This is a summary of the book titled “Prompt Engineering for Generative AI - Future Proof inputs for reliable AI outputs” written by James Phoenix and Mike Taylor and published by O’Reilly in 2024. The authors are data scientists who explain that the varying results from queries to Large Language Models such as ChatGPT can be made more accurate, relevant and consistent with prompt engineering which focuses on how the inputs are worded so that users can truly harness the power of AI. With several examples, they teach the ins and outs of crafting text- and image-based prompts that will yield desirable outputs. LLMs, particularly those that are used in chatbots are trained on large datasets to output human like text and there are some principles to optimize the responses, namely, set clear expectations, structure your request, give specific examples, and assess the quality of responses. Specify context and experiment with different output formats to maximize the results. “LangChain” and “Autonomous agents” are two features of LLMs that can be tapped to get high quality responses. Diffusion models are effective for generating images from text. Image outputs for creative prompts can be further enhanced by training the model on specific tasks. Using the prompting principles mentioned in this book we can build an exhaustive content-writing AI.
Prompt engineering is a technique used by users to create prompts that guide AI models like ChatGPT to generate desired outputs. These prompts provide instructions in text, either to large language models (LLMs) or image-related diffusion AIs like Midjourney. Proper prompt engineering ensures valuable outputs, as generic inputs create varying outputs. Prompt engineering follows basic principles, such as providing clarity about the type of response, defining the general format, giving specific examples, and assessing the quality of responses. Large language models (LLMs) can learn from vast amounts of data, enabling the generation of coherent, context-sensitive, and human-sounding text. These models use advanced algorithms to understand the meaning in text and produce outputs that are often indistinguishable from human work. Tokens, created by Byte-pair Encoding (BPE), are used to compress linguistic units into tokens, which can be assigned numbers or vectors. LLM models are initially trained on massive amounts of data to instill a broad, flexible understanding of language, then fine-tuned to adapt to more specialized areas and tasks.
ChatGPT is a machine learning model that can generate text in various formats, such as lists, hierarchical structures, and more. To optimize its results, specify context and experiment with different output formats. To avoid issues with LLM outputs, try using alternative formats like JSON or YAML. Advanced LLMs like ChatGPT-4 can also make recommendations if the model's response is inadequate. Users can provide more context to the model to generate more accurate outputs.
LangChain, an open-source framework, can help address complex generative AI issues such as incorrect responses or hallucinations. It integrates LLMs into other applications and enables fluid interactions between models and data sources with retrieval, augmentation and generation enhancements. It allows developers to build applications like conversational agents, knowledge retrieval systems, and automated pipelines. As LLM applications grow, it's beneficial to use LangChain's prompt templates, which allow for validation, combination, and customization of prompts.
Large language models (LLMs) play a crucial role in AI evolution by addressing complex problems autonomously. They can use chain-of-thought reasoning (CoT) to break down complex problems into smaller parts, allowing for more efficient problem-solving. Agent-based architectures, where agents perceive their environment and act in pursuit of specific goals, are essential for creating useful applications. Diffusion models, such as DALL-E 3, Stable Diffusion, and Midjourney, are particularly effective in generating high-quality images from text inputs. These models are trained on massive internet data sets, allowing them to imitate most artistic styles. However, concerns about copyright infringement have been raised, but the images are not literal imitations of images or styles but are derived from patterns detected among a vast array of images. As AI image generation shifts, the focus will likely shift towards text-to-video and image-to-video generation.
AI image generation can be a creative process, with each model having its own unique idiosyncrasies. The first step is to specify the desired image format, which can be stock press photos or traditional oil paintings. AI models can replicate any known art style, but copyright issues should be considered. Midcentury allows users to reverse engineer a prompt from an image, allowing them to craft another image in the sample's style.
Stable Diffusion, an open-source image generation model, can be run for free and customized to suit specific needs. However, customization can be complicated and best done by advanced users. The web user interface AUTOMATIC1111 is particularly appealing for serious users, as it allows for higher resolution images with significant controls. DreamBooth can be used to fine-tune the model to understand unfamiliar ideas in training data.
To create an exhaustive content-writing AI, users should specify the appropriate writing tone and provide keywords. Blind prompting can make it difficult for the model to evaluate its own quality but providing at least one example can significantly improve the response quality.
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