AI robots can learn from their experiences, make decisions in real-time, understand natural language and human gestures, and utilize computer vision to perceive and comprehend their environment. Beginning with the rudimentary concepts of artificial intelligence, AI Robotics: Ethics, Algorithms, and Technology of Artificial Intelligence-Powered Robots explores the intersection of robotics and physics and emphasizes the need for strict adherence to ethical principles in relation to overall progress and the development of humankind. Chapters on robots capable of talking, listening, and visual perception, similar to human beings, are followed by discussions of those that display emotional intelligence. The book also discusses task and motion planning, a set of methods that help robots' hardware achieve high-level goals by breaking down tasks into smaller, more manageable steps. Lastly, the book describes autonomous robots that can make independent decisions and execute tasks on their own, utilizing sensors and AI-enabled software programmed with predefined guidelines and data. Examples of autonomous robots are presented in a chapter on robot swarms that operate in a decentralized, self-organizing manner through local communication to manage disaster relief, search and rescue operations, warehouse logistics, agricultural practices, and environmental exploration. Offering an up-to-date, expansive and comprehensive treatment of the vast interdisciplinary field of AI-robotics, the book will be an invaluable resource for postgraduate and Ph.D. students as well as academic researchers and professional engineers working on AI-enabled robotics.
Key Features:
Explores the research frontiers and advancements leveraged by integrating artificial intelligence with robotics.
Highlights the unique challenges faced in robot vision and speech recognition vis-a-vis computer vision and standard speech processing
Provides a state-of-the-art overview of emotional recognition, task and motion planning, and coordinated functioning of robots in multi-robot systems
