Cognitive Robotics: Enhancing Machine Intelligence for Autonomous Decision Making

ยท Robotics Science ืกืคืจ 18 ยท One Billion Knowledgeable
ืกืคืจ ื“ื™ื’ื™ื˜ืœื™
245
ื“ืคื™ื
ื›ืฉื™ืจ
ื”ื‘ื™ืงื•ืจื•ืช ื•ื”ื“ื™ืจื•ื’ื™ื ืœื ืžืื•ืžืชื™ืย ืžื™ื“ืข ื ื•ืกืฃ

ืžื™ื“ืข ืขืœ ื”ืกืคืจ ื”ื“ื™ื’ื™ื˜ืœื™ ื”ื–ื”

1: Cognitive robotics: An introduction to how robots can be designed to simulate human cognitive abilities.

2: Cognitive science: Exploring the interdisciplinary science behind cognition and its role in robotics.


3: Subsumption architecture: Understanding how simple behaviors combine for complex actions in robots.


4: Artificial consciousness: Examining the controversial topic of whether machines can achieve consciousness.


5: Symbolic artificial intelligence: Discussing symbolic AI and its applications in cognitive robotics.


6: Cognitive model: Introducing models that mimic human cognitive processes for robotic design.


7: Soar (cognitive architecture): Delving into the Soar architecture and its role in intelligent decisionmaking.


8: Developmental robotics: Exploring how robots can learn from their environment, similar to human development.


9: Cognitive architecture: Understanding the structures that support robotic cognition and problemsolving.


10: Intelligent agent: Defining intelligent agents and their behavior within autonomous systems.


11: Embodied cognitive science: Investigating how cognition is linked to physical embodiment in robotics.


12: Enactivism: Introducing the theory of cognition that emphasizes interaction with the environment.


13: Moravec's paradox: Analyzing the gap between highlevel reasoning and lowlevel physical tasks in robotics.


14: Neurorobotics: Exploring the integration of neural models into robotic systems for advanced cognition.


15: Object Action Complex: Understanding how robots recognize and interact with objects in dynamic environments.


16: LIDA (cognitive architecture): An indepth look at the LIDA model and its applications in cognitive robotics.


17: Situated approach (artificial intelligence): Examining how AI adapts and operates in realworld settings.


18: Embodied cognition: Highlighting how physical presence and sensory feedback impact robotic intelligence.


19: Predictive coding: Understanding how robots use prediction to interpret sensory information and guide actions.


20: Cognitive neuroscience: Exploring how insights from neuroscience influence robotic cognitive architectures.


21: Cognition: A comprehensive review of cognition and its application to the design of intelligent robots.

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