Teaching Secondary Mathematics

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Presentation transcript:

Teaching Secondary Mathematics 8 Teaching Secondary Mathematics Module 8: Working Mathematically: Focus on a range of challenging problems

Outline of this Module Overview of two international frameworks for a balanced mathematics curriculum Overview of Working Mathematically dimension Working Mathematically - Arithmagons problem Working Mathematically - Factors problem Linking Principles of Learning and Teaching P-12 and Working Mathematically Linking Personal, Interpersonal, Thinking Processes and Working Mathematically (Fermi questions)

Singapore Mathematics Framework A perspective on problem solving Mathematical Problem Solving Attitudes Metacognition Processes Concepts Skills Appreciation Interest Confidence Perseverance Monitoring one’s own thinking Estimation, Approximation Mental calculation Communication Use of tools Arithmetic manipulation Algebraic manipulation Handling data Thinking skills Heuristics Numerical, Geometric, Algebraic, Statistical Singapore’s curriculum framework has problem solving at its heart (Singapore Ministry of Education, 2001)

USA: Balanced Mathematics Curriculum Five strands of mathematical proficiency Another useful model, this one from the USA, of what it means to be a mathematical thinker Mathematics is much more than just learning procedures Adding It Up (Kilpatrick, Swafford and Findell, 2001)

USA: Balanced Mathematics Curriculum Conceptual understanding - comprehension of concepts, operations, and relations Procedural fluency - using procedures flexibly, accurately, efficiently, and appropriately Strategic competence - ability to formulate, represent, and solve mathematical problems Adaptive reasoning - capacity for logical thought, reflection, explanation, and justification Productive disposition - habitual inclination to see mathematics as sensible, useful, and worthwhile, coupled with a belief in diligence and one’s own efficacy.

Developmental Overview Overview of Working Mathematically Developmental Overview

Overview of Working Mathematically Why is Working Mathematically important? Which of the aspects of Working Mathematically (left hand side of Overview’) do you do well? Which are a challenge for you?

Working Mathematically: Arithmagons Problem I create a puzzle for you by placing numbers at the corners of a triangle, as shown below. I then add up the two numbers in adjacent corners and write the total on the line joining them. I now hide the corner numbers. You have to work out what they were!

Arithmagons Problem Activity from Counter-examples 4.0 8 12 14 (http://www.education.vic.gov.au/studentlearning/teachingresources/maths/mathscontinuum/wmathly/W40002P.htm)

Arithmagons Problem 8 6 4 5 11 3 2 Try to solve the Arithmagons below. Can you work out a way to solve them quickly? (Construct more puzzles to test your method if necessary) Why does your method work? 8 6 4 5 11 3 2 Arithmagons has wonderful extensions – try arithmagon squares, pentagons etc

How do you ensure that the learning environment is Linking with the Principles of Learning and Teaching P-12 and Working Mathematically How do you ensure that the learning environment is supportive and productive, when students engage in activities such as “Arithmagons” ? What are some ‘hot-spots’ What to do with wrong answers? What to do with dead-end approaches?

Arithmagons Review How did you tackle the problem? What solutions might students try? How would you conduct this in the classroom? What WM principles are involved? What PoLT principles are involved in using it? 8 6 4 5 11 3 2

Reflection: Principles of Learning and Teaching P-12 How can we build students’ self-confidence and willingness to take risks with learning? Teachers should demonstrate, encourage and value: Self-checking methods rather than external judgement of teacher Positive attitude towards errors integral part of learning process not disasters Skills, Reasoning, Reflection time to think not expect instant understanding strategies for self questioning

Working Mathematically Which numbers have three factors?: What are the factors of 10? Which numbers have exactly three factors? (http://www.education.vic.gov.au/studentlearning/teachingresources/maths/mathscontinuum/wmathly/W40002P.htm#a1)

Working Mathematically Consider n2 +n + 41 when n = 0, 1,2,3,4 What is special about the results? Will this always happen? (http://www.education.vic.gov.au/studentlearning/teachingresources/maths/mathscontinuum/wmathly/W40002P.htm#a1)

Reflection: Principles of Learning and Teaching P-12 Students are challenged and supported to develop deep levels of thinking and application. When students are completing the factors problem, how could teachers: Develop investigating and problem solving skills? Challenge and support students to question and reflect? Foster imagination and creativity?

Linking “Working Mathematically” with other VELS domains. Fermi Questions Use what information you already have about the world to get a reasonable answer to these questions fairly quickly: Can you fit the world’s population into Victoria? How many soccer balls could fit in our classroom? As you tackle these problems, think about how they contribute to student learning in other VELS domains, especially the domains of: Thinking Processes Personal Learning Interpersonal Development (http://www.education.vic.gov.au/studentlearning/teachingresources/maths/mathscontinuum/wmathly/W40006P.htm#a4)

Linking “Working Mathematically” with other VELS domains Thinking Processes Domain What are the characteristics of mathematical thinking? Deductive Creative Connections Reasoning Procedures are driven by conceptual understanding THINKING PROCESSES DOMAIN: This domain encompasses a range of cognitive, affective and metacognitive knowledge, skills and behaviours which are essential for effective functioning in society both within and beyond school. (http://vels.vcaa.vic.edu.au/essential/interdisciplinary/thinking/index.html)

Linking “Working Mathematically” with other VELS domains How does Working Mathematically foster Personal Learning and Interpersonal Development Personal Learning: Students who will: Acquire self knowledge and dispositions which support learning Can learn with peers, including seeking and responding appropriately to feedback Increasingly manage their own learning and growth including by setting goals and managing resources to achieve these Recognise and enact appropriate values within and beyond the school context. http://vels.vcaa.vic.edu.au/essential/personal/learning/index.html Interpersonal Development : Students who will learn to work with others by: Building positive social relationships Working and learning in teams Managing and resolving conflicts http://vels.vcaa.vic.edu.au/essential/personal/development/index.html

End of Module 8 This is the last slide of the module Further questions… studentlearning@edumail.vic.gov.au Subject field- Teaching Secondary Mathematics