📖 Overview
Mathematical Problem Solving examines the cognitive processes and strategies students use when tackling mathematical challenges. Schoenfeld draws from research in mathematics education and cognitive science to analyze how experts and novices approach complex problems.
The book presents case studies and empirical research on problem-solving behaviors in mathematics classrooms. Through detailed observations and protocols, Schoenfeld documents the role of heuristics, metacognition, and belief systems in mathematical thinking.
Students' mathematical development forms the core focus, with particular attention to the transition from novice to expert problem solver. The text includes practical frameworks for teaching problem-solving skills and implementing more effective instructional methods.
This work stands as a foundational text in mathematics education research, bridging cognitive theory with classroom practice. The insights about how mathematical thinking develops continue to influence approaches to mathematics instruction and curriculum design.
👀 Reviews
Readers value Schoenfeld's detailed analysis of problem-solving strategies and his research methods. They note the book provides frameworks for understanding how students think through math problems.
Likes:
- Clear breakdown of problem-solving approaches
- Real classroom examples and case studies
- Focus on metacognition and control processes
- Inclusion of teacher guidance and classroom applications
Dislikes:
- Dense academic writing style
- Limited coverage of elementary-level math
- Some find research methodology sections too technical
- Examples focus heavily on geometry problems
From Goodreads:
4.29/5 (14 ratings)
"Useful insights into why students get stuck and how to help them" - Math teacher review
"Changed how I approach teaching problem solving" - Educational researcher
From Amazon:
4.5/5 (6 ratings)
"The research methods chapter was hard to get through but the classroom applications are excellent" - High school math teacher
"Important book but written more for researchers than practicing teachers"
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🤔 Interesting facts
📚 Alan Schoenfeld spent over a decade observing hundreds of students solving math problems to develop the frameworks presented in this book.
🎓 The book revolutionized how researchers think about metacognition in mathematics, introducing the concept that "belief systems" significantly impact problem-solving success.
🧩 Schoenfeld identified that expert mathematicians spend up to 50% of their problem-solving time planning and monitoring their progress, while students typically spend less than 1%.
🏆 This work earned Schoenfeld the 1998 Guggenheim Fellowship and influenced mathematics education reforms worldwide.
📊 The book presents groundbreaking research showing that students who learn explicit problem-solving strategies perform significantly better than those who only practice problems, even when both groups spend equal time studying.