Introduction to Large Language Models

Google Cloud
8 Apr 202416:10

Summary

TLDRThis video script offers an insightful exploration into large language models (LLMs), a subset of deep learning capable of pre-training and fine-tuning for specific tasks. The presenter, a Google Cloud engineer, explains the concept of LLMs, their use cases, the process of prompt tuning, and Google's AI development tools. The script delves into the benefits of using LLMs, including their adaptability, minimal training data requirements, and continuous performance improvement. Examples of LLM applications, such as question answering and sentiment analysis, illustrate their practical utility. The video also introduces Google's generative AI development tools, including AI Studio, Vertex AI, and Model Garden, highlighting their role in enhancing LLM capabilities and accessibility.

Takeaways

  • 🧠 Large Language Models (LLMs) are a subset of deep learning designed for pre-training on vast datasets and fine-tuning for specific tasks.
  • 🐢 The concept of pre-training and fine-tuning in LLMs is likened to training a dog with basic commands and then adding specialized training for specific roles.
  • πŸ“š LLMs are characterized by their large size, referring to both the extensive training data and the high number of parameters in the model.
  • πŸ”§ LLMs are 'general purpose', meaning they are trained to handle common language tasks across various industries before being fine-tuned for specific applications.
  • πŸ”‘ The benefits of LLMs include their versatility in handling multiple tasks, minimal requirement for field training data, and continuous performance improvement with more data and parameters.
  • 🌐 Generative AI, which includes LLMs, can produce new content like text, images, audio, and synthetic data, extending beyond traditional programming and neural networks.
  • πŸ“ˆ Google's release of Palm, a 540 billion parameter model, demonstrates the state-of-the-art performance in language tasks and the efficiency of the Pathways AI architecture.
  • πŸ€– The Transformer model, which includes an encoder and decoder, is fundamental to how LLMs process input sequences and generate relevant tasks.
  • πŸ› οΈ LLM development contrasts with traditional machine learning, requiring less expertise and training data, focusing instead on prompt design for natural language processing.
  • πŸ“Š Prompt design and engineering are crucial for optimizing LLM performance, with differences between creating task-specific prompts and improving system accuracy.
  • πŸ”„ There are three types of LLMs: generic, instruction-tuned, and dialogue-tuned, each requiring different prompting strategies to achieve optimal results.
  • πŸ”§ Google Cloud provides tools like Vertex AI, AI Platform, and generative AI Studio to help developers leverage and customize LLMs for various applications.

Q & A

  • What are large language models (LLMs)?

    -Large language models (LLMs) are a subset of deep learning that refers to large general-purpose language models that can be pre-trained and then fine-tuned for specific purposes.

  • How do large language models intersect with generative AI?

    -LLMs and generative AI intersect as they are both part of deep learning. Generative AI is a type of artificial intelligence that can produce new content including text, images, audio, and synthetic data.

  • What does 'pre-trained' and 'fine-tuned' mean in the context of large language models?

    -Pre-trained means that the model is initially trained for general purposes to solve common language problems. Fine-tuned refers to the process of tailoring the model to solve specific problems in different fields using a smaller dataset.

  • What are the two meanings indicated by the word 'large' in the context of LLMs?

    -The word 'large' indicates the enormous size of the training dataset and the high parameter count in machine learning, which are the memories and knowledge the machine learned from the model training.

  • Why are large language models considered 'general purpose'?

    -Large language models are considered 'general purpose' because they are trained to solve common language problems across various industries, making them versatile for different tasks.

  • What are the benefits of using large language models?

    -The benefits include the ability to use a single model for different tasks, requiring minimal field training data for specific problems, and continuous performance improvement as more data and parameters are added.

  • Can you provide an example of a large language model developed by Google?

    -An example is Palm, a 540 billion parameter model released by Google in April 2022, which achieves state-of-the-art performance across multiple language tasks.

  • What is a Transformer model in the context of LLMs?

    -A Transformer model is a type of neural network architecture that consists of an encoder and a decoder. The encoder encodes the input sequence and passes it to the decoder, which learns to decode the representations for a relevant task.

  • What is the difference between prompt design and prompt engineering in natural language processing?

    -Prompt design is the process of creating a prompt tailored to a specific task, while prompt engineering involves creating a prompt designed to improve performance, which may include using domain-specific knowledge or providing examples of desired output.

