Buch, Englisch, 342 Seiten, Format (B × H): 155 mm x 235 mm
From Transformers to Large Language Model Assistants
Buch, Englisch, 342 Seiten, Format (B × H): 155 mm x 235 mm
Reihe: Springer Series in the Data Sciences
ISBN: 978-3-032-39138-4
Verlag: Springer
Artificial Intelligence is rapidly transforming mathematics, reshaping how problems are explored, solved, verified, and even discovered. In , Miquel Noguer i Alonso and Daniel Bloch provide a comprehensive and forward-looking examination of this emerging frontier.
Bridging the worlds of modern AI and mathematical reasoning, the book explores how transformer architectures, large language models, neural-symbolic systems, and formal verification tools are changing the practice of mathematics. Readers will discover how AI can tackle symbolic computation, theorem proving, differential equations, linear algebra, optimization, geometric reasoning, scientific machine learning, and mathematical discovery.
Moving beyond headlines and hype, the authors present a rigorous framework for understanding the strengths, limitations, and reliability of AI-powered mathematical systems. They introduce a verification-centered approach in which generation, search, and pattern recognition are combined with formal proof, symbolic validation, and computational certification to produce trustworthy mathematical results.
Drawing on the latest developments in large language models, reinforcement learning, theorem provers, and AI-assisted discovery systems, this book offers both conceptual foundations and practical methodologies for researchers, educators, students, quantitative professionals, and anyone interested in the future of mathematical intelligence.
At the intersection of mathematics, computer science, and artificial intelligence, this timely volume reveals how machines are evolving from computational tools into collaborative partners in mathematical reasoning and discovery.
Zielgruppe
Research
Autoren/Hrsg.
Fachgebiete
Weitere Infos & Material
Preface.- The Verification-Centered Thesis.- Part 1. Foundations and Reasoning Architectures.- Symbolic, Statistical, and Transformer Paradigms.- Large Language Models and Inference-Time Mathematical Reasoning.- Verifiable Reinforcement Learning and Self-Improving
Mathematical Agents.- Part 2. Computational Mathematics and Discovery.- Neural-Symbolic Mathematics and Algebraic Computation.- Linear Algebra, Matrix Computation, and Transformer-Based Numerical Reasoning.- Mathematical Discovery, Symbolic Regression, and Algorithmic
Invention.- AlphaEvolve and Evaluator-Gated Algorithmic Discovery.- Geometry, Olympiad Reasoning, and Synthetic Proof Search.- Advanced Mathematical Computation and Scientific Machine Learning.- Mathematical Proofs with Transformers and Neural Theorem
Proving.- Lean, Autoformalization, and Formal Mathematical Libraries.- Olympiad Formal Reasoning: AlphaProof, DeepSeek-Prover, and Program-Synthesis Proof Systems.- The AI Mathematician Stack: Prompt, Retrieval, Formalization, and Verification.- A Geometric Theory of AI Mathematical Reasoning.- Part 3. Evaluation, Limits, and Research Governance.- Reliability, Benchmarks, Interpretability, and Epistemic Limits.- Advanced Domains: Verification Protocols and Representation Invariance.- Future Directions, Laboratory Practice, and Verification Protocols.- References.- Index.




