This article details how to accelerate deep learning and LLM inference using Apache Spark, focusing on distributed inference strategies. It covers basic deployment with `predict_batch_udf`, advanced deployment with inference servers like NVIDIA Triton and vLLM, and deployment on cloud platforms like Databricks and Dataproc. It also provides guidance on resource management and configuration for optimal performance.
Running GenAI models is easy. Scaling them to thousands of users, not so much. This guide details avenues for scaling AI workloads from proofs of concept to production-ready deployments, covering API integration, on-prem deployment considerations, hardware requirements, and tools like vLLM and Nvidia NIMs.
This Splunk Lantern article outlines the steps to monitor Gen AI applications with Splunk Observability Cloud, covering setup with OpenTelemetry, NVIDIA GPU metrics, Python instrumentation, and OpenLIT integration to monitor GenAI applications built with technologies like Python, LLMs (OpenAI's GPT-4o, Anthropic's Claude 3.5 Haiku, Meta’s Llama), NVIDIA GPUs, Langchain, and vector databases (Pinecone, Chroma) using Splunk Observability Cloud. It outlines a six-step process:
1. **Access Splunk Observability Cloud:** Sign up for a free trial if needed.
2. **Deploy Splunk Distribution of OpenTelemetry Collector:** Use a Helm chart to install the collector in Kubernetes.
3. **Capture NVIDIA GPU Metrics:** Utilize the NVIDIA GPU Operator and Prometheus receiver in the OpenTelemetry Collector.
4. **Instrument Python Applications:** Use the Splunk Distribution of OpenTelemetry Python agent for automatic instrumentation and enable Always On Profiling.
5. **Enhance with OpenLIT:** Install and initialize OpenLIT to capture detailed trace data, including LLM calls and interactions with vector databases (with options to disable PII capture).
6. **Start Using the Data:** Leverage the collected metrics and traces, including features like Tag Spotlight, to identify and resolve performance issues (example given: OpenAI rate limits).
The article emphasizes OpenTelemetry's role in GenAI observability and highlights how Splunk Observability Cloud facilitates monitoring these complex applications, providing insights into performance, cost, and potential bottlenecks. It also points to resources for help and further information on specific aspects of the process.
1. **Access Splunk Observability Cloud:** Sign up for a free trial if needed.
2. **Deploy Splunk Distribution of OpenTelemetry Collector:** Use a Helm chart to install the collector in Kubernetes.
3. **Capture NVIDIA GPU Metrics:** Utilize the NVIDIA GPU Operator and Prometheus receiver in the OpenTelemetry Collector.
4. **Instrument Python Applications:** Use the Splunk Distribution of OpenTelemetry Python agent for automatic instrumentation and enable Always On Profiling.
5. **Enhance with OpenLIT:** Install and initialize OpenLIT to capture detailed trace data, including LLM calls and interactions with vector databases (with options to disable PII capture).
6. **Start Using the Data:** Leverage the collected metrics and traces, including features like Tag Spotlight, to identify and resolve performance issues (example given: OpenAI rate limits).
The article emphasizes OpenTelemetry's role in GenAI observability and highlights how Splunk Observability Cloud facilitates monitoring these complex applications, providing insights into performance, cost, and potential bottlenecks. It also points to resources for help and further information on specific aspects of the process.
NVIDIA DGX Spark is a desktop-friendly AI supercomputer powered by the NVIDIA GB10 Grace Blackwell Superchip, delivering 1000 AI TOPS of performance with 128GB of memory. It is designed for prototyping, fine-tuning, and inference of large AI models.
NVIDIA's Project Aether automates the qualification, testing, configuration, and optimization of Spark workloads for GPU acceleration, enabling enterprises to process data more efficiently and cost-effectively.
The article explores the concept of Large Language Model (LLM) red teaming, a practice where practitioners provide inputs to LLMs to test their boundaries and assess risks. It discusses the characteristics of LLM red teaming, including its manual, collaborative, and exploratory nature. The article also delves into the motivations behind red teaming, the strategies employed, and how the findings contribute to model security and safety.
The NVIDIA Jetson Orin Nano Super is highlighted as a compact, powerful computing solution for edge AI applications. It enables sophisticated AI capabilities at the edge, supporting large-scale inference tasks with the help of high-capacity storage solutions like the Solidigm 122.88TB SSD. This review explores its use in various applications including wildlife conservation, surveillance, and AI model distribution, emphasizing its potential in real-world deployments.
Build Agentic AI with NVIDIA NIM and NeMo. Explore optimized AI models, connect AI agents to data, and deploy anywhere with NVIDIA NIM microservices.
Learn how GPU acceleration can significantly speed up JSON processing in Apache Spark, reducing runtime and costs for enterprise data applications.
NVIDIA announces the Llama Nemotron family of agentic AI models, optimized for a range of tasks with high accuracy and compute efficiency, offering open licenses for enterprise use. These models leverage NVIDIA's techniques for simplifying AI agent development, integrating foundation models with capabilities in language understanding, decision-making, and reasoning. The article discusses the model's optimization, data alignment, and computational efficiency, emphasizing tools like NVIDIA NeMo for model customization and alignment.