  • How does the development process of LLMs differ from traditional machine learning development?

    -LLM development requires thinking about prompt design rather than needing expertise, training examples, compute time, and hardware, making it more accessible for non-experts.

  • What are the three types of large language models mentioned in the script and how do they differ?

    -The three types are generic language models, instruction-tuned models, and dialogue-tuned models. Generic models predict the next word based on training data, instruction-tuned models predict responses to given instructions, and dialogue-tuned models are trained for conversational interactions.

  • What is Chain of Thought reasoning and why is it important for models?

    -Chain of Thought reasoning is the observation that models are better at getting the right answer when they first output text that explains the reason for the answer, which helps in improving the accuracy of the model's responses.

  • What are Parameter Efficient Tuning Methods (PETM) and how do they benefit LLMs?

    -PETM are methods for tuning a large language model on custom data without altering the base model. Instead, a small number of add-on layers are tuned, which can be swapped in and out at inference time, making the tuning process more efficient.

  • Can you explain the role of generative AI Studio in developing LLMs?

    -Generative AI Studio allows developers to quickly explore and customize generative AI models for their applications on Google Cloud, providing tools and resources to facilitate the creation and deployment of these models.

  • What is Vertex AI and how can it assist in building AI applications?

    -Vertex AI is a tool that helps developers build generative AI search and conversation applications for customers and employees with little or no coding and no prior machine learning experience.

  • What are the capabilities of the multimodal AI model Gemini?

    -Gemini is a multimodal AI model capable of analyzing images, understanding audio nuances, and interpreting programming code, allowing it to perform complex tasks that were previously impossible for AI.

Outlines

00:00

πŸ€– Introduction to Large Language Models (LLMs)

This paragraph introduces the concept of Large Language Models (LLMs), a subset of deep learning, and their intersection with generative AI. The speaker, a custom engineer at Google Cloud, aims to teach the audience everything about LLMs, including their definition, use cases, prompt tuning, and Google's AI development tools. LLMs are described as pre-trained, general-purpose language models that can be fine-tuned for specific tasks using smaller field data sets. The analogy of training a dog for everyday commands versus special service dog training illustrates the concept of pre-training and fine-tuning. The paragraph also touches on the three major features of LLMs: their large size in terms of training data and parameters, their general-purpose nature due to commonality in human language and resource restrictions, and the process of pre-training and fine-tuning.

05:02

πŸ” Benefits and Features of Large Language Models

The benefits of using LLMs are outlined, emphasizing their versatility for various tasks, minimal requirement for field training data, and continuous performance improvement. The example of Google's 540 billion parameter model, Palm, showcases state-of-the-art performance in multiple language tasks. Palm is a dense decoder-only Transformer model that leverages the new Pathways system for efficient training across multiple TPU V4 pods. The paragraph further explains the concept of Transformer models, which consist of an encoder and a decoder, and how they have evolved from traditional programming to neural networks and generative models. The speaker also compares LLM development with traditional machine learning development, highlighting the ease of use and reduced requirements for expertise and training examples in LLM development.

10:04

πŸ“ Use Cases and Prompt Design for LLMs

This section delves into the use cases of LLMs, particularly in question answering (QA), a subfield of natural language processing. It demonstrates how QA systems can answer a wide range of questions with minimal domain knowledge required due to the generative nature of LLMs. The speaker provides examples of a large language model chatbot, Gemini, answering various questions, illustrating the importance of prompt design and engineering in achieving accurate responses. The paragraph distinguishes between generic language models, instruction-tuned models, and dialogue-tuned models, each requiring different prompting strategies. It also introduces the concept of Chain of Thought reasoning, where models are more likely to provide correct answers when they first output explanatory text.

15:05

πŸ› οΈ Tuning and Tools for Enhancing LLMs

The final paragraph discusses methods for tuning LLMs to make them more reliable for specific tasks, such as sentiment analysis or occupancy analytics. It explains the process of adapting a model to a new domain by training it on new data, and the more resource-intensive process of fine-tuning, which involves retraining the model with a custom dataset. The paragraph introduces parameter-efficient tuning methods that allow for model tuning without altering the base model. It also highlights Google Cloud's offerings for enhancing LLMs, including Generative AI Studio for exploring and customizing models, Vertex AI for building AI applications without coding experience, and the Model Garden for continuous updates on new models. The speaker concludes by emphasizing the adaptability and scalability of Gemini, a multimodal AI model capable of analyzing various data types, and invites the audience to explore further AI topics in other videos.

