Ollama Embedding: How to Feed Data to AI for Better Response?
TLDRThe video introduces the concept of 'Ollama Embedding,' a method for enhancing the performance of language models by converting data from URLs into embeddings and storing them in a Vector database like Chroma DB. The process involves using the Nomic Embed Text model, which is noted for its higher context length and superior performance compared to Open AI embeddings. The video demonstrates how to set up a local AI model server that can run large language models on a user's machine, without incurring costs. The steps include splitting data into chunks, converting documents into embeddings, and performing retrieval-augmented generation (RAG) to obtain more relevant answers. The final application is showcased with a user interface created using Gradio, allowing users to input URLs and questions to receive context-based responses. The video concludes with a call to action for viewers to subscribe and stay updated for more content on Artificial Intelligence.
Takeaways
- 📈 **Ollama Embedding**: A method to enhance AI responses by creating applications with better performance through embedding technology.
- 🌐 **Data Ingestion**: The process involves ingesting data from URLs, converting it into embeddings, and storing it in a Vector database for efficient retrieval.
- 🔍 **Chroma DB**: Utilizes Chroma DB for storing embeddings and Nomic Embed Text model for higher context length, surpassing OpenAI's models.
- 📚 **Document Chunking**: Splits data into chunks with an overlap of 100 characters to manage the size and continuity of the data.
- 🔧 **RAG Application**: Develops a Retrieval-Augmented Generation (RAG) application that can run locally on a user's machine.
- 💻 **Local AI Model Server**: Ollama is described as a local AI model server allowing users to run large language models on their own machines.
- 🚀 **Performance**: The embedding process is noted to be fast, taking approximately 219 milliseconds.
- 📝 **User Interface**: The application includes a user interface built with Gradio, enabling users to input URLs and questions for the AI to process.
- 📺 **YouTube Channel**: The presenter regularly creates videos about Artificial Intelligence and encourages viewers to subscribe and stay updated.
- 🔗 **LangChain**: Utilizes LangChain for putting together the application components, including web-based loaders and chat prompt templates.
- 📝 **Code Execution**: Instructions are provided for running the application using Python, including the installation of necessary modules and execution of the `app.py` script.
- 🌟 **Local Deployment**: Emphasizes the excitement around creating an application that can run completely locally with zero cost.
Q & A
What is the main topic of the video?
-The main topic of the video is about using 'Ollama Embedding' to create a more performant language application by converting data from URLs into embeddings and storing them in a Vector database.
What is the purpose of using a Vector database?
-The purpose of using a Vector database is to store embeddings of data, which allows for efficient retrieval and processing of relevant data when a question is asked.
Which embedding model is mentioned in the video as superior to OpenAI's embedding models?
-The video mentions 'Nomic Embed Text' as an embedding model that has a higher context length and surpasses OpenAI's embedding models.
What is the role of the 'web-based loader' in the process?
-The 'web-based loader' is used to extract data from a list of URLs provided for the application.
How does the 'Character Text Splitter' contribute to the process?
-The 'Character Text Splitter' divides the data into chunks with a specified overlap, which is essential for creating embeddings that capture the context of the data.
What is the name of the local AI model server mentioned in the video?
-The local AI model server mentioned in the video is called 'Ollama'.
What is the purpose of the 'Prompt Template' in the RAG application?
-The 'Prompt Template' is used to structure the input to the language model, ensuring that the model receives the necessary context and question to generate a relevant answer.
How does the RAG (Retrieval-Augmented Generation) process improve the response?
-The RAG process improves the response by first retrieving relevant documents based on the question and then using those documents to generate a more contextually relevant answer.
What is the significance of the 'mLess Large Language Model' in the video?
-The 'mLess Large Language Model' is used to process the prompt and retrieve relevant information, contributing to the generation of a more accurate and contextually rich response.
What is the user interface tool used to interact with the application?
-The user interface tool used to interact with the application is Gradio.
How can users run the created RAG application?
-Users can run the RAG application locally on their machine by typing 'Python app.py' in the terminal, after ensuring that all necessary models and dependencies are installed.
What is the benefit of using the 'Ollama' platform?
-The 'Ollama' platform allows users to run and create large language models locally, providing a cost-effective solution that supports various operating systems like Mac OS, Linux, and Windows.
Outlines
🚀 Building a Local AI Application with Ollama Embeddings
The first paragraph introduces the concept of using Ollama embeddings to create a locally running AI application with improved performance. The process involves ingesting data from URLs, converting it into embeddings, and storing these in a Vector database. This setup allows for more relevant answers to be generated when questions are asked, leveraging a large language model. The speaker emphasizes the use of the Nomic embed text model for its higher context length and superior performance over OpenAI's models. The tutorial outlines steps to achieve this, including installing necessary packages, creating an app.py file, and defining the model and steps for data retrieval, splitting, conversion to embeddings, and storing in the database. The process concludes with invoking a chain for the Retrieval-Augmented Generation (RAG) application, which is claimed to run locally with zero cost.
💻 Adding a User Interface to the Local AI Application
The second paragraph demonstrates how to add a user interface to the previously discussed AI application using Gradio. The speaker modifies the code to include Gradio at the top and encapsulates the process within a function named 'process_input'. This function takes a list of URLs and a question as inputs, splits the URLs, and repeats the process of data handling as before. The interface is then launched, allowing the user to input URLs and questions to receive processed responses. The speaker provides a live example by entering a URL, asking a question about 'Ollama', and receiving an answer based on the provided context. The video concludes with an invitation for viewers to stay tuned for more similar content, and a call to like, share, and subscribe to the channel.
Mindmap
Keywords
💡Ollama Embedding
💡Vector Database
💡Nomic Embed Text
💡Large Language Model
💡Gradio
💡Web Based Loader
💡Character Text Splitter
💡Retriever
💡RAG (Retrieve and Generate)
💡Prompt Template
💡Local AI Model Server
Highlights
Ollama Embedding is a method to improve AI response by creating rag applications with better performance.
Data from URLs is ingested, converted to embeddings, and stored in a Vector database for efficient retrieval.
Chroma DB and Nomic Embed Text model are used for their higher context length and surpassing performance over Open AI embeddings.
A user interface is created using Gradio to interact with the AI system.
Nomic Embed Text is chosen for its superior performance in handling context.
LangChain is used to put all the pieces together for the AI application.
The process involves splitting data into chunks with an overlap of 100 characters.
Chroma DB is initialized to store the embeddings derived from the documents.
The model name 'Nomic Embed Text' is defined for the embeddings.
A retriever is used to fetch relevant documents when a question is asked.
Before and after RAG (Retrieval-Augmented Generation) comparisons are made to evaluate performance.
The Prompt is sent to the LLM (Large Language Model) for topic identification.
The RAG chain is created by combining the Prompt template and invoking the LLM with the question.
Ollama is a local AI model server that allows running large language models on personal machines.
The entire RAG application can run locally with zero cost.
The user interface is added to the application to make it more accessible.
Performance is monitored, with embedding taking approximately 219 milliseconds.
Ollama enables users to run and create large language models locally, supporting Mac OS, Linux, and Windows.
The video demonstrates the creation of a RAG application from data extraction to user interface integration.