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Peer reviewedStoyanova, Elena; Bana, Jack – Australian Mathematics Teacher, 1997
Focuses on the use of different strategies for solving sequences of interrelated problems. Discusses some useful techniques a teacher could employ to design problem chains. (Contains 20 references.) (ASK)
Descriptors: Elementary Secondary Education, Learning Strategies, Mathematics Instruction, Problem Solving
Peer reviewedHolliday, William G. – Science Scope, 2001
Explains modeling as a teaching approach and presents two examples of modeling, one example of poor modeling and one example of good modeling. (YDS)
Descriptors: Academic Achievement, Middle Schools, Models, Problem Solving
Peer reviewedKlionsky, Daniel J. – Journal of College Science Teaching, 2002
Describes a format for teaching a large introductory biology course that encourages student preparation prior to class and utilizes problem solving instead of lecturing. (Author/MM)
Descriptors: Biology, Higher Education, Problem Solving, Science Education
Peer reviewedYin, Mali; Ochs, Raymond S. – Journal of Chemical Education, 2001
Explains how three fundamental ideas in chemistry--the mole, the periodic table, and quantum numbers--should be introduced to students for better student understanding. (YDS)
Descriptors: Chemistry, Higher Education, Problem Solving, Science Education
Peer reviewedOliver-Hoyo, Maria – Journal of Chemical Education, 2001
Basic data collection can be used to provide information on what kind of teaching strategies can be used to teach students who are solving chemistry problems. Recommends using lesson scripts that challenge students to find the right answer. (Contains 35 references.) (YDS)
Descriptors: Chemistry, Educational Technology, Higher Education, Problem Solving
Bleakley, Alan – Teaching in Higher Education, 2004
While there is agreement that creativity is central to teaching, learning and curriculum in higher education, what is meant by creativity is not always clear. The term is often employed uncritically, in the singular, and is reified. Where creativity is used with specificity, this is often over-determined, so that the term remains limited to…
Descriptors: Creativity, Instructional Innovation, Classification, Models
Peer reviewedHewitt, Paul G. – Science Teacher, 2006
Three sample physics problems are presented in this article. The solutions to the three problems addresses a major student difficulty in problem solving--knowing where to begin. The first suggested step is to begin by stating what is asked for. Step 2 is identifying the fundamental physics that underlies the problem situation. Step 3 is isolating…
Descriptors: Teaching Methods, Physics, Scientific Methodology, Problem Solving
Peer reviewedPandiscio, Eric A – Mathematics Teacher, 2004
Students solve a geometric problem of measuring polygons with the help of proportional reasoning. Thus the importance of conceptual reasoning is emphasized as a highly efficient technique for teaching and strengthening mathematical content.
Descriptors: Geometric Concepts, Geometry, Thinking Skills, Problem Solving
Peer reviewedFord, Roger – Mathematics Teacher, 2004
A Mandelbrot mathematical set is an object with endless borders, and in the present exercise a graphing calculator is used to identify and examine the set points. The significance and power of technology is also displayed in the understanding and solving of problems.
Descriptors: Graphing Calculators, Geometry, Mathematics Instruction, Teaching Methods
Robinson, James – Mathematics Teaching Incorporating Micromath, 2006
In this article, the author talks about his experiences when he started a mathematics degree with the Open University. He shares what happened during a course on mathematical models and methods and his major influences in mathematics. He also offers his current pedagogy that is based purely on his experiences and time spent talking to other…
Descriptors: Mathematics, Mathematics Instruction, Teaching Methods, Problem Solving
Cai, Jinfa; Brook, Michael – Mathematics Teaching Incorporating Micromath, 2006
Often after students solve a problem they believe they have accomplished their mission and stop further exploration. The purpose of this article is to discuss ways to encourage students to "look back" so as to maximise their learning opportunities. According to Polya, by "looking back" at a completed solution, by reconsidering and re-examining the…
Descriptors: Problem Solving, Student Attitudes, Generalization, Mathematics Instruction
Peer reviewedCook, Elzbieta; Cook, Stephen L. – Journal of Chemical Education, 2005
The cross-proportion method allows both the instructor and the student to easily determine where an error is made during problem solving. The C-P method supports a strong cognitive foundation upon which students can develop other diagnostic methods as they advance in chemistry and scientific careers.
Descriptors: Problem Solving, Error Patterns, Teaching Methods, Chemistry
Peer reviewedAncess, Jacqueline – Educational Leadership, 2004
In this article, urban students explore powerful ideas from multiple perspectives. It concludes that academical success and importance of maintaining good teacher-student ratio, reinforcing meaning, making learning encourages problem solving ability among the students. Exploring ideas from multiple sources like educational books, images, and…
Descriptors: Classrooms, Teacher Student Ratio, Learning, Problem Solving
Peer reviewedColburn, Alan – Educational Leadership, 2004
Inquiry-based instruction teaching helps students to think independently and scientifically, which in turn enables problem solving ability in them. Different approaches to encourage inquiry-based instructions like verification approach, and discovery approach are discussed by matching the background knowledge and reasoning skills among the…
Descriptors: Teaching Methods, Problem Solving, Inquiry, Thinking Skills
Mayer, Richard E. – American Psychologist, 2004
The author's thesis is that there is sufficient research evidence to make any reasonable person skeptical about the benefits of discovery learning--practiced under the guise of cognitive constructivism or social constructivism--as a preferred instructional method. The author reviews research on discovery of problem-solving rules culminating in the…
Descriptors: Teaching Methods, Constructivism (Learning), Discovery Learning, Transfer of Training

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