Hello everyone! With the rapid advancement of AI agent technology, two architectures have come into the spotlight: MCP (Model Context Protocol) and MCO (Model Context Open-json). Today, weβll introduce the key features and differences of these two approaches.
MCP: The Traditional Approach ποΈ Centralized Function Registry: All functions are hardcoded into the core system.
Static Function Definitions & Tight Coupling: New features require changes to the core application code, limiting scalability.
Monolithic Design: Complex deployment and version management can cause a single error to affect the whole system.
Code Example: '''py FUNCTION_REGISTRY = { "existing_function": existing_function, "new_function": new_function # Adding a new function } '''
MCO: A Revolutionary Approach π JSON-based Function Definitions: Function details are stored in external JSON files, enabling dynamic module loading.
Loose Coupling & Microservices: Each function can be developed, tested, and deployed as an independent module.
Flexible Scalability: Add new features by simply updating the JSON and module files, without modifying the core system.
JSON Example: [ { "name": "analyze_sentiment", "module_path": "nlp_tools", "func_name_in_module": "sentiment_analysis", "example_usage": "analyze_sentiment(text=\"I love this product!\")" } ]
Why MCO? π‘ Enhanced Development Efficiency: Developers can focus on their own modules with independent testing and deployment.
Simplified Error Management: Errors remain confined within their modules, enabling quick hotfixes.
Future-Proofing: With potential features like remote function calls (RPC), access control, auto-documentation, and a function marketplace, MCO paves the way for rapid innovation.
Practical Use & Community π€ The MCO implementation has been successfully tested on Vidraftβs LLM (based on Google Gemma-3)
Hello everyone! With the rapid advancement of AI agent technology, two architectures have come into the spotlight: MCP (Model Context Protocol) and MCO (Model Context Open-json). Today, weβll introduce the key features and differences of these two approaches.
MCP: The Traditional Approach ποΈ Centralized Function Registry: All functions are hardcoded into the core system.
Static Function Definitions & Tight Coupling: New features require changes to the core application code, limiting scalability.
Monolithic Design: Complex deployment and version management can cause a single error to affect the whole system.
Code Example: '''py FUNCTION_REGISTRY = { "existing_function": existing_function, "new_function": new_function # Adding a new function } '''
MCO: A Revolutionary Approach π JSON-based Function Definitions: Function details are stored in external JSON files, enabling dynamic module loading.
Loose Coupling & Microservices: Each function can be developed, tested, and deployed as an independent module.
Flexible Scalability: Add new features by simply updating the JSON and module files, without modifying the core system.
JSON Example: [ { "name": "analyze_sentiment", "module_path": "nlp_tools", "func_name_in_module": "sentiment_analysis", "example_usage": "analyze_sentiment(text=\"I love this product!\")" } ]
Why MCO? π‘ Enhanced Development Efficiency: Developers can focus on their own modules with independent testing and deployment.
Simplified Error Management: Errors remain confined within their modules, enabling quick hotfixes.
Future-Proofing: With potential features like remote function calls (RPC), access control, auto-documentation, and a function marketplace, MCO paves the way for rapid innovation.
Practical Use & Community π€ The MCO implementation has been successfully tested on Vidraftβs LLM (based on Google Gemma-3)
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π₯ AgenticAI: The Ultimate Multimodal AI with 16 MBTI Girlfriend Personas! π₯
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Complete MBTI Implementation: All 16 MBTI female personas modeled after iconic characters (Dana Scully, Lara Croft, etc.) Persona Depth: Customize age groups and thinking patterns for hyper-personalized AI interactions Personality Consistency: Each MBTI type demonstrates consistent problem-solving approaches, conversation patterns, and emotional expressions
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Real-time Web Search: SerpHouse API integration for latest information retrieval and citation Deep Reasoning Chains: Step-by-step inference process for solving complex problems Academic Analysis: In-depth approach to mathematical problems, scientific questions, and data analysis Structured Knowledge Generation: Systematic code, data analysis, and report creation
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FLUX Image Generation: Custom image creation reflecting the selected MBTI persona traits Data Visualization: Automatic generation of code for visualizing complex datasets Creative Writing: Story and scenario writing matching the selected persona's style