Mindmap

Keywords

πŸ’‘Large Language Models (LLMs)

Large language models are advanced deep learning models designed to process and generate human-like text. In the video, LLMs are described as pre-trained models that can be fine-tuned for specific purposes, such as text classification, question answering, and document summarization. They are central to the theme of the video, which explains their capabilities and applications.

πŸ’‘Generative AI

Generative AI refers to artificial intelligence that can create new content, including text, images, audio, and synthetic data. The video highlights how generative AI intersects with LLMs, emphasizing their ability to produce diverse outputs based on vast amounts of training data. This concept is foundational to understanding the potential and versatility of LLMs.

πŸ’‘Pre-trained Models

Pre-trained models are those that have been initially trained on large datasets for general purposes before being fine-tuned for specific tasks. The video uses the analogy of training a dog to explain how pre-trained models can handle common language problems and later be adapted to specialized fields, illustrating the efficiency and scalability of LLMs.

πŸ’‘Fine-tuning

Fine-tuning is the process of adapting a pre-trained model to perform specific tasks by training it on smaller, task-specific datasets. In the video, fine-tuning is compared to providing specialized training to a service dog, highlighting its role in customizing LLMs for various applications, such as retail, finance, and entertainment.

πŸ’‘Transformer Model

A transformer model is a type of deep learning model used for processing sequences of data, such as text. The video explains that transformers consist of an encoder and a decoder, which work together to understand and generate language. This architecture underpins many LLMs, including Google's Pathways Language Model (PaLM).

πŸ’‘Prompt Design

Prompt design involves creating clear, concise, and informative prompts to guide the outputs of language models. The video emphasizes the importance of prompt design in achieving accurate and relevant results from LLMs, especially in tasks like question answering and text generation. It is a crucial aspect of natural language processing.

πŸ’‘Parameter Count

Parameter count refers to the number of parameters, or learnable components, in a machine learning model. The video explains that large language models have billions of parameters, which contribute to their ability to handle complex language tasks. This concept is linked to the 'large' in LLMs, indicating their extensive capacity for learning.

πŸ’‘Zero-shot Learning

Zero-shot learning is a scenario where a model can recognize and perform tasks it was not explicitly trained on. The video discusses how LLMs can handle zero-shot learning, meaning they can generate accurate responses to new tasks without additional training, demonstrating the versatility and robustness of these models.

πŸ’‘Generative AI Studio

Generative AI Studio is a tool provided by Google Cloud to help developers explore and customize generative AI models. The video describes it as part of the resources available for leveraging LLMs, highlighting its role in making AI more accessible and easier to integrate into applications. This tool supports the theme of democratizing AI technology.

πŸ’‘Pathways Language Model (PaLM)

Pathways Language Model (PaLM) is a state-of-the-art LLM developed by Google, featuring 540 billion parameters. The video mentions PaLM as an example of a highly advanced model that achieves superior performance across multiple language tasks. It illustrates the cutting-edge capabilities of LLMs and their continuous improvement with more data and parameters.

Highlights

Introduction to Large Language Models (LLMs) and their significance in the field of AI.

LLMs are a subset of deep learning, intersecting with generative AI to produce new content types.

Definition of LLMs as large, general-purpose language models that are pre-trained and fine-tuned for specific tasks.

Explanation of the terms 'pre-trained' and 'fine-tuned' using the analogy of training a dog for special service.

Major features of LLMs including the size of training data sets and parameter count in machine learning.

The concept of 'general purpose' in LLMs and its relation to common language tasks and resource restrictions.

Benefits of using LLMs such as versatility across different tasks and minimal field training data requirements.

Performance improvement of LLMs with the addition of more data and parameters, exemplified by Google's release of Palm.

Description of Palm as a 540 billion parameter model leveraging the new pathway system for efficient training.

Introduction to the Transformer model architecture consisting of an encoder and a decoder in LLMs.

Comparison between traditional programming, neural networks, and the generative capabilities of LLMs.

Demonstration of LLMs' ability to generate content through examples of question answering and text generation.

Differences between LLM development and traditional machine learning development in terms of expertise and requirements.

