How AI agents can move beyond correlation to understand cause and effect, enabling more robust planning, better tool use, and reliable interventions in the real world
Learn how inverse reinforcement learning lets AI agents discover hidden reward functions by observing expert behavior, and why it matters for agent alignment and autonomous systems
Reimagining source code management from the ground up for AI agents, with intent based commits, simulation before merge, agent reputation, and automatic rollback contracts
Learn how AI agents can acquire complex behaviors by observing and mimicking expert demonstrations, from classical behavioral cloning to modern LLM agent distillation
Learn how knowledge distillation enables large, expensive AI agents to teach smaller, faster ones — reducing cost and latency while preserving capability
How AI agents acquire, store, and compose reusable skills—from hierarchical reinforcement learning to LLM-based skill synthesis and the emerging paradigm of lifelong learning agents.
How AI agents can reach better decisions by arguing with each other—exploring debate protocols, deliberation architectures, and the surprising power of constructive disagreement.
Explore how diffusion models enable AI agents to generate and refine complex action plans through iterative denoising, revolutionizing long-horizon planning and decision-making.
Master beam search—a powerful technique for exploring multiple solution paths simultaneously in AI agents, from classical NLP to modern LLM reasoning systems.
Master the art and science of designing reward functions and solving the credit assignment problem—the key to training agents that learn efficiently and align with human intentions.
Master the art of combining simple tools into sophisticated agent capabilities through composition patterns, chaining strategies, and intelligent orchestration.
Discover how curiosity-driven learning enables AI agents to explore, learn, and adapt in sparse-reward environments through intrinsic motivation mechanisms.
Master constraint satisfaction problems (CSP) - a fundamental technique for agent planning, scheduling, and configuration tasks where finding any valid solution is the goal.
Master the fundamental problem of sequential decision-making under uncertainty and learn how AI agents balance trying new actions versus exploiting known rewards
Learn how modern AI agents use verification and validation loops to ensure output quality, catch errors at runtime, and build reliable production systems.
Master contextual bandits—the algorithm behind personalized recommendations, A/B testing, and adaptive agents. Learn how to balance exploration and exploitation in real-time decision-making.
Discover how simple local interactions between agents can spontaneously produce sophisticated global behaviors—from ant colonies to distributed AI systems.
Master the BDI architecture pattern that models rational agent behavior through beliefs, desires, and intentions—a bridge between philosophy and practical AI systems.
Master the mathematical and practical foundations of vector embeddings—the technology that enables AI agents to remember, search, and reason over vast knowledge bases.
Explore how the blackboard pattern enables multiple specialized agents to work together on complex problems through shared knowledge spaces and opportunistic reasoning.
Discover how Goal-Oriented Action Planning (GOAP) enables AI agents to dynamically create flexible plans that adapt to changing conditions, from game NPCs to modern autonomous systems.
Learn how to build complex, stateful AI agent systems using graph-based architectures with LangGraph—a paradigm shift from linear chains to cyclic, controllable workflows.