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Continuum Knowledge
  • Continuum
  • Data
    • Datasets
      • Pre Training Data
      • Types of Fine Tuning
      • Self Instruct Paper
      • Self-Alignment with Instruction Backtranslation
      • Systematic Evaluation of Instruction-Tuned Large Language Models on Open Datasets
      • Instruction Tuning
      • Instruction Fine Tuning - Alpagasus
      • Less is More For Alignment
      • Enhanced Supervised Fine Tuning
      • Visualising Data using t-SNE
      • UMAP: Uniform Manifold Approximation and Projection for Dimension Reduction
      • Training and Evaluation Datasets
      • What is perplexity?
  • MODELS
    • Foundation Models
      • The leaderboard
      • Foundation Models
      • LLama 2 - Analysis
      • Analysis of Llama 3
      • Llama 3.1 series
      • Google Gemini 1.5
      • Platypus: Quick, Cheap, and Powerful Refinement of LLMs
      • Mixtral of Experts
      • Mixture-of-Agents (MoA)
      • Phi 1.5
        • Refining the Art of AI Training: A Deep Dive into Phi 1.5's Innovative Approach
      • Phi 2.0
      • Phi-3 Technical Report
  • Training
    • The Fine Tuning Process
      • Why fine tune?
        • Does Fine-Tuning LLMs on New Knowledge Encourage Hallucinations?
        • Explanations in Fine Tuning
      • Tokenization
        • Tokenization Is More Than Compression
        • Tokenization - SentencePiece
        • Tokenization explore
        • Tokenizer Choice For LLM Training: Negligible or Crucial?
        • Getting the most out of your tokenizer for pre-training and domain adaptation
        • TokenMonster
      • Parameter Efficient Fine Tuning
        • P-Tuning
          • The Power of Scale for Parameter-Efficient Prompt Tuning
        • Prefix-Tuning: Optimizing Continuous Prompts for Generation
        • Harnessing the Power of PEFT: A Smarter Approach to Fine-tuning Pre-trained Models
        • What is Low-Rank Adaptation (LoRA) - explained by the inventor
        • Low Rank Adaptation (Lora)
        • Practical Tips for Fine-tuning LMs Using LoRA (Low-Rank Adaptation)
        • QLORA: Efficient Finetuning of Quantized LLMs
        • Bits and Bytes
        • The Magic behind Qlora
        • Practical Guide to LoRA: Tips and Tricks for Effective Model Adaptation
        • The quantization constant
        • QLORA: Efficient Finetuning of Quantized Language Models
        • QLORA and Fine-Tuning of Quantized Language Models (LMs)
        • ReLoRA: High-Rank Training Through Low-Rank Updates
        • SLoRA: Federated Parameter Efficient Fine-Tuning of Language Models
        • GaLora: Memory-Efficient LLM Training by Gradient Low-Rank Projection
      • Hyperparameters
        • Batch Size
        • Padding Tokens
        • Mixed precision training
        • FP8 Formats for Deep Learning
        • Floating Point Numbers
        • Batch Size and Model loss
        • Batch Normalisation
        • Rethinking Learning Rate Tuning in the Era of Language Models
        • Sample Packing
        • Gradient accumulation
        • A process for choosing the learning rate
        • Learning Rate Scheduler
        • Checkpoints
        • A Survey on Efficient Training of Transformers
        • Sequence Length Warmup
        • Understanding Training vs. Evaluation Data Splits
        • Cross-entropy loss
        • Weight Decay
        • Optimiser
        • Caching
      • Training Processes
        • Extending the context window
        • PyTorch Fully Sharded Data Parallel (FSDP)
        • Train Short, Test Long: Attention with Linear Biases Enables Input Length Extrapolation
        • YaRN: Efficient Context Window Extension of Large Language Models
        • Sliding Window Attention
        • LongRoPE
        • Reinforcement Learning
        • An introduction to reinforcement learning
        • Reinforcement Learning from Human Feedback (RLHF)
        • Direct Preference Optimization: Your Language Model is Secretly a Reward Model
  • INFERENCE
    • Why is inference important?
      • Grouped Query Attention
      • Key Value Cache
      • Flash Attention
      • Flash Attention 2
      • StreamingLLM
      • Paged Attention and vLLM
      • TensorRT-LLM
      • Torchscript
      • NVIDIA L40S GPU
      • Triton Inference Server - Introduction
      • Triton Inference Server
      • FiDO: Fusion-in-Decoder optimised for stronger performance and faster inference
