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Use cases

AI-Powered Chatbots

Enhance your AI-powered chatbots with CrateDB's robust vector store support, and real-time data analysis, enabling intelligent, personalized responses. 

Imagine instantly accessing the precise information you need, hidden within mountains of documents. Imagine asking complex questions and receiving concise, accurate answers based on your company's unique knowledge. This is the power of AI-driven knowledge assistants built with Retrieval Augmented Generation (RAG) pipelines. Check out the multiple resources below to learn more.

How to Build AI-driven Knowledge Assistants with a Vector Store, LLMs and RAG Pipelines

White Paper
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How to Build AI-driven Knowledge Assistants with a Vector Store, LLMs and RAG Pipelines

This white paper explores how CrateDB provides a scalable platform to build Generative AI applications that cover the requirements of modern applications, such as AI-driven knowledge assistants.

Success Story
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Digital Twins and Gen AI: How TGW Revolutionizes Warehouse Operations with CrateDB's Combination of Time Series, Documents, and Vectors

In this talk, TGW Logistics showcases their use of CrateDB to optimize distribution centers. With up to half a million items handled daily, they focus on automation and data-driven decisions.

Demo
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Building an AI Chatbot with CrateDB and LangChain

This video shows step by step how to build an AI-powered chatbot using LangChain to connect to the different LLMs and CrateDB to store embeddings and run similarity searches against them.

Video
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How to Use Private Data in Generative AI

This talk focuses on the synergistic combination of CrateDB and LangChain: it helps to get started with using private data as context for large language models through LangChain, incorporating the concept of Retrieval Augmented Generation (RAG). 

Ebook
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Unlocking the Power of Knowledge Assistants with CrateDB

As a cutting-edge real-time analytics database, CrateDB provides the foundation for building chatbots and knowledge assistants that are not only fast and reliable but also intelligent and scalable. 

Documentation
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Machine learning applications and frameworks which can be used together with CrateDB

Learn how to integrate CrateDB with machine learning frameworks and tools, for MLOps and Vector database operations.

Ready to unleash the power of AI-driven assistants?

FAQ

AI chatbots are applications or interfaces that engage in human-like conversations using natural language understanding (NLU), natural language processing (NLP), and machine learning (ML). These chatbots use conversational AI to communicate with users, though not all chatbots employ this technology. Databases such as CrateDB can enhance AI-powered chatbots by providing robust vector store support and real-time data analysis, enabling them to deliver intelligent and personalized responses.

AI chatbot needs a database to store chat information and relevant user metadata. This database is the chatbot's memory, organizing data to enable quick and accurate responses. AI applications benefit from flexible data modeling, so a database that supports various data structures is advantageous. Examples of databases suitable for AI-powered chatbots include CrateDB, MongoDB, MySQL, and Postgres. CrateDB offers support for multiple data formats within a single database and even within a single table, thanks to its dynamic data schema.

AI chatbots gather data from a variety of sources, including publicly available data, databases, websites, APIs, and structured knowledge bases. They also rely on real-time information and updates to provide accurate responses. CrateDB’s dynamic schema supports multiple data formats from various data sources seamlessly, including structured, unstructured, semi-structured, and binary data.

RAG Pipelines, short for Retrieval Augmented Generation Pipelines, are a crucial component of generative AI, that combines the vast knowledge of large language models (LLMs) with the specific context of your private data.

A RAG Pipeline works by breaking down your data (text, PDFs, images, etc.) into smaller chunks, creating a unique "fingerprint" for each chunk called an embedding, and storing these embeddings in a database. When you ask a question, the system identifies the most relevant chunks based on your query and feeds this information to the LLM, ensuring accurate and context-aware answers. They operate through a streamlined process involving data preparation, data retrieval, and response generation.

  1. Phase 1: Data Preparation
    During the data preparation phase, raw data such as text, audio, etc., is extracted and divided into smaller chunks. These chunks are then translated into embeddings and stored in a vector database. It is important to store the chunks and their metadata together with the embeddings in order to reference back to the actual source of information in the retrieval phase.

  2. Phase 2: Data Retrieval
    The retrieval phase is initiated by a user prompt or question. An embedding of this prompt is created and used to search for the most similar pieces of content in the vector database. The relevant data extracted from the source data is used as context, along with the original question, for the Large Language Model (LLM) to generate a response.


Retrieval augmented generation (RAG) Pipeline

While this is a simplified representation of the process, the real-world implementation involves more intricate steps. Questions such as how to properly chunk and extract information from sources like PDF files or documentation and how to define and measure relevance for re-ranking results are part of broader considerations.

A database is crucial for storing and efficiently retrieving the embeddings and associated data chunks.  It acts as the “memory” of your knowledge assistant, enabling lightning-fast access to relevant information when a user asks a question.

Without a database, searching for relevant information would be incredibly slow and inefficient, hindering the responsiveness and usefulness of your knowledge assistant.

As AI adoption continues to grow, the need for databases that can adapt to complex data landscapes becomes paramount. Leveraging a multi-model database capable of managing both structured, semi-structured, and unstructured data, is an ideal fit to serve as the foundation for data modelling and application development in AI/ML scenarios. It is an enabler of complex, contextual-rich, and real-time intelligent applications.