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Artificial General Intelligence: Principles and Practices [Saravanan] - Printable Version +- MKLab (https://mklab.gr) +-- Forum: [INDEX] (https://mklab.gr/forumdisplay.php?fid=1) +--- Forum: ARTFICIAL INTELLIGENCE (AI) (https://mklab.gr/forumdisplay.php?fid=5) +---- Forum: BOOKS (https://mklab.gr/forumdisplay.php?fid=32) +----- Forum: NEW PUBLICATIONS (https://mklab.gr/forumdisplay.php?fid=110) +----- Thread: Artificial General Intelligence: Principles and Practices [Saravanan] (/showthread.php?tid=1710) |
Artificial General Intelligence: Principles and Practices [Saravanan] - mklabgr - 08-20-2026 Artificial General Intelligence: Principles and Practices Book:Artificial General Intelligence: Principles and Practices Editors: T. Saravanan, P. Preethi, Sumaya Sanober, N. Thillaiarasu & S. Balamurugan Publication date: July 2026 Publisher: Wiley–Scrivener Edition: 1st edition ISBN: 978-1-394-42267-8 Length: approximately 472–480 pages Summary Artificial General Intelligence: Principles and Practices is a large edited collection examining what would be required to move from today's narrow AI, which performs specialized tasks, toward Artificial General Intelligence (AGI) capable of learning, reasoning, adapting, and transferring knowledge across many domains. Rather than treating AGI simply as a matter of scaling neural networks, the book approaches intelligence from cognitive, mathematical, symbolic, neural, and computational perspectives. Its opening sections discuss definitions of general intelligence, cognitive architectures, Bayesian reasoning, algorithmic learning, symbolic versus neural approaches, and especially neuro-symbolic systems that attempt to combine explicit logical reasoning with the pattern-recognition strengths of neural networks. A major theme is generalization: an AGI should not merely solve tasks seen during training but learn how to learn. Consequently, several chapters examine self-supervised learning, transfer learning, meta-learning, continual learning, common-sense reasoning, memory, and adaptation to changing environments. The book also considers explainability, proposing architectures in which reasoning can be inspected rather than remaining entirely inside a neural-network “black box.” Reinforcement learning and decision-making under uncertainty receive separate treatment, while multimodal chapters investigate how an intelligent system could combine vision, language and sound into a unified representation of its environment. The final sections move from fundamental AGI questions toward applications and possible future technologies. Topics include multimodal perception, anomaly detection, computer vision, agricultural AI, assistive systems for visually impaired users, quantum computing and brain–computer interfaces. The concluding chapter speculates about the progression from narrow AI through increasingly autonomous systems toward AGI and potentially superintelligence, while also mentioning security and ethical issues. Main topics
This looks most useful as a broad survey/reference volume for postgraduate students and researchers who want exposure to many of the approaches currently associated with AGI rather than a single rigorous theory of general intelligence. The publisher explicitly targets engineering students, researchers, IT professionals and AI/deep-learning specialists. Its greatest strength is breadth: cognitive architectures, mathematical foundations, neuro-symbolic reasoning, meta-learning, multimodality and future technologies are gathered in one volume. Its weakness is the same breadth—the table of contents suggests that the book sometimes drifts from AGI itself into general contemporary machine-learning applications. I would therefore regard it as an AGI overview and research anthology, rather than a definitive technical textbook explaining how AGI can actually be built. BOOK |