Satsope Maoto Faculty of Humanities, University of Limpopo - - PowerPoint PPT Presentation

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Satsope Maoto Faculty of Humanities, University of Limpopo - - PowerPoint PPT Presentation

Satsope Maoto Faculty of Humanities, University of Limpopo NSTF/Wits Maths Connect/The Ukuqonda Institute Challenges of and opportunities for reform in numeracy and early algebra education. What makes reform difficult and how such


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Satsope Maoto Faculty of Humanities, University of Limpopo

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NSTF/Wits Maths Connect/The Ukuqonda Institute

  • Challenges of and opportunities for

reform in numeracy and early algebra education.

  • What makes reform difficult and how such

difficulties may be addressed?

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In the context of this symposium

  • Reform is to be understood as:

a shift towards goals and classroom practices such as those advocated in the theories of Realistic Mathematics Education (Holland), Didactical situations (France) Problem-centred learning (USA and South Africa) and Cognitively- guided instruction (USA)

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Key ideas for RME

  • The argument is: commencing mathematics

teaching and learning at a more formal and abstract level without first engaging learners’ informal knowledge does not develop conceptual understanding.

  • Learner-centred instructional approaches should

enable learners to move from their own intuitive solutions to more sophisticated, formal strategies

  • f working on problems.
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‘Realistic’ in RME has a broader connotation

(Van den Heuvel-Panhuizen and Drijvers, 2013)

  • means learners are offered problem situations

which they can imagine.

  • problems presented to learners can come from

the real world, but also from … the formal world

  • f mathematics, as long as the problems are

experientially real in the student’s mind.

  • A distinction is made between horizontal and

vertical mathematization (Treffers 1987).

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Marja van den Heuvel-Panhuizen (2010)

  • Horizontal mathematization involves going from

the world of real-life into the world of mathematics.

  • Vertical mathematisation - moving within the

world of mathematics. - the process of reorganisation within the mathematical system resulting in shortcuts by making use of connections between concepts and strategies.

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RME Principles

(Freudenthal, 1979, 1968).

  • The activity principle – Learners are treated as

active participants in the learning process. Transferring ready-made mathematics directly to learners is an ‘anti-didactic inversion’ (Freudenthal, 1973) which does not work.

  • The reality principle - aimed at students being

capable of applying mathematics (situated at both the beginning and end of a learning process).

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RME

  • The level principle - learning mathematics means

that learners pass various levels of understanding

  • The intertwinement principle - mathematical

domains/topics are not considered as isolated curriculum chapters but as heavily integrated.

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RME

  • The interactivity principle signifies that the

learning of mathematics is not only a personal activity but also a social activity. RME is in favour of whole-class teaching’.

  • The guidance principle - learners are provided

with a ‘guided’ opportunity to ‘re-invent’ mathematics (Freudenthal, 1991).

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RME – Mathematics should be meaningful

(Gravemeijer, 2004; Van den Heuvel-Panhuizen & Drijvers, 2013)

  • Learners have to be active in constructing their
  • wn knowledge
  • Should experience mathematics as a human

activity

  • Should reinvent conventional mathematics by

mathematising both subject matter from reality and mathematical matter under guidance of the teacher

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Instructional Materials + Assessments Supplemental Supports for Currently Struggling Students Goals + Vision

Coherent Instructional System (Paul Cobb presentation)

Teacher Learning Subsystem:

  • Pull-out PD
  • Teacher Collaboration
  • Mathematics Coaching
  • Teacher Networks

Instructional Materials + Assessments Supplemental Supports for Currently Struggling Students Goals + Vision

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The program of work in a reform classroom

may consist of:

  • a program of learning activities providing for

developing of basic skills, factual knowledge, representations

  • interspersed by periods/sessions in which

learners engage with challenging tasks and productions that emerge from such engagements, involving one or more of the elements: –engage/articulate/reflect/refine/extend:

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The program of work in a reform classroom

  • Linear or non-linear?

a program of learning activities providing for developing of basic skills, factual knowledge, language and notations Engage Articulate Reflect Refine Extend Engage Articulat e Reflect Refine Extend Engage Articulat e Reflect Refine Extend

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The expectation in a Reform Classroom

is that learning in this way will produce much more than procedural and factual knowledge:

  • Learners learn to act mathematically
  • Learners acquire conceptual knowledge
  • Learners acquire productive dispositions with

respect to mathematics

  • Learners engage in mathematical practices in

increasingly sophisticated ways

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Reform Classroom

Learners learn to act mathematically Learners acquire conceptual knowledge Learners acquire productive dispositions with respect to mathematics

Learners engage in mathematical practices in increasingly sophisticated ways Learners articulate their productions Learners extend

  • n their actions

and productions Learners refine their actions and productions Learners reflect on their actions and productions Learners engage with challenging/ novel task Gradual sophistication of procedures, enscription and articulation

However, it does not necessarily work well, in fact it does not necessarily happen at all.

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Critical for the Learner

Learners engage with challenging /novel task Articulate their productions Reflect on their actions and productions Refine their actions and productions Extend on their actions and productions Develop Identities

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Currently in South Africa (SA)

  • There are Curriculum and Assessment Policy

Statements (CAPS) for various phases

  • Various views about teaching and learning

Mathematics still existing

  • Draft document by the Ministerial Task Team:

Mathematics Teaching and Learning Framework for South Africa – Teaching Mathematics For Understanding still to be formally presented to the bigger Mathematics Education Community

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Model of Mathematics Teaching and Learning

CONCEPTUAL UNDERSTANDING LEARNERS’ OWN STRATEGIES MATHEMATICAL PROCEDURES REASONING Dynamic Classroom Culture

Active learning Investigative teaching Purposeful assessment Concept development Effective communication Variety of contexts Maths language Logical reasoning Error analysis Project-based learning Problem solving

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SA (CAPS)

  • defines Mathematics as:

“a language that makes use of symbols and notations … a human activity … It helps to develop mental processes that enhance logical and critical thinking, accuracy and problem-solving that will contribute in decision-making.”