      • Is PUE a useful measure of data centre performance?
      • SLORA
  • KNOWLEDGE
    • Vector Databases
      • A Comprehensive Survey on Vector Databases
      • Vector database management systems: Fundamental concepts, use-cases, and current challenges
      • Using the Output Embedding to Improve Language Models
      • Decoding Sentence-BERT
      • ColBERT: Efficient and Effective Passage Search via Contextualized Late Interaction over BERT
      • SimCSE: Simple Contrastive Learning of Sentence Embeddings
      • Questions Are All You Need to Train a Dense Passage Retriever
      • Improving Text Embeddings with Large Language Models
      • Massive Text Embedding Benchmark
      • RocketQAv2: A Joint Training Method for Dense Passage Retrieval and Passage Re-ranking
      • LLM2Vec: Large Language Models Are Secretly Powerful Text Encoders
      • Embedding and Fine-Tuning in Neural Language Models
      • Embedding Model Construction
      • Demystifying Embedding Spaces using Large Language Models
      • Fine-Tuning Llama for Multi-Stage Text Retrieval
      • Large Language Model Based Text Augmentation Enhanced Personality Detection Model
      • One Embedder, Any Task: Instruction-Finetuned Text Embeddings
      • Vector Databases are not the only solution
      • Knowledge Graphs
        • Harnessing Knowledge Graphs to Elevate AI: A Technical Exploration
        • Unifying Large Language Models and Knowledge Graphs: A Roadmap
      • Approximate Nearest Neighbor (ANN)
      • High Dimensional Data
      • Principal Component Analysis (PCA)
      • Vector Similarity Search - HNSW
      • FAISS (Facebook AI Similarity Search)
      • Unsupervised Dense Retrievers
    • Retrieval Augmented Generation
      • Retrieval-Augmented Generation for Large Language Models: A Survey
      • Fine-Tuning or Retrieval?
      • Revolutionising Information Retrieval: The Power of RAG in Language Models
      • A Survey on Retrieval-Augmented Text Generation
      • REALM: Retrieval-Augmented Language Model Pre-Training
      • Retrieve Anything To Augment Large Language Models
      • Generate Rather Than Retrieve: Large Language Models Are Strong Context Generators
      • Active Retrieval Augmented Generation
      • DSPy: LM Assertions: Enhancing Language Model Pipelines with Computational Constraints
      • DSPy: Compiling Declarative Language Model Calls
      • DSPy: In-Context Learning for Extreme Multi-Label Classification
      • Optimizing Instructions and Demonstrations for Multi-Stage Language Model Programs
      • HYDE: Revolutionising Search with Hypothetical Document Embeddings
      • Enhancing Recommender Systems with Large Language Model Reasoning Graphs
      • Retrieval Augmented Generation (RAG) versus fine tuning
      • RAFT: Adapting Language Model to Domain Specific RAG
      • Summarisation Methods and RAG
      • Lessons Learned on LLM RAG Solutions
      • Stanford: Retrieval Augmented Language Models
      • Overview of RAG Approaches with Vector Databases
      • Mastering Chunking in Retrieval-Augmented Generation (RAG) Systems
    • Semantic Routing
    • Resource Description Framework (RDF)
  • AGENTS
    • What is agency?
      • Rephrase and Respond: Let Large Language Models Ask Better Questions for Themselves
      • Types of Agents
      • The risk of AI agency
      • Understanding Personality in Large Language Models: A New Frontier in AI Psychology
      • AI Agents - Reasoning, Planning, and Tool Calling
      • Personality and Brand
      • Agent Interaction via APIs
      • Bridging Minds and Machines: The Legacy of Newell, Shaw, and Simon
      • A Survey on Language Model based Autonomous Agents
      • Large Language Models as Agents
      • AI Reasoning: A Deep Dive into Chain-of-Thought Prompting
      • Enhancing AI Reasoning with Self-Taught Reasoner (STaR)
      • Exploring the Frontier of AI: The "Tree of Thoughts" Framework
      • Toolformer: Revolutionising Language Models with API Integration - An Analysis
      • TaskMatrix.AI: Bridging Foundational AI Models with Specialised Systems for Enhanced Task Completion
      • Unleashing the Power of LLMs in API Integration: The Rise of Gorilla
      • Andrew Ng's presentation on AI agents
      • Making AI accessible with Andrej Karpathy and Stephanie Zhan
  • Regulation and Ethics
    • Regulation and Ethics
