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Enhancing AI-Driven Personal Knowledge Bases: Simplified Editing and Continuous Learning

2 days ago

Building an AI-driven personal knowledge base can significantly enhance how you manage and retrieve information, but it comes with challenges. Creating and organizing knowledge entries efficiently without disrupting your workflow is crucial, especially when aiming for a "Second Brain" to boost creativity. However, maintaining a neat and searchable knowledge base often requires diligent tagging and linking, which can be cumbersome and time-consuming. This article shares insights on how to use AI to streamline this process, specifically focusing on quick question answering and continuous improvement through user feedback. To tackle the issues of inaccurate categorization and summarization, the author developed a no-code workflow using Make, a platform that simplifies automation without requiring programming skills. The system integrates with Telegram, allowing users to send URLs to a bot. The bot then categorizes, summarizes, and saves the content to a database. However, initial AI-generated entries often require manual adjustments, which can be streamlined through the Telegram bot itself. Editing Entries via Messenger The first solution leverages a Telegram bot for quick and efficient edits. After an entry is created, the bot sends a message with the title, summary, and topics. If any part of the entry is incorrect, the user can tap on buttons like "Edit Topics," "Edit Title," or "Edit Summary." Each button initiates a short follow-up chat to receive the corrections. For instance, clicking "Edit Topics" allows the user to select and send the correct categories from a list, ensuring the entry is accurately categorized. In Make, these button clicks trigger specific callbacks (edit_topics, edit_title, or edit_summary) that are stored in a Data Store. A subsequent workflow module then uses this data to update the relevant fields in the database. This approach keeps the knowledge base organized and accessible, reducing the friction associated with manual corrections. Training the AI Classifier and Title Generator Manually correcting AI-generated entries provides valuable training data that can improve the AI’s performance over time. To mark an edit as a training sample, the author adds a #sample hashtag to the correction message. This hashtag sets a sample=TRUE flag in the database, indicating that the entry should be used to refine the AI’s categorization and title generation. The training process involves a few-shot learning technique, where the AI reviews previously marked samples to generate better outputs. The prompt includes a section for these samples, which are formatted as: ``` Sample #137 Title From Code to Prompts: The Software Shift Topics Artificial Intelligence;Software Development Input [Summary or raw content] ``` The AI uses these input-output pairs to learn and adjust its categorization and summarization algorithms. To optimize performance, the author recommends: - Loading only samples of the same entry type if known (e.g., 'web page' or 'YouTube video'). - Limiting the number of samples to six, as more can lead to diminishing returns and longer processing times. - Maintaining a balanced set of samples to avoid categorization biases. By following these guidelines, the AI gradually reduces the need for manual corrections, resulting in a more accurate and efficient knowledge base. While perfection is unlikely, the improvements can significantly enhance the usability of the system. Key No-code Platform Features Implementing complex AI-driven workflows effectively requires leveraging several advanced features in no-code platforms like Make: Temporary Data Storage: The Data Store module persists data between workflow runs, making it useful for maintaining state across multiple interactions. Unlike the Set Variable module, which only affects the current run, the Data Store can store and retrieve data as needed, enhancing workflow continuity and reliability. Aggregators and Iterators: These modules help manage and process data in bulk. The Text Aggregator combines text from multiple database rows into a single string, which is useful for constructing prompts. The Iterator performs operations on each item in an array, simplifying tasks like filtering and processing multiple entries. For example, using the Supabase / Make an API call module with an Iterator can filter and load specific types of entries, ensuring the AI receives relevant examples. Error Handlers: Robust error handling is essential for maintaining a reliable workflow. When a module fails, an error handler module is triggered, which can log errors, send notifications, or attempt alternative actions. For instance, if an HTTP request to scrape a web page fails, a backup module can try a different scraping method, and the Telegram bot can notify the user of any issues. Variables: Variables keep the workflow organized and flexible. Setting multiple variables at the beginning of a scenario ensures they are available throughout the entire flow. This practice reduces the risk of bugs and makes the workflow easier to maintain. Common uses include storing user preferences and system settings. Subscenarios: Subscenarios, reusable sequences of nodes, improve workflow maintainability by extracting common operations. This feature avoids duplication and centralizes updates, making the workflow more compact and understandable. For example, subscenarios can handle specific data processing tasks or API calls, enhancing the overall structure of the flow. No-Code: Limitations and Advantages While no-code platforms offer significant benefits, they also have limitations that can impact maintenance and scalability: Maintenance Challenges: Despite strong debugging tools, maintaining no-code workflows can be complex, especially for frequent updates. Version control is limited to exporting the workflow as a JSON file (Blueprint in Make), and finding and updating duplicate nodes can be time-consuming. Integration and Flexibility: One of the greatest strengths of no-code platforms is their ability to integrate with various systems easily. You can switch between tools with minimal effort, which is ideal for experimenting and finding the best fit. For example, changing from AssemblyAI to OpenAI Whisper for speech-to-text conversion is straightforward in Make. Cost: No-code platforms are generally more expensive for production-level solutions due to per-operation pricing. However, for personal projects with moderate usage, many platforms offer free tiers that can be surprisingly effective. The author runs their knowledge base workflow entirely for free using Make's free tier, which allows for 2 active scenarios and 1,000 operations per month. Conclusion from Industry Insiders and Company Profiles Industry experts highlight the growing importance of training data and the need for efficient knowledge management systems as AI technologies advance. Meta's investment in Scale AI underscores this trend, reflecting the company’s commitment to enhancing its AI capabilities and keeping pace with competitors like Google and OpenAI. No-code platforms are increasingly seen as viable tools for building and iterating on personal AI systems, offering a balance of ease and functionality. While they may not be the best choice for large-scale, critical applications, they excel in personal projects and MVPs, providing a low-barrier entry point for experimentation and learning. For individuals looking to build a knowledge-based digital twin, the flexibility and simplicity of no-code platforms are particularly appealing. These systems can grow with your needs, capturing and synthesizing your knowledge and expertise without the overhead of traditional coding. However, the cost and maintenance considerations are important factors to weigh as you scale your projects.

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