Examples of how prompt design and prompt engineering improve the performance of LLMs in natural language processing.

Types of LLMs: generic, instruction-tuned, and dialogue-tuned, and their specific prompting needs.

Importance of Chain of Thought reasoning in improving the accuracy of LLMs' responses.

Practical limitations of LLMs and how task-specific tuning can enhance their reliability.

Google Cloud's tools for enhancing LLMs, including Generative AI Studio, Vertex AI, and Model Garden.

Introduction to Gemini, a multimodal AI model capable of analyzing images, audio, and programming code.

Conclusion summarizing the knowledge imparted about LLMs and their practical applications in AI.

Transcripts

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[Music]

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how's it going I'm M today I'm going to

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be talking about large language models

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don't know what those are me either just

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kidding I actually know what I'm talking

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about I'm a custom engineer here at

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Google cloud and today I'm going to

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teach you everything you need to know

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about llms that's short for large

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language models in this course you're

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going to learn to Define large language

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models describe llm use cases explain

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prompt tuning and describe Google's

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generative AI development tools let's

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get into it large language models or

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llms are a subset of deep learning to

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find out more about deep learning check

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out our introduction to generative AI

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course video llms and generative AI

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intersect and they are both a part of

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deep learning another area of AI you may

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be hearing a lot about is generative AI

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this is a type of artificial

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intelligence that can produce new

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content including text images audio and

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synthetic data all right back to llms so

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what are large language models large

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language models refer to large general

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purpose language models that can be

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pre-trained and then fine-tuned for

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specific purposes what do pre-trained

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and fine-tuned mean great questions

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let's dive in Imagine training a dog

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often you train your dog basic commands

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such as sit come down and stay these

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commands are normally sufficient for

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everyday life and help your dog become a

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good Canan citizen good boy

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but if you need special service dogs

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such as a police dog a guide dog or a

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hunting dog you add special trainings

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right the similar idea applies to large

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language models these models are trained

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for general purposes to solve common

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language problems such as text

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classification question answering

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document summarization and text

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generation across Industries the models

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can then be tailored to solve specific

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problems in different fields such as

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Retail Finance and entertainment using a

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relatively small size of field data sets

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so now that you've got that down let's

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further break down the concept into

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three major features of large language

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models we'll start with the word large

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large indicates two meanings first is

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the enormous size of the training data

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set sometimes at the pedy scale second

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it refers to the parameter count in

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machine learning parameters are often

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called hyperparameters parameters are

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basically the memories and the knowledge

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the machine learned from the model

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training parameters Define the skill of

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model in solving a problem such as

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predicting text so that's why we use the

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word large what about general purpose

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general purpose is when the models are

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sufficient to solve common problems two

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reasons led to this idea first is the

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commonality of human language regardless

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of the specific tasks and second is the

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resource restriction only certain

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organizations have the capability to

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train such large language models with

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huge data sets and a tremendous number

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of parameters how about letting them

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create fundamental language models for

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others to use so this leaves us with our

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last terms pre-trained and fine-tuned

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which mean to pre-train a large language

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model for a general purpose with a large

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data set and then find tune it with

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specific aims with a much smaller data

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set so now that we've nailed down the

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definition of what large language models

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llms are we can move on to describing

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llm use cases the benefits of using

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large language models are

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straightforward first a single model can

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be used for different tasks this is a

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dream come true these large language

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models that are trained with pedabytes

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of data and generate billions of

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parameters are smart enough to solve

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different tasks including language

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translation sentence completion text

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classification question answering and

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more second large language models

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require minimal field training data when

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you tailor them to solve your specific

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problem large language models obtain

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decent performance even with little

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domain training data in other words they

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can be used for f shot or even zero shot

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scenarios in machine learning f shot

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refers to training a model with minimal

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data and zero shot implies that a model

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can recognize things that have not

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explicitly been taught in the training

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before third the performance of large

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language models is continuously growing

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when you add more data and parameters

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let's take Palm as an example in April

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2022 Google released pump short for a

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Pathways language model a 540 billion

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parameter model model that achieves a

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state-of-the-art performance across

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multiple language tasks pal is a dense

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decoder only Transformer model it

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leverages the new pathway system which

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enabled Google to efficiently train a

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single model across multiple TPU V4 pods

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pathway is a new AI architecture that

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will handle many tasks at once learn new