      • Privacy
      • Detecting AI Generated content
      • Navigating the IP Maze in AI: The Convergence of Blockchain, Web 3.0, and LLMs
      • Adverse Reactions to generative AI
      • Navigating the Ethical Minefield: The Challenge of Security in Large Language Models
      • Navigating the Uncharted Waters: The Risks of Autonomous AI in Military Decision-Making
  • DISRUPTION
    • Data Architecture
      • What is a data pipeline?
      • What is Reverse ETL?
      • Unstructured Data and Generatve AI
      • Resource Description Framework (RDF)
      • Integrating generative AI with the Semantic Web
    • Search
      • BM25 - Search Engine Ranking Function
      • BERT as a reranking engine
      • BERT and Google
      • Generative Engine Optimisation (GEO)
      • Billion-scale similarity search with GPUs
      • FOLLOWIR: Evaluating and Teaching Information Retrieval Models to Follow Instructions
      • Neural Collaborative Filtering
      • Federated Neural Collaborative Filtering
      • Latent Space versus Embedding Space
      • Improving Text Embeddings with Large Language Models
    • Recommendation Engines
      • On Interpretation and Measurement of Soft Attributes for Recommendation
      • A Survey on Large Language Models for Recommendation
      • Model driven recommendation systems
      • Recommender AI Agent: Integrating Large Language Models for Interactive Recommendations
      • Foundation Models for Recommender Systems
      • Exploring the Impact of Large Language Models on Recommender Systems: An Extensive Review
      • AI driven recommendations - harming autonomy?
    • Logging
      • A Taxonomy of Anomalies in Log Data
      • Deeplog
      • LogBERT: Log Anomaly Detection via BERT
      • Experience Report: Deep Learning-based System Log Analysis for Anomaly Detection
      • Log-based Anomaly Detection with Deep Learning: How Far Are We?
      • Deep Learning for Anomaly Detection in Log Data: A Survey
      • LogGPT
      • Adaptive Semantic Gate Networks (ASGNet) for log-based anomaly diagnosis
  • Infrastructure
    • The modern data centre
      • Enhancing Data Centre Efficiency: Strategies to Improve PUE
      • TCO of NVIDIA GPUs and falling barriers to entry
      • Maximising GPU Utilisation with Kubernetes and NVIDIA GPU Operator
      • Data Centres
      • Liquid Cooling
    • Servers and Chips
      • The NVIDIA H100 GPU
      • NVIDIA H100 NVL
      • Lambda Hyperplane 8-H100
      • NVIDIA DGX Servers
      • NVIDIA DGX-2
      • NVIDIA DGX H-100 System
      • NVLink Switch
      • Tensor Cores
      • NVIDIA Grace Hopper Superchip
      • NVIDIA Grace CPU Superchip
      • NVIDIA GB200 NVL72
      • Hopper versus Blackwell
      • HGX: High-Performance GPU Platforms
      • ARM Chips
      • ARM versus x86
      • RISC versus CISC
      • Introduction to RISC-V
    • Networking and Connectivity
      • Infiniband versus Ethernet
      • NVIDIA Quantum InfiniBand
      • PCIe (Peripheral Component Interconnect Express)
      • NVIDIA ConnectX InfiniBand adapters
      • NVMe (Non-Volatile Memory Express)
      • NVMe over Fabrics (NVMe-oF)
      • NVIDIA Spectrum-X
      • NVIDIA GPUDirect
      • Evaluating Modern GPU Interconnect
      • Scalable Hierarchical Aggregation and Reduction Protocol (SHARP)
      • Next-generation networking in AI environments
      • NVIDIA Collective Communications Library (NCCL)
    • Data and Memory
      • NVIDIA BlueField Data Processing Units (DPUs)
      • Remote Direct Memory Access (RDMA)
      • High Bandwidth Memory (HBM3)
      • Flash Memory
      • Model Requirements
      • Calculating GPU memory for serving LLMs
      • Transformer training costs
      • GPU Performance Optimisation
    • Libraries and Complements
      • NVIDIA Base Command
      • NVIDIA AI Enterprise
      • CUDA - NVIDIA GTC 2024 presentation
      • RAPIDs
      • RAFT
    • Vast Data Platform
      • Vast Datastore
      • Vast Database
      • Vast Data Engine
      • DASE (Disaggregated and Shared Everything)
      • Dremio and VAST Data
    • Storage
      • WEKA: A High-Performance Storage Solution for AI Workloads
      • Introduction to NVIDIA GPUDirect Storage (GDS)
        • GDS cuFile API
      • NVIDIA Magnum IO GPUDirect Storage (GDS)
      • Vectors in Memory
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Copyright Continuum Labs - 2023

