DeepNeuralAI

How to Build a Generative Search Engine for Your Local Files Using Llama 3 #HowtoBuildaGenerativeSearchEngineforYourLocalFilesUsingLlama3 #AI #Future #Learning #Building  #Llama3

WHAT IS PROMPT ENGINEERING AND ITS CAPABILITIES? #AI #WHATISPROMPTENGINEERINGANDITSCAPABILITIES #PROMPTENGINEERING  #Future #LearningAI 

Steps for Developing Efficient Large Language Model (LLM) Applications #AI #StepsforDevelopingEfficientLargeLanguageModel(LLM)Applications #LLMAPPLICATION #learning

Microsoft’s AI Model Phi-3 beats Meta’s Llama 3 #AI #Phi-3  #Llama3  #Microsoft’sAIModel #Future

Introducing CriticGPT: OpenAI’s New AI Model for Error-Free Code Generation #CriticGPT #AI  #Errorsolving #Future #LearningAI

Introducing CriticGPT: OpenAI’s New AI Model for Error-Free Code Generation In a groundbreaking development, OpenAI has unveiled CriticGPT, an innovative AI model designed to enhance the accuracy and reliability of code generated by ChatGPT. This new model, based on the powerful GPT-4 architecture, aims to identify and rectify errors in the code output, ensuring higher precision and reducing the need for extensive human intervention. The Evolution of ChatGPT Since its inception, ChatGPT has been a game-changer in natural language processing, assisting developers, writers, and enthusiasts in generating human-like text. However, despite its remarkable capabilities, it has faced challenges in producing flawless code. While ChatGPT can generate complex code snippets, it sometimes outputs code with errors, necessitating manual review and correction. Enter CriticGPT: The AI Code Reviewer CriticGPT emerges as a solution to this problem. Leveraging the advanced features of GPT-4, CriticGPT is specifically trained to scrutinize and critique code generated by ChatGPT. Its primary function is to catch syntactical, logical, and semantic errors, providing real-time feedback and corrections. This innovation is set to revolutionize the way developers interact with AI-generated code, offering a more streamlined and efficient coding experience. How CriticGPT Works CriticGPT operates as an AI code reviewer integrated into the existing ChatGPT framework. When a user requests code generation, CriticGPT simultaneously reviews the output, flagging potential errors and suggesting corrections. This dual-layer approach not only enhances the accuracy of the code but also educates users on common pitfalls and best practices in programming. Benefits of CriticGPT 1. Increased Accuracy: By identifying errors in real-time, CriticGPT significantly improves the accuracy of AI-generated code. 2. Time Efficiency: Developers save time by reducing the need for extensive manual debugging and corrections. 3. Enhanced Learning: Users gain insights into error patterns and coding best practices, fostering a better understanding of programming concepts. 4. Seamless Integration: CriticGPT integrates smoothly with ChatGPT, providing a cohesive user experience without additional complexity. The Future of AI in Coding The introduction of CriticGPT marks a significant milestone in the evolution of AI-assisted coding. As AI technology continues to advance, we can expect even more sophisticated tools designed to augment human capabilities and streamline workflows. OpenAI’s commitment to innovation and excellence ensures that both novice and experienced developers can benefit from these cutting-edge advancements. #CriticGPT #AI #Errorsolving #Future #LearningAI

1. Data Acquisition • Purpose: Collecting data relevant to the problem you want to solve. • Sources: Databases, online sources, sensors, user interactions, etc. • Steps: • Collection: Gather raw data. • Cleaning: Remove duplicates, handle missing values, and correct errors. • Transformation: Convert data into a suitable format (e.g., normalizing values, encoding categorical data). • Storage: Save processed data in databases or data lakes. 2. Model Selection • Purpose: Choosing the most suitable algorithm or model for your problem. • Considerations: • Problem Type: Classification (e.g., spam detection), regression (e.g., price prediction), clustering (e.g., customer segmentation), etc. • Data Nature: Structured (tables, databases) vs. unstructured (text, images). • Performance: Speed, accuracy, scalability, interpretability. • Steps: • Exploration: Experiment with different models. • Comparison: Evaluate models based on criteria such as accuracy, computational efficiency, and robustness. 3. Training • Purpose: Teaching the model to make accurate predictions by learning from the data. • Steps: • Data Splitting: Divide data into training and validation sets. •Parameter Tuning: Adjust model parameters (hyperparameters) to optimize performance. •Learning: The model adjusts its internal parameters (weights) to minimize the error between its predictions and actual outcomes. • Iteration: Repeat the process until the model achieves a satisfactory level of accuracy. 4. Evaluation • Purpose: Assessing how well the model performs on unseen data. Metrics: • Accuracy: The proportion of correct predictions. • Precision and Recall: Measures for classification tasks. •F1-Score: Harmonic mean of precision and recall. • Mean Squared Error (MSE): Common for regression tasks. Steps: • Validation: Test the model on the validation set. • Performance Measurement: Calculate evaluation metrics. • Comparison: Compare performance against baseline models or benchmarks. • Adjustment: Fine-tune the model based on evaluation results. 5. Deployment • Purpose: Integrating the trained model into a real-world application. Steps: • Integration: Embed the model into software applications, websites, or systems. • Scaling: Ensure the model can handle the expected load (e.g., number of predictions per second). • Monitoring: Track model performance in production to detect issues such as data drift or degraded performance. • Maintenance: Update the model periodically with new data and retrain as necessary. 6. Feedback Loop • Purpose: Continuously improve the model based on real-world performance. • Steps: • Data Collection: Gather new data from the deployed application. • Performance Monitoring: Use monitoring tools to track key metrics. • User Feedback: Collect feedback from users to identify areas of improvement. • Model Updates: Retrain or refine the model using the new data. • Re-evaluation: Assess the updated model's performance to ensure it has improved. #WhatisAIModel #AI #Future

🎉 LLM Lingo: Must-Know Terms Part 1! Check out this handy list of the most commonly used LLM-related terms, each with concise, easy-to-understand summaries. 🚀 LLMs are popping up everywhere! Both research and development of LLM based applications has soared dramatically over the past couple of years. 😎 If you're eager to keep up with all the LLM news but find the jargon overwhelming, this list is tailored for you! I've distilled the most common LLM terms into easy-to-understand one-liners. 🔊 I've received quite some requests to distill basic LLM knowledge for those with limited background in the field. So, here's my attempt! I'll be sharing more of these soon. Let me know any other LLM lingo you'd like me to simplify! #llms #genai #ai

#llms #genai #ai

#Auto-mergingretrieval #AI #future #RAG #code #learning #Important #datascience