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tasks quickly and reflect a better

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understanding of the world the system

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enables Palm to orchestrate distributed

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computation for accelerators but I'm get

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ahead of myself I previously mentioned

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that pal is a Transformer model let me

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explain what that means a Transformer

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model consists of encoder and a decoder

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the encoder encodes the input sequence

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and passes it to the decoder which

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learns how to decode the representations

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for a relevant task we've come a long

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way from traditional programming to

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neuron networks to generative models in

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traditional programming we used to have

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to hardcode the rules for distinguishing

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a cat type animal legs four ears to fur

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yes likes yarn and catnip in the wave of

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neural networks we could give the

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network pictures of cats and dogs and

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ask is this a cat and they would predict

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a cat what's really cool is that in the

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generative wave we as users can generate

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our own content whether it be text

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images audio video or more for example

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models like pal or Pathways language

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model or Lambda language model for

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dialogue applications ingest very very

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large data from multiple sources across

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the internet and built Foundation

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language models we can use simply by

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asking a question whether typing it into

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a prompt or verly talking into the

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prompt itself so when you ask it what's

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a cat it can give you everything it has

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learned about a cat let's compare llm

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development using pre-trained models

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with traditional ml development first

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with llm development you don't need to

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be an expert you don't need training

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examples and there is no need to train a

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model

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all you need to do is think about prompt

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design which is a process of creating a

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prompt that is clear concise and

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informative it is an important part of

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natural language processing or NLP for

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short in traditional machine learning

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you need expertise training examples

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compute time and Hardware that's a lot

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more requirements than llm development

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let's take a look at an example of a

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text generation use case to really drive

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the point home question answering or QA

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is a subfield of natural language

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processing that deals with the task of

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automatically answering questions posed

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in natural language QA systems are

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typically trained on a large amount of

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text and code and they are able to

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answer a wide range of questions

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including factual definitional and

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opinion-based

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questions the key here is that you

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needed domain knowledge to develop these

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question answering models let's make

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this clear with the real world example

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domain knowledge is required to develop

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a question answering model for customer

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it support or healthare care or supply

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chain but using generative QA the model

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generates free text directly based on

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the context there's no need for domain

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knowledge let me show you a few more

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examples of how cool this is let's look

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at three questions given to Gemini a

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large language model chatbot developed

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by Google AI question one this year's

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sales are

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$100,000 expenses are

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$60,000 how much is net profit Gemini

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first shares how net profit is

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calculated then performs the calculation

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then Gemini provides the definition of

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net profit here's another question

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inventory on hand is 6,000 units a new

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order requires 8,000 units how many

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units do I need to fill to complete the

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order again Gemini answers the question

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by performing the

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calculation and our last example we have

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1,000 sensors in 10 geographic regions

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how many sensors do we have on average

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in each region Gemini answers the

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question with an example on how to solve

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the problem and some additional context

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so how is that in each of our questions

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a desired response was obtained this is

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due to prompt design fancy prompt design

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and prompt engineering are two closely

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related Concepts in natural language

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processing both involve the process of

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creating a prompt that is clear concise

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and informative but there are some key

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differences between the two prompt

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design is the process of creating a

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prompt that is tailored to the specific

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task that the system is being asked

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perform for example if the system is

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being asked to translate a text from

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English to French The Prompt should be

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written in English and should specify

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that the translation should be in French

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prompt engineering is a process of

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creating a prompt that is designed to

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improve performance this may involve

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using domain specific knowledge

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providing examples of the desired output

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or using keywords that are known to be

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effective for the specific system in

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general prompt design is a more General

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concept while prompt engineering is a

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more specialized concept

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prompt design is essential while prompt

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engineering is only necessary for

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systems that require a high degree of

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accuracy or performance there are three

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kinds of large language models generic

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language models instruction tuned and

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dialogue tuned each needs prompting in a

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different way let's start with generic

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language models generic language models

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predict the next word based on the

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language in the training data here is a

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generic language model in this example

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the cat sat on the next word should Beth

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and you can see thatth is most likely

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the next word think of this model type

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as an autocomplete in search next we

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have instruction tuned models this type

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of model is trained to predict a

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response to the instructions given in

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the input for example summarize a text

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of X generate a poem in the style of X

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give me a list of keywords based on

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semantic similarity for X in this

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example classify text into neutral

