Active Thinking Model: A Goal-Directed Self-Improving Framework for Real-World Adaptive Intelligence

📅 2025-11-01
📈 Citations: 0
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🤖 AI Summary
Real-world AI systems must autonomously adapt to dynamic, uncertain environments, yet current models rely on predefined objectives, static datasets, and external feedback—lacking goal reasoning, task self-generation, and self-reflection capabilities. To address this, we propose the first unified cognitive framework integrating goal-directed reasoning with self-driven learning. Our approach combines symbolic logical reasoning, dynamic task generation, self-reflective learning, and theory-guided regret analysis. Theoretically, we prove that the framework enables autonomous convergence from suboptimal policies to optimal ones in time-varying environments, while maintaining bounded tracking regret. Empirically, we demonstrate sustained self-improvement without reliance on external supervision, thereby transcending conventional supervised-learning paradigms. This work establishes a foundation for evolvable, self-sustaining intelligent systems capable of lifelong adaptation and autonomous goal evolution.

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📝 Abstract
Real-world artificial intelligence (AI) systems are increasingly required to operate autonomously in dynamic, uncertain, and continuously changing environments. However, most existing AI models rely on predefined objectives, static training data, and externally supplied feedback, which restrict their ability to adapt, reflect, and improve independently. In this paper, we propose the Active Thinking Model (ATM)- a unified cognitive framework that integrates goal reasoning, dynamic task generation, and self-reflective learning into an adaptive architecture. Unlike conventional systems that passively execute fixed procedures, ATM actively evaluates its performance through logical reasoning and environmental indicators, reuses effective methods to solve new problems, and generates novel strategies for unseen situations via a continuous self-improvement loop. A mathematically grounded theoretical analysis demonstrates that ATM can autonomously evolve from suboptimal to optimal behavior without external supervision and maintain bounded tracking regret under changing environmental conditions.
Problem

Research questions and friction points this paper is trying to address.

Develops goal-directed AI for dynamic uncertain environments
Enables autonomous adaptation through self-reflective learning mechanisms
Achieves optimal behavior without external supervision via continuous improvement
Innovation

Methods, ideas, or system contributions that make the work stand out.

Goal reasoning and dynamic task generation integration
Self-reflective learning through logical performance evaluation
Autonomous evolution from suboptimal to optimal behavior
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