Connect with Maths Webinar presented by Professor Peter Sullivan: Six Principles of Effective Mathematics Teaching
There are many recommendations on how to teach mathematics but fewer about the teaching of mathematics’ classes with Indigenous students. This webinar will examine how six principles for effective mathematics teaching were adapted to advice for teachers of schools with high numbers of Indigenous students.
9. A suggestion as part of a geometry
unit written for MiTK
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10. • Have pile of cubes. Ask the students to:
– Build something using 15 cubes. Describe what
you have built.
– Build something which is 3 cubes high and 3 cubes
wide made with 15 cubes. Describe what you have
built.
– Something like “make a tower of 3 cubes, put a
yellow cube to the left, and blue cube to the
north, …”
• Repeat, adapting to the level of success of the
students.
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11. A lesson I plan to teach to a year 8 class
next Tuesday at CMS (Alice Springs)
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12. ONE HECTARE PARK
• A conservation park is to be enclosed by a
fence that has exactly 6 internal right angles.
What might the park look like?
• The total area of the park is 1 hectare. What
might be the perimeter of the park? (give two
different answers)
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13. What are the common characteristics
of those tasks?
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15. What is the point of these six key
principles ?
• We can all do these things better (although you
will find many of them affirming of your current
practice)
• Much advice is complex and hard to prioritise
• The principles can provide a focus to
collaborative discussions on improving teaching
• The principles can be the focus of observations
if you have the opportunity to be observed
teaching
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16. Improving teaching by thinking about
pedagogy
• The following principles are a synthesis of:
– Good, Grouws, and Ebmeier
– Productive pedagogies
– Principles of learning and teaching
– Hattie
– Clarke and Clarke
– Anthony and Walshaw
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17. Key principle 1:
• Identify important ideas that underpin
the concepts you are seeking to teach,
and communicate to students that these
are the goals of your teaching, including
explaining how you hope they will learn
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18. Feedback - better when they know …
• Where am I going?
–“Your task is to …, in this way”
• How am I going?
–“the first part is what I was hoping to see,
but the second is not”
• Where to next?
–“knowing this will help you with …”
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19. In terms of learning intentions, we
know
• It is much more difficult to describe the
purpose of lessons than we think
• The learning intention should
– not restrict
– nor lower the ceiling
– but provide focus to the students
– and the teacher
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20. In terms of the subtraction lesson
• There are many ways to find the difference
between two numbers
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21. In this lesson, I need you to
• show how you get your answers
• keep trying even if it is difficult (it is meant to
be)
• explain your thinking
• listen to other students
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23. Key principle 2:
• Build on what the students know, both
mathematically and experientially, including
creating and connecting students with stories
that both contextualise and establish a
rationale for the learning
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25. • It is more important to know what the
students know than what they do not
• Learning mathematics is not a hierarchy of
sequential steps on a ladder, but a network of
interconnected ideas
• Students can work on tasks that are beyond
what they know
– Students at GP 2 can work on GP 4 tasks
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31. Key Principle 3
• Engage students by utilising a variety of rich
and challenging tasks, that allow students
opportunities to make decisions, and which
use a variety of forms of representation
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32. 6 principles
For students to learn, two sets of factors
must align
• The first set of factors include that the:
–students have the requisite prior knowledge;
–curriculum is relevant to them;
–classroom tasks match their expectations;
–classroom tasks help them make connections
–pedagogies use their knowledge and experience;
–assessment regimes measure their learning.
33. 6 principles
The second set of factors relates to
• whether the students
–are motivated to learn
–see participation in schooling as creating
opportunities
–are willing to persist
–connect effort and success
34. Why challenge?
• Learning will be more robust if students connect
ideas together for themselves, and determine
their own strategies for solving problems, rather
than following instructions they have been given.
• Both connecting ideas together and formulating
their own strategies is more complex than other
approaches and is therefore more challenging.
• It is potentially productive if students are willing
to take up such challenges.
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35. 6 principles
This connects to “mindsets”
• Dweck (2000) categorized students’
approaches in terms of whether they
hold either growth mindset or fixed
mindset
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Students with growth mindset:
• Believe they can get smarter by trying hard
• Such students
– tend to have a resilient response to failure;
– remain focused on mastering skills and knowledge
even when challenged;
– do not see failure as an indictment on themselves;
and
– believe that effort leads to success.
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Students with fixed mindset:
• Believe they are as smart as they will even get
• Such students
– seek success but mainly on tasks with which they
are familiar;
– avoid or give up quickly on challenging tasks;
– derive their perception of ability from their
capacity to attract recognition.
38. Teachers can change mindsets
• This connects to
– the things we affirm (effort, persistence, co-
operation, learning from others, flexible thinking)
– the way we affirm
• You did not give up even though you were stuck
• You tried something different
• You tried to find more than one answer
– the types of tasks we pose
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39. Getting started
“zone of confusion”
“four before me”
•representing what the task is asking in a different
way such as drawing a cartoon or a diagram, rewriting
the question …
•choosing a different approach to the task, which
includes rereading the question, making a guess at
the answer, working backwards …
•asking a peer for a hint on how to get started
•looking at the recent pages in the workbook or
textbook for examples.
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40. Key Principle 3
• Engage students by utilising a variety of rich
and challenging tasks, that allow students
opportunities to make decisions, and which
use a variety of forms of representation
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41. Related to those 4 tasks above ..
• To what extent
– Are they challenging?
– Are they engaging?
– Do they allow student decision making
– Do they encourage different representations?
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43. Key Principle 4:
• Interact with students while they engage in the
experiences, and specifically planning to
support students who need it, and challenge
those who are ready
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50. Key Principle 5:
• Adopt pedagogies that foster communication, mutual
responsibilities, and encourage students to work in
small groups, and using reporting to the class by
students as a learning opportunity
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51. A revised lesson structure
• In this view, the sequence
– Launch (without telling)
– Explore (for themselves)
– Summarise (drawing on the
learning of the students)
• … is cyclical and might happen more than
once in a lesson (or learning sequence)
shepp secondary
Launch
ExploreSummarise
54. Key teaching idea 6
• Fluency is important, and it can be developed in two
ways
– by short everyday practice of mental calculation or
number manipulation
– by practice, reinforcement and prompting transfer
of learnt skills
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