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In recent months, we've observed a growing trend in the AI community where Large Language Models (LLMs) are increasingly being treated as a mandatory component of agent systems. While LLMs offer powerful capabilities, we believe this assumption needs careful examination. This article explains our strategic decision to decouple LLM support from our core agent library and why this architectural choice matters for the future of agent-based systems.
The Current Landscape
In today's AI landscape, Large Language Models (LLMs) have become so dominant that there's a growing assumption that all intelligent agents must be LLM-powered. While LLMs are powerful tools, blindly following this trend goes against the fundamental principle that 'Simple is better than complex.'
Historical Perspective
It's crucial to remember that the concept of software agents existed long before LLMs. While LLM-powered agents certainly have their place in multi-agent systems, many practical problems can be solved more efficiently using established approaches such as:
Fuzzy logic systems for handling uncertainty
Reinforcement learning for sequential decision-making
Random forest models for classification and regression tasks
Traditional rule-based agents for well-defined problems
A Real-World Example
Consider this practical scenario: Imagine a smart manufacturing system with multiple agents monitoring and controlling different aspects of production. One agent is responsible for predictive maintenance of machinery. While an LLM could process sensor data and maintenance logs to predict failures, a simpler random forest model combined with basic rule-based logic could be more efficient and reliable:
The random forest model processes real-time sensor data (temperature, vibration, power consumption) to predict potential failures
Rule-based logic handles scheduling and priority of maintenance tasks
A simple messaging protocol enables communication between maintenance and production scheduling agents
This solution would be:
Faster to execute (milliseconds vs. seconds for LLM inference)
More reliable (less prone to hallucinations or context confusion)
Easier to debug and maintain
More cost-effective (no API calls or large model hosting required)
Our Architectural Decision
Given these considerations, we're taking a modular approach by implementing LLM capabilities as a separate, optional library rather than a core dependency. This architectural decision offers several advantages:
Reduced complexity when simpler solutions suffice
Lower computational overhead and operational costs
Greater flexibility in choosing appropriate tools for specific problems
Improved maintainability of the core agent framework
This approach ensures that developers can build efficient multi-agent systems while retaining the option to integrate LLM capabilities when they genuinely add value. For instance, LLM capabilities could be added to the maintenance system later to process unstructured maintenance notes or generate detailed reports, while keeping the core predictive functionality lean and efficient.
Looking Forward
We believe this modular approach represents a more sustainable and practical path forward for agent-based systems. It acknowledges both the power of LLMs and the continuing value of traditional approaches, allowing developers to make informed choices based on their specific needs rather than following a one-size-fits-all approach.
Join the Discussion
We welcome an open discussion on this architectural decision. The move to make LLMs optional rather than mandatory reflects our commitment to:
Maintaining system efficiency
Reducing unnecessary complexity
Preserving architectural flexibility
Empowering developers to make context-appropriate choices
Whether you're building industrial systems, financial applications, or other agent-based solutions, we invite you to share your thoughts on this architectural approach. How has the balance between traditional ML and LLM capabilities affected your projects? What challenges have you encountered in maintaining lean, efficient agent systems?
Join the conversation and help shape the future of practical, efficient multi-agent architectures.
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In recent months, we've observed a growing trend in the AI community where Large Language Models (LLMs) are increasingly being treated as a mandatory component of agent systems. While LLMs offer powerful capabilities, we believe this assumption needs careful examination. This article explains our strategic decision to decouple LLM support from our core agent library and why this architectural choice matters for the future of agent-based systems.
The Current Landscape
In today's AI landscape, Large Language Models (LLMs) have become so dominant that there's a growing assumption that all intelligent agents must be LLM-powered. While LLMs are powerful tools, blindly following this trend goes against the fundamental principle that 'Simple is better than complex.'
Historical Perspective
It's crucial to remember that the concept of software agents existed long before LLMs. While LLM-powered agents certainly have their place in multi-agent systems, many practical problems can be solved more efficiently using established approaches such as:
A Real-World Example
Consider this practical scenario: Imagine a smart manufacturing system with multiple agents monitoring and controlling different aspects of production. One agent is responsible for predictive maintenance of machinery. While an LLM could process sensor data and maintenance logs to predict failures, a simpler random forest model combined with basic rule-based logic could be more efficient and reliable:
This solution would be:
Our Architectural Decision
Given these considerations, we're taking a modular approach by implementing LLM capabilities as a separate, optional library rather than a core dependency. This architectural decision offers several advantages:
This approach ensures that developers can build efficient multi-agent systems while retaining the option to integrate LLM capabilities when they genuinely add value. For instance, LLM capabilities could be added to the maintenance system later to process unstructured maintenance notes or generate detailed reports, while keeping the core predictive functionality lean and efficient.
Looking Forward
We believe this modular approach represents a more sustainable and practical path forward for agent-based systems. It acknowledges both the power of LLMs and the continuing value of traditional approaches, allowing developers to make informed choices based on their specific needs rather than following a one-size-fits-all approach.
Join the Discussion
We welcome an open discussion on this architectural decision. The move to make LLMs optional rather than mandatory reflects our commitment to:
Whether you're building industrial systems, financial applications, or other agent-based solutions, we invite you to share your thoughts on this architectural approach. How has the balance between traditional ML and LLM capabilities affected your projects? What challenges have you encountered in maintaining lean, efficient agent systems?
Join the conversation and help shape the future of practical, efficient multi-agent architectures.
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