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Showing posts with label pre-training models. Show all posts
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Friday, September 13, 2024

Common Solutions for AI Enterprise Applications, Industrial Applications, and Product Development Issues

In the rapidly evolving field of artificial intelligence (AI), enterprises face numerous challenges in developing and applying AI products. Deciding when to use prompting, fine-tuning, pre-training, or retrieval-augmented generation (RAG) is a crucial decision point. Each method has its strengths and limitations, suitable for different scenarios. This article will discuss the definitions, applicable scenarios, and implementation steps of these methods in detail, drawing on the practical experiences of HaxiTAG and its partners to provide a beginner’s practice guide for the AI application software supply chain.

Method Definitions and Applicable Scenarios

Prompting

Prompting is a method that involves using a pre-trained model to complete tasks directly without further training. It is suitable for quick testing and low-cost application scenarios. For example, in simple text generation or classification tasks, a large language model can be prompted to quickly obtain results.

Fine-Tuning

Fine-tuning involves further training a pre-trained model on a specific task dataset to optimize model performance. This method is suitable for task-specific model optimization, such as sentiment analysis and text classification. For instance, fine-tuning a pre-trained BERT model on a sentiment analysis dataset in a specific domain can improve its performance in that field.

Pre-Training

Pre-training involves training a model from scratch on a large-scale dataset, suitable for developing domain-specific models from the ground up. For example, in the medical field, pre-training a model using vast amounts of medical data enables the model to understand and generate professional medical language and knowledge.

Retrieval-Augmented Generation (RAG)

RAG combines information retrieval with generation models, using retrieved relevant information to assist content generation. This method is suitable for complex tasks requiring high accuracy and contextual understanding, such as question-answering systems. In practical applications, RAG can retrieve relevant information from a database and, combined with a generation model, provide users with precise and contextually relevant answers.

Scientific Method and Process

Problem Definition

Clearly define the problem or goal to be solved, determining the scope and constraints of the problem. For example, an enterprise needs to address common customer service issues and aims to automate part of the workflow using AI.

Literature Review

Study existing literature and cases to understand previous work and findings. For instance, understanding the existing AI applications and achievements in customer service.

Hypothesis Formation

Based on existing knowledge, propose explanations or predictions. Hypothesize that AI can effectively address common customer service issues and improve customer satisfaction.

Experimental Design

Design experiments to test the hypothesis, ensuring repeatability and controllability. Determine the data types, sample size, and collection methods. For example, design an experiment to compare customer satisfaction before and after using AI.

Data Collection

Collect data according to the experimental design, ensuring quality and completeness. For instance, collect records and feedback from customer interactions with AI.

Data Analysis

Analyze the data using statistical methods to identify patterns and trends. Assess the changes in customer satisfaction and evaluate the effectiveness of AI.

Results Interpretation

Interpret the data analysis results and evaluate the extent to which they support the hypothesis. For example, if customer satisfaction significantly improves, it supports the hypothesis.

Conclusion

Draw conclusions based on the results, confirming or refuting the initial hypothesis. The conclusion might be that the application of AI in customer service indeed improves customer satisfaction.

Knowledge Integration

Integrate new findings into the existing knowledge system and consider application methods. Promote successful AI application cases to more customer service scenarios.

Iterative Improvement

Continuously improve the model or hypothesis based on feedback and new information. For instance, optimize the AI for specific deficiencies observed.

Communication

Share research results through papers, reports, or presentations to ensure knowledge dissemination and application.

Ethical Considerations

Ensure the research adheres to ethical standards, especially regarding data privacy and model bias. For example, ensure the protection of customer data privacy and avoid biases in AI decisions.

Implementation Strategy and Steps

Determine Metrics

Identify quality metrics, such as accuracy and recall. For example, measure the accuracy and response speed of AI in answering customer questions.

Understand Limitations and Costs

Identify related costs, including hardware, software, and personnel expenses. For example, evaluate the deployment and maintenance costs of the AI system.

Explore Design Space Gradually

Explore the design space from low to high cost, identifying diminishing returns points. For instance, start with simple AI systems and gradually introduce complex functions.

Track Return on Investment (ROI)

Calculate ROI to ensure that the cost investment yields expected quality improvements. For instance, evaluate the ROI of AI applications through changes in customer satisfaction and operational costs.

Practice Guide

Definition and Understanding

Understand the definitions and distinctions of different methods, clarifying their respective application scenarios.

Evaluation and Goal Setting

Establish measurement standards, clarify constraints and costs, and set clear goals.

Gradual Exploration of Design Space

Explore the design space from the least expensive to the most expensive, identifying the best strategy. For example, start with prompting and gradually introduce fine-tuning and pre-training methods.

Core Problem Solving Constraints

Data Quality and Diversity

The quality and diversity of data directly affect model performance. Ensure that the collected data is of high quality and representative.

Model Transparency and Interpretability

Ensure the transparency and interpretability of model decisions to avoid biases. For instance, use explainable AI techniques to increase user trust in AI decisions.

Cost and Resource Constraints

Consider hardware, software, and personnel costs, and the availability of resources. Evaluate the input-output ratio to ensure project economy.

Technology Maturity

Choose methods suitable for the current technological level to avoid the risks of immature technology. For example, opt for widely used and validated AI technologies.

Conclusion

AI product development involves complex technical choices and optimizations, requiring clear problem definition, goal setting, cost and quality evaluation, and exploration of the best solutions through scientific methods. In practical operations, attention must be paid to factors such as data quality, model transparency, and cost-effectiveness to ensure efficient and effective development processes. This article's discussions and practice guide aim to provide valuable references for enterprises in choosing and implementing AI application software supply chains.

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