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negative or positive and finally we have

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dialog tuned models this model is

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trained to have a dialogue by the next

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response dialogue tune models are a

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special case of instruction tuned where

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requests are typically framed as

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questions to a chat bot dialogue tuning

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is expected to be in the context of a

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longer back and forth conversation and

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typically works better with natural

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question like phrasings Chain of Thought

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reasoning is observation that models are

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better at getting the right answer when

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they first output text that explains the

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reason for the answer let's look at the

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question Roger has five tennis balls he

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buys two more cans of tennis balls each

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can has three tennis balls how many

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tennis balls does he have now this

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question is posed initially with no

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response the model is less likely to get

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the correct answer

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directly however by the time the second

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question is asked the output is more

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likely to end with the correct answer

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but there is a catch there's always a

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catch a model that can do everything has

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practical

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limitations but task specific tuning can

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make llms more reliable vertex AI

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provides task specific Foundation models

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let's get into how you can tune with

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some real world examples let's say you

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have a use case where you need to gather

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how your customers are feeling about

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your product or service you can use a

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sentiment analysis task model same for

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Vision tasks if you need to perform

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occupancy analytics there is a task

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specific model for your use case tuning

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a model enables you to customize the

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model response based on examples of the

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tasks that you want the model to perform

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it is essentially the process of

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adapting a model to a new domain or a

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set of custom use cases by training the

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model on new data for example we may

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collect training data and tune the model

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specifically for the legal or medical

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domain you can also further tune the

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model by fine-tuning where you bring

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your own data set and retrain the model

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by tuning every weight in the llm this

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requires a big training job and hosting

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your own fine-tuned model here's an

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example of a Medical Foundation model

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trained on Healthcare data the tasks

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include question answering image

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analysis finding similar patients Etc

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fine tuning is expensive and not

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realistic in many cases so are there

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more efficient methods of tuning yes

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parameter efficient tuning methods petm

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are methods for tuning a large language

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model on your own custom data without

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duplicating the model the base model

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itself is not altered instead a small

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number of add-on layers are tuned which

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can be swapped in and out at inference

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time I'm going to tell you about three

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other ways Google Cloud can help you get

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more out of your llms the first is

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generative a studio generative AI Studio

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lets you quickly explore and customize

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generative AI models that you can

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leverage in your applications on Google

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Cloud generative AI Studio helps

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developers create and deploy generative

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AI models by providing a variety of

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tools and resources that make it easy to

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get started for example there is a

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library of pre-trained models a tool for

play13:47

fine-tuning models a tool for deploying

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models to production and a community

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forum for developers to share ideas and

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collaborate next we have verx ai which

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is particularly helpful for those you

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who don't have much coding experience

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you can build generative AI search and

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conversations for customers and

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employees with verx AI search and

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conversation formerly gen app builder

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build with little or no coding and no

play14:14

prior machine learning experience RX AI

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can help you create your own chat Bots

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digital assistants custom search engines

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knowledge bases training applications

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and more and lastly we have pom APR pom

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APR lets you test and experiment with

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Google's large language models and J

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tools to make prototyping quick and more

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accessible developers can integrate

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palom API with maker suite and use it to

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access the API using a graphical user

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interface the suite includes a number of

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different tools such as a model training

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tool a model deployment tool and a model

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monitoring tool and what do these tools

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do I'm so glad you asked the model

play14:54

training tool helps developers train

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machine learning models on their dat

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data using different algorithms the

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model deployment tool helps developers

play15:03

deploy machine learning models to

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production with a number of different

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deployment options the model monitoring

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tool helps developers monitor the

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performance of their machine learning

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models in production using a dashboard

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and a number of different

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metrics Gemini is a multimodal AI model

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unlike traditional language models it's

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not limited to understanding text alone

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it can analyze images understand the

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nuances of audio and even interpret

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programming code this allows Gemini to

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perform complex tasks that were

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previously impossible for AI due to its

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Advanced architecture Gemini is

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incredibly adaptable and scalable making

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it suitable for diverse applications

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model Garden is continuously updated to

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include new models see I told you way

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back in the beginning of this video that

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I knew what I was talking about when it

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came to large language models and now

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you do too thank you for watching our

play15:57

course and make sure check out our other

play15:59

videos if you want to learn more about

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how you can use

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[Music]

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AI

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