Matt Zeiler, founder and CEO of Clarifai, shares his expertise in retrieval augmented generation (RAG) and its journey from large language models. He discusses how RAG addresses data freshness and hallucinations, utilizing vector databases for dynamic information access. The conversation dives into the architecture and operational challenges of integrating RAG into AI systems. Matt emphasizes the rise of user-friendly AI tools that enable non-experts to create functional prototypes. Tune in for essential insights on the future trends of AI applications and RAG's practical implementations.
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Quick takeaways
Retrieval Augmented Generation (RAG) significantly improves large language models by enabling dynamic access to information, addressing issues of data staleness and hallucinations.
The evolution of neural networks and generative models over the past 15 years has enhanced AI's text generation capabilities, driven by increased data and computational power.
Transitioning AI from prototype to production requires careful attention to operational reliability, data management, and the creation of effective feedback loops.
Deep dives
The Evolution of Large Language Models
Large language models (LLMs) and generative AI are primarily based on neural network algorithms designed to mimic human cognitive processes. Over the past 15 years, these models have evolved in size and complexity, driven by increased data availability and computational power. This evolution allows them to exhibit advanced capabilities, such as generating coherent text and understanding context more effectively than ever before. The rapid advancements indicate that exploring the potential of these models will continue to grow, unlocking new possibilities in AI applications.
Understanding Retrieval Augmented Generation
Retrieval Augmented Generation (RAG) enhances the capabilities of LLMs by enabling them to access a larger and more dynamic corpus of information. Instead of being constrained by static training data, RAG allows models to pull relevant information from an external database based on context provided at the time of the query. This not only mitigates issues of outdated or inaccurate information but also helps prevent hallucinations in AI-generated content. RAG serves as a vital improvement mechanism for LLMs, ensuring they produce more accurate and relevant outputs.
The Role of Vector Databases in RAG
Vector databases play a crucial role in the architecture of RAG systems by efficiently storing and retrieving vector embeddings that represent different data types. These databases must facilitate dynamic querying and filtering of data based on user permissions and the needs of the retrieval task. A well-structured vector database can improve the overall latency of the RAG system, ensuring a smooth user experience while still managing large amounts of data. As the field of vector databases continues to expand, selecting a suitable one requires a careful assessment of features such as scalability, indexing techniques, and support for dimensionality reduction.
Challenges in Developing Production-Ready AI
Transitioning from prototype to production in AI development can be complex and involves numerous considerations, often underestimated by practitioners. Key challenges include maintaining operational reliability, ensuring proper data management, and implementing effective feedback loops for continuous learning. Companies often find themselves dedicating substantial resources to build and maintain a stack of tools, diverting attention from developing effective AI solutions. Addressing these issues requires robust engineering practices and an integrated platform that simplifies the deployment and management of AI systems.
The Future of AI: Trends and Predictions
The AI landscape is moving towards simplification and consolidation, aiming to streamline the numerous tools and components required for effective AI solutions. Multimodal models, which incorporate various data types, are expected to become standard as they allow for richer, more intelligent interactions akin to human learning. Additionally, as the complexities of managing generative AI evolve, users will increasingly prioritize ease of implementation and effective production use cases over being bogged down in technical intricacies. Ongoing advancements indicate that the focus will shift toward developing user-friendly interfaces and workflows, facilitating broader adoption of AI technologies.
Summary In this episode we're joined by Matt Zeiler, founder and CEO of Clarifai, as he dives into the technical aspects of retrieval augmented generation (RAG). From his journey into AI at the University of Toronto to founding one of the first deep learning AI companies, Matt shares his insights on the evolution of neural networks and generative models over the last 15 years. He explains how RAG addresses issues with large language models, including data staleness and hallucinations, by providing dynamic access to information through vector databases and embedding models. Throughout the conversation, Matt and host Tobias Macy discuss everything from architectural requirements to operational considerations, as well as the practical applications of RAG in industries like intelligence, healthcare, and finance. Tune in for a comprehensive look at RAG and its future trends in AI. Announcements
Hello and welcome to the AI Engineering Podcast, your guide to the fast-moving world of building scalable and maintainable AI systems
Your host is Tobias Macey and today I'm interviewing Matt Zeiler, Founder & CEO of Clarifai, about the technical aspects of RAG, including the architectural requirements, edge cases, and evolutionary characteristics
Interview
Introduction
How did you get involved in the area of data management?
Can you describe what RAG (Retrieval Augmented Generation) is?
What are the contexts in which you would want to use RAG?
What are the alternatives to RAG?
What are the architectural/technical components that are required for production grade RAG?
Getting a quick proof-of-concept working for RAG is fairly straightforward. What are the failures modes/edge cases that start to surface as you scale the usage and complexity?
The first step of building the corpus for RAG is to generate the embeddings. Can you talk through the planning and design process? (e.g. model selection for embeddings, storage capacity/latency, etc.)
How does the modality of the input/output affect this and downstream decisions? (e.g. text vs. image vs. audio, etc.)
What are the features of a vector store that are most critical for RAG?
The set of available generative models is expanding and changing at breakneck speed. What are the foundational aspects that you look for in selecting which model(s) to use for the output?
Vector databases have been gaining ground for search functionality, even without generative AI. What are some of the other ways that elements of RAG can be re-purposed?
What are the most interesting, innovative, or unexpected ways that you have seen RAG used?
What are the most interesting, unexpected, or challenging lessons that you have learned while working on RAG?
When is RAG the wrong choice?
What are the main trends that you are following for RAG and its component elements going forward?
From your perspective, what is the biggest barrier to adoption of machine learning today?
Closing Announcements
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