On this page
  • Integration within the Broader Architecture of Computer Systems
  • History and Architecture
  • Relation to NVIDIA's Offerings and Products
  • Key Applications
  • Summary

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  1. Infrastructure
  2. Networking and Connectivity

NVMe over Fabrics (NVMe-oF)

A protocol that enables high-performance, low-latency access to shared storage resources over various network fabrics

NVMe over Fabrics (NVMe-oF) is a protocol specification that enables the use of NVMe commands and data transfers over various network fabrics, extending beyond the traditional PCIe bus.

It allows for high-performance, low-latency access to NVMe storage over a network, enabling efficient data sharing and improved resource utilisation in data centres.

Integration within the Broader Architecture of Computer Systems

NVMe-oF is integrated into the broader architecture of computer systems as a storage networking protocol.

It enables the separation of storage resources from compute resources, allowing for a more flexible and scalable architecture.

In an NVMe-oF setup, the NVMe-oF host (initiator) is typically a server or compute node that requires access to storage, while the NVMe-oF target is a storage system or device that provides the storage resources.

The NVMe-oF host and target communicate over a network fabric, such as Ethernet or InfiniBand, using the NVMe-oF protocol.

This allows for the creation of a distributed storage architecture, where multiple hosts can access shared storage resources over the network.

The NVMe-oF protocol is implemented in the host's operating system or as a software-defined storage solution, and it interacts with the host's applications and file systems to provide high-performance, low-latency access to the remote NVMe storage.

History and Architecture

NVMe-oF was developed as an extension to the NVMe protocol, which was initially designed for PCIe-based solid-state drives (SSDs).

The need for NVMe-oF arose from the desire to leverage the benefits of NVMe, such as low latency and high throughput, in networked storage environments.

The NVMe-oF specification defines a common architecture and command set for accessing NVMe storage over various network fabrics, including:

  1. RDMA (InfiniBand, RoCE, iWARP)

  2. Fibre Channel

  3. TCP

Understanding TCP/IP: The Backbone of Internet Communications

What is TCP/IP?

Transmission Control Protocol/Internet Protocol (TCP/IP) is a suite of communication protocols used to interconnect network devices on the internet. TCP/IP can also be used as a communications protocol in a private network (an intranet or an extranet).

How TCP/IP Works

TCP/IP provides end-to-end data communication specifying how data should be packetized, addressed, transmitted, routed, and received at the destination.

TCP/IP has become the foundational protocol suite for the internet, ensuring reliable communication and data integrity between diverse systems.

Components of TCP/IP

  1. TCP (Transmission Control Protocol)

    • Role: Ensures reliable delivery of data across a network.

    • Functionality: TCP provides error checking, guarantees the order of data delivery, and provides flow control and congestion control.

    • Process: Before transmitting data, TCP creates a connection between the source and destination. It divides data into manageable packets, sequences them, and ensures each packet is acknowledged upon receipt. If packets are missing or in error, TCP is responsible for retransmission.

  2. IP (Internet Protocol)

    • Role: Defines IP addresses and routes data packets.

    • Functionality: IP is responsible for addressing and routing packets of data so that they can travel across networks and arrive at the correct destination.

    • Process: Data packets include both the data being transmitted and the destination IP address, enabling routers to forward the packets along the path to the destination.

How They Work Together

  • Cooperation: TCP and IP operate together where IP handles the delivery of the packet and TCP ensures the reliability of the message being sent. IP takes care of the external aspect by routing the data to the correct machine, while TCP handles the internal management of ensuring the data is correctly received and assembled.

The TCP/IP Model

TCP/IP communication is based on a four-layer model.

Each layer in the TCP/IP model corresponds to one or more layers in the seven-layer Open Systems Interconnection (OSI) model proposed by the International Organisation for Standardisation (ISO).

  1. Link Layer: This layer includes the networking hardware and drivers that operate on the physical network connection.

  2. Internet Layer (IP): Handles the movement of packet across the network including the packet routing.

  3. Transport Layer (TCP): Ensures reliable transmission of data across the network.

  4. Application Layer: Contains all protocols that operate at a higher level, such as HTTP, FTP, etc.

Practical Applications of TCP/IP

  • Web Browsing: Uses HTTP or HTTPS protocols which rely on TCP/IP for data delivery.

