.

Explore innovative solutions to GPU shortages using virtual Kubelets and distributed cloud technology, with practical demonstrations and expert insights.

Learn to run distributed TensorFlow on DC/OS, addressing challenges in large-scale machine learning. Explore framework design, live demo, and practical implementation for efficient model training on your infrastructure.

Explore how Bloomberg adapted Kubernetes for machine learning, addressing multi-tenancy, data security, and hardware acceleration in their AI-driven financial services platform.

Explore distributed deep learning on Apache Mesos, leveraging GPU clusters for efficient model training in self-driving cars, trip forecasting, and fraud detection at UBER.

Explore vector math, ray tracing, and creative engineering as Perspective's expression language is repurposed for 3D graphics, blending financial analysis with game engine concepts.

Explore efficient co-location of CPU and GPU workloads in Kubernetes, including QoS class creation, cgroup management, gang scheduling, and utilization evaluation for improved resource efficiency.

Explore building a multi-cloud ML platform using Kubernetes for autonomous vehicles, addressing data management, scheduling, and hardware support across diverse environments.

Scaling Machine Learning backend for 1M+ users: GPU-intensive computations, containerization on EC2, horizontal scaling, uniform API for ML microservices, and addressing production deployment challenges.