Generative Development Framework
GDF.ai
  • Intro to GDF-FSE
    • Generative AI, Large Language Models, ChatGPT?
    • Knowledge Areas
    • Access a Chat Based LLM
    • Why GDF?
    • Expectations
  • Limitations
  • Prompting
    • Prompt Patterns
    • Prompt Context
    • Prompt Stores
    • Prompt Operators
    • Prompt Chaining
  • Security
    • Protecting Data
    • Protecting Application Security
    • Protecting Intellectual Property
    • Protection Stores
    • AI Security Assessments and Penetration Testing
    • Social Engineering Testing with AI
  • Subject Knowledge Areas
    • Ideation
      • Identifying a Problem Statement
      • Plan and Prioritize Features
      • Develop User Stories
      • Requirement Gathering
      • Ideation Prompting
      • Ideation Template
    • Specification
      • Specifying Languages
      • Specifying Libraries
      • Specifying Project Structures
      • Specify Schemas
      • Specifying Elements
      • Specifying API Specs
    • Generation
      • Generating UI Elements
      • Generating Mock Data
      • Generating Schemas
      • Generating Parsers
      • Generating Databases
      • Generate Functions
      • Generate APIs
      • Generate Diagrams
      • Generating Documentation
    • Transformation
      • Converting Languages
      • Converting Libraries
    • Replacement
      • Replacing Functions
      • Replacing Data Types
    • Integration
      • Connecting UI Components
      • Connecting UI to Backend
      • Connecting Multiple Services Together
      • Connecting Cloud Infrastructure (AWS)
    • Separation
      • Abstraction
      • Model View Controller (MVC)
    • Consolidation
      • Combining UI Elements
      • Deduplicating Code Fragments
    • Templating
      • Layouts
      • Schemas
      • Project Structures
      • Content Management Systems
    • Visualization
      • General Styling
      • Visual Referencing
      • Visual Variations
    • Verification
      • Test Classes
      • Logging and Monitoring
      • Automated Testing
      • Synthetic Monitoring
    • Implementation
      • Infrastructure
      • DevOps / Deployment
    • Optimization
      • General Optimization
      • Performance Monitoring
      • Code Review
  • Guidance
    • Business Process
    • Regulatory Guidance
  • Generative Pipelines
  • Troubleshooting
    • Client Side Troubleshooting
    • Server Side Troubleshooting
    • Troubleshooting with AI
    • Documentation
    • Infrastructure Engineering
  • Terminology
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  1. Subject Knowledge Areas

Optimization

How to optimize human and AI generated applications

Although generative AI can produce code, it is only as optimized as the data it has been trained on. This means that if the AI model has been trained on suboptimal code, it might generate responses that are less than ideal. These shortcomings can range from simple issues like outdated methods to more severe problems like performance degradation or security vulnerabilities. As a result, developers should focus on quality and optimization when using generative AI. In this knowledge area, we will discuss various approaches to optimize software using generative AI.

  1. Data Selection and Preprocessing: When training generative AI models, it is essential to carefully select and preprocess the data. Using high-quality, well-structured, and up-to-date code samples during the training process can help produce more optimized output.

  2. Model Fine-tuning: Fine-tuning the AI model on domain-specific code or industry best practices can improve the quality of the generated code. This targeted training can help the AI model better understand the context and requirements of a particular use case or domain, resulting in more optimal code generation.

  3. Code Reviews and Quality Assurance: Incorporate code reviews and quality assurance processes when working with generative AI-generated code. This can help identify areas for improvement, ensuring that the generated code adheres to best practices, and maintains a high level of performance and security.

  4. Continuous Integration and Deployment (CI/CD): Implementing a robust CI/CD pipeline can help catch issues early in the development process. Automated testing, linting, and code analysis tools can be integrated into the pipeline to ensure that generated code is optimized and meets the desired quality standards.

  5. Performance Profiling and Benchmarking: Regularly profile and benchmark the performance of generative AI-generated code. This can help identify bottlenecks, inefficiencies, and opportunities for optimization, ensuring that the code performs well in production.

  6. Security Audits and Vulnerability Scanning: Conduct regular security audits and vulnerability scans on the generated code. This can help identify and address potential security issues, ensuring that the code is secure and adheres to industry standards.

  7. Stay Updated with Industry Best Practices: Developers should stay updated with the latest industry best practices, frameworks, and libraries. This knowledge can be incorporated into the AI model training process, ensuring that the generated code is modern, efficient, and secure.

  8. Iterate and Refine: Iterate and refine the generative AI model continuously, incorporating feedback from developers and users, and improving its performance over time. This iterative process can help create a more optimized and reliable AI model that generates high-quality code.

By adopting these approaches and best practices, developers can ensure that the code generated by generative AI is more optimized, secure, and reliable. Combining the power of generative AI with the expertise and experience of human developers can lead to the creation of high-quality software that meets the needs of end-users and organizations alike.

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Last updated 3 months ago

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