  • Email: Protocols like SMTP, POP3, and IMAP use TCP/IP to send and receive mail.

  • File Transfers: Protocols like FTP and SFTP for sharing files over the internet utilize TCP/IP.

  • Streaming and Communication: Services like VoIP and video conferencing applications use TCP/IP to ensure data packets are correctly sequenced and error-free.

FAQs About TCP/IP

  • Is TCP/IP secure?

    • By itself, TCP/IP does not include robust security measures. Security protocols like HTTPS, SSL/TLS are built on top of TCP/IP to ensure data encryption and secure identification of network hosts.

  • What is my TCP/IP Address?

    • A TCP/IP address, commonly known as an IP address, can be discovered through your device's network settings, using command-line tools like ipconfig (Windows) or ifconfig (Unix/Linux), or by visiting websites that display your public IP.

  • Can I change my TCP/IP settings?

    • Yes, TCP/IP settings can be manually configured or automatically obtained through DHCP (Dynamic Host Configuration Protocol) in your device's network settings.

Understanding TCP/IP is important for networking professionals and is foundational for anyone working with internet-connected devices. It ensures that no matter the type of data or the devices involved, communication can occur reliably and efficiently across the globe.

The architecture consists of an NVMe-oF host (initiator) and an NVMe-oF target (storage device or subsystem).

The host communicates with the target using NVMe commands and data transfers, which are encapsulated and transmitted over the chosen network fabric.

Relation to NVIDIA's Offerings and Products

NVIDIA has been actively involved in the development and adoption of NVMe-oF for high-performance computing (HPC) and AI workloads.

NVIDIA's products and technologies that leverage or support NVMe-oF include:

NVIDIA Mellanox ConnectX SmartNICs: These network adapters support NVMe-oF over RDMA (RoCE) and TCP, enabling high-performance, low-latency access to networked NVMe storage.

NVIDIA GPUDirect Storage: This technology allows GPUs to directly access NVMe storage over the network using NVMe-oF, bypassing the CPU and reducing latency for GPU-intensive workloads.

NVIDIA Magnum IO: A suite of IO optimisation technologies that includes NVMe-oF support, enabling high-performance, scalable storage solutions for AI and data analytics workloads.

Key Applications

NVMe-oF is particularly relevant for applications and use cases that require high-performance, low-latency access to shared storage resources, such as:

High-Performance Computing (HPC)

In an HPC environment, NVMe-oF can be used to create a high-performance, distributed storage system that enables efficient data sharing among compute nodes.

For example, a scientific simulation application running on multiple compute nodes can access a shared NVMe-oF storage system to read input data and write output results, achieving high throughput and low latency.

NVMe-oF enables efficient data sharing and high-speed storage access for HPC clusters, improving overall system performance and scalability.

AI and Machine Learning

In AI and ML workloads, NVMe-oF can be used to create a fast, scalable storage infrastructure that can keep up with the demands of GPU-based compute servers.

For instance, an AI training platform can use NVMe-oF to store and access large datasets, enabling fast data loading and efficient data sharing among multiple GPU servers.

Distributed Databases and Data Analytics

NVMe-oF can be used to create a high-performance storage backend for distributed databases, such as Apache Cassandra or MongoDB.

By using NVMe-oF, the database can achieve low-latency access to data, enabling faster query processing and improved scalability. The distributed nature of NVMe-oF also allows for the creation of a resilient, highly available storage infrastructure for the database.

Summary

NVMe over Fabrics (NVMe-oF) is a technology that enables the creation of high-performance, scalable, and efficient storage architectures for modern data centres.

By extending the NVMe protocol over various network fabrics, NVMe-oF allows for the disaggregation of storage resources from compute resources, enabling flexible and cost-effective infrastructures that can adapt to the ever-changing needs of data-intensive applications.

With its low latency, high throughput, and support for a wide range of network fabrics, NVMe-oF is well-suited for demanding workloads in areas such as high-performance computing, artificial intelligence, and distributed databases.

As organisations continue to grapple with the challenges of managing and processing ever-growing volumes of data, NVMe-oF will play an increasingly critical role in enabling the next generation of storage and data management solutions.

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Last updated 11 months ago

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