## What are the foundational principles in mathematics teaching and learning?

*Math is about sense-making. "This the most fundamental idea that a teacher of mathematics needs to believe and act on. It is through the teacher's actions that every [learner] in his or her own way can come to believe this simple truth and, more importantly, believe that he or she is capable of making sense of mathematics. Helping students come to this belief should be the goal of every teacher. " (Van de Walle, Teaching Student-Centred Mathematics, 2006, p. ix)*

## Considerations:

- the
**First Peoples Principles of Learning**and other ways of knowing contribute to a more holistic and experiential experience of mathematics and benefits all learners - students learn to think like mathematicians by being immersed in the "
**mathematical habits of mind**":- persevering and using mathematics to solve problems in everyday life
- recognizing there are multiple ways to solve a problem
- demonstrating respect for diversity in approaches to solving problems
- choosing and using appropriate strategies and tools
- pursuing accuracy in problem solving

*from BC Mathematics Curriculum*

- students learn to be mathematicians by embodying
**dispositions**such as:- curiosity and a sense of wonder
- playfulness
- flexibility
- sense making
- resilience

**problem-solving**is foundational to the study of mathematics- an
**inquiry-based approach**includes rich tasks and student problem posing, which nurtures engagement, curiosity and deep understanding - the
**language of mathematics**supports learning and thinking like a mathematician - the
**foundational mathematical big ideas**include:- number represents and describes quantity
- development of computational fluency requires a strong sense of number
- we use patterns to represent identified regularities and to form generalizations
- we can describe, measure, and compare spatial relationships
- analyzing data and chance enable to compare and interpret information

- there is a progression of learning in mathematics
- mathematics has underlying structures such as the associative property, the commutative property, and the distributive property

## Resources:

## The First Peoples Principles of Learning contribute to a more holistic and experiential experience of mathematics.

There are a number of resources to support the First Peoples Principles of Learning and other ways of knowing in the context of learning mathematics. Below is a list of online resources from a variety of organizations including the First Nations Education Steering Committee and projects such as Math Catcher, the Aboriginal Curriculum Integration Project through SD79, and Aboriginal Perspectives.

**First Peoples Principles of Learning Online Resources: **

First Peoples Principles of Learning

First Nations Education Steering Committee (FNESC) Homepage

Aboriginal Education Resources

Math Catchers: Mathematics Through Aboriginal Storytelling

Math First Peoples Resource Guide for Mathematics Grades 8 & 9

Aboriginal Curriculum Integration Project (Lesson examples for Gr. 7-9 Math)

Aboriginal Perspectives Lesson Plans (Gr. 6)

Aboriginal Perspectives Lesson Plans (Gr. 4/5)

## Students learn to think like mathematicians by being immersed in the mathematical habits of mind.

### Habits of Mind

Extensive research indicates that for students to develop mathematical habits of mind they must encounter and interact in intentional learning settings. Classroom design combined with active participation strategies will enhance student learning, increase achievement, and factor in the development of the well-educated citizen.

Students who have developed mathematics habits of mind exhibit expertise in:

- persevering and using mathematics to solve problems in everyday life
- recognizing there are multiple ways to solve a problem
- demonstrating respect for diversity in approaches to solving problems
- choosing and using appropriate strategies and tools
- pursuing accuracy in problem solving

## Problem-solving is foundational to the study of mathematics.

**George Polya**, an influential mathematicican from the 1940s, described four steps in problem-solving in his book How to Solve It:

- understand the problem
- develop a plan and consider possible strategies
- carry out the plan and use the strategies
- look back and reflect

Mathematician **Conrad Wolfram**'s approach to problem-solving involves four steps:

- posing the right question
- real world to math formulation
- computation
- math formulation back to the real-world

In this TED Talk Wolfram explains this approach as well as his arguments for teaching students mathematics through computer programming.

Other resources on problem solving include this Research Brief put together by The **National Council of Teachers of Mathematics** on why it is important to student learning to teach with problem solving.

## The language of mathematics supports learning and thinking like a mathematician.

Author **Cathy Marks Krpan** believes that through competency-based learning, students and teachers alike can deepen their mathematical understanding and share and impart that knowledge in and out of the math classroom. Teaching Math With Meaning takes a practical approach to embedding this deep learning in K to Grade 8 mathematics classrooms.

The article *Language in the Mathematics Classroom *describes the role of language in Numeracy learning and the complexity of math language which often leads to ambiguity in conceptual understanding.

## There is a progression of learning in mathematics.

The following resources include professional resources, programs that provide a framework for teaching with progressions, learning continuums for mathematics and an online resource.

Number Worlds Learning Trajectories

Developmental Math Continuum Summary developed by the British Columbia Association of Math Teachers

Math specialist **Graham Fletcher** has created a number of videos that demonstrate the progression of learning math on the following topics:

- Early number and counting
- Addition and subtraction
- Progression of division
- Progression of multiplication
- Fractions: the meaning, equivalence, and comparison