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Interpreting the definition in the context

  • f a Mathematics classroom
  • “Mathematics teachers should be planning

and presenting lessons that engage learners in conceptual thinking about mathematical ideas, developing their mathematical language in order to express themselves mathematically, building their procedural competence in ways that enable them to use mathematical procedures effectively in both routine and problem solving activities”

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IMPROVED FUTURE CLASSROOMS

Supporting teachers for

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Teacher’s Role

“the teacher is at the epicentre of the learning process”.

In the context of “reform mathematics”

  • Should guide the sophistication (Cobb)/ specification

(Bernstein)/ institutionalisation of “mental methods” (connoisances) towards conventional formats (savoirs) (Didactique – Brousseau)

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Mathematics

Deconstructing mathematics as a human activity and a body of knowledge, with education in view is a prerequisite for

  • designing quality tasks for learning,
  • articulating advanced curriculum goals, and
  • providing adequate initial teacher education and

in-service training.

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What makes reforms difficult?

  • In the SA context, Quick response might be:
  • As long as teachers do not see their role

changing with reforms, nothing will change in their classrooms

  • Without teachers experiencing the kind of

teaching and learning envisaged, the good intentions will never be realised. (Teacher quality matters).

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Some thought

  • Let us get rid of the teacher and allow

learning to take place Will this be a better solution?

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Promote learning to an extent to which learners are conscious

  • f what is going on

Teaching towards learning as a process task- consciousness

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What makes reform difficult?

  • One of the factors that would always affect

mathematics’ performance of learners is: a variety of teaching and learning styles are to be found in operation in mathematics lessons, each depending on/influenced by:

  • the teacher’s knowledge (skills and

attitudes) of mathematics and

  • the teacher’s knowledge about

mathematics.

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Some points to ponder…………..

  • Teachers are VERY special people
  • But we seem to want them to be

SUPERHUMAN

  • There is no time to experiment with learners

– they grow up too quickly and we have but ONE chance to educate them and equip them

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What makes reform difficult?

  • The kinds of tasks, questions, classroom

interactions and targeted content that ground mathematics teaching and learning within and across the different educational levels in most cases seem to:

  • lack coherence
  • lack focus on important mathematics

and

  • lack appropriate articulation.
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Teaching for conceptual understanding?

Learning Material Development Engagement Whole Class Engagement Learner- Facilitator Engagement Learner- Learner Engagement

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Learner engagements

  • Learner – Material engagement

Enables the learners to make sense of mathematics as a domain of conceptual activity that is rewarding in the sense of personal identity/expression and useful engagement with aspects of reality. Enables formation of own

  • pinion for later engagements.
  • Learner – Learner engagement

Allows spontaneity of engagement while it also provides retreating base for further refinement of thought.

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Learner engagements

  • Learner-Facilitator engagement

Offers opportunity to engage Individual learners through setting up situations in which they engage productively, followed by reflection and construction of knowledge and development of capacities to act mathematically. Provides platform for learner-learner or whole class engagement with confidence and clarity of thought.

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Learner engagements

  • Whole Class engagement

This is the ultimate forum to clarify and consolidate thoughts. There is creation of an environment that nurtures and refines learners’ intuitions and technical skills. Further reflections in action occurs and may guide further teaching.

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Recommendations

  • Shared philosophy – Mathematics should be

meaningful

  • Success in mathematics requires a shared

philosophy of teaching and learning

  • Are we for teaching for conceptual

understanding or NOT?

  • What is best for learners?
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Shared philosophy?

  • If a philosophy for teaching and learning

mathematics is not shared, the struggle continues

  • As long as teachers; tertiary educators;

curriculum developers and material developers (textbook authors) do not see their roles changing with reforms, nothing will change in the classrooms particularly at school level

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The reform enterprise

  • Both Quality and Quantity are national needs (Prof

John Bradley’s presentation) Textbook writers/Material developers design good tasks P

  • l

i c y w r i t e r s c l e a r l y a r t i c u l a t e “ a d v a n c e d c u r r i c u l u m g

  • a

l s

Teachers receive sufficient training and professional support E d u c a t

  • r

s d e s i g n g

  • d

t a s k s

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Recommendations

  • Constructive alignment

If we agree that students are to be given room to work on their own solutions, there is also room for teachers, teacher educators, teacher counsellors, researchers and developers of mathematics education, and textbook authors, to include their own nuances in the core ideas

  • f Reform.

Implementation accompanied with ownership for all involved in the reform is an essential value.

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Recommendations

  • There should be constructive alignment among

the kinds of tasks, questions, classroom interactions and targeted content that ground mathematics teaching and learning within and across the different educational levels

  • The teaching and learning of mathematics should

remain anchored on the bigger picture and in that way mathematics is meaningful, accessible, expandable and transferable (Maoto, Masha & Maphutha, 2016).

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Recommendations

  • A Reform Requires Professional

Development of Teachers

  • teachers learn the same way as learners,

thus for them to expose learners to experiencing mathematics, they should have experienced it

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Recommendations

  • Integrated approach

“One insight we got is that there’s almost no mathematics worth learning that breaks into lesson- size pieces,” (Daro, …)

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Recommendations

For teacher education

  • Constructive alignment across and within the

levels

  • Re-curriculation processes should take care
  • f expectations at school level, i.e.

curriculum design to be within the negotiated and agreed upon mathematics framework

  • Our classroom interactions should model

what we expect student teachers to go and practise in schools

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And even more so, it requires focus

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THANK YOU