Improving Pedagogical Practices & Incorporating Big Ideas into the Classrooms
Comments from evaluation panel:
To encourage such research projects by teachers in school. Sustained department-wide research over 2 years, with impact on improving the 4-year curriculum and teaching practice.
Name of Team |
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Title of Project |
Improving
Pedagogical Practices & Incorporating Big
Ideas into the Classrooms |
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Facilitator |
Phua-Tan Gek
Hoon |
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Team Leader |
Christina Lye / Sharon
Lee (2019) |
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Secretary |
- |
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Members
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Elizabeth Liow Ong-Yeo Pih Tai
(2019) Sam Choon Juen
(2020) Caren Hui (2020) |
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Initiated on (date) |
Dec 2018 |
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Completion date |
Nov 2020 |
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Objectives/Targets |
To improve our
pedagogical practices by developing a greater awareness and understanding of:
-
the nature of
mathematics -
the big ideas central
to the discipline and bring coherence & connections between different
topics so as to develop in students a deeper and more
robust understanding of mathematics and better appreciation of the
discipline.
To co-construct new ways to teach towards the big ideas |
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Implementation Process
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Extent of Improvement/ Targets met
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o Teachers are more familiar
with the MOE 2020 Secondary Mathematics Syllabus and ways to implement the
big ideas into the classrooms
o All levels had managed to
create at least one lesson unit that incorporated the Big Ideas and this was
shared with the department in Term 3 2019.
o There has been an increase in
the percentage of topics in which Big Ideas had been implemented across most
levels. Teachers have been making a conscious effort to infuse the 8 Big
Ideas into the classroom. Teachers also use the big ideas across topics to
bring about coherence and connections.
o Findings based on IP, SIP and
Advanced Math Programme surveys showed that students remembered the Big Ideas
that had been introduced in class though the term “Big Ideas” had not been
explicitly mentioned in class nor have the big ideas been taught as a single
unit. Students were able to articulate what they had learnt and were able to
connect the big ideas to the mathematical concepts. They were also able to
connect the big ideas across topics. A few students were even able to connect
some of the big ideas to Science. There were also students who did not
remember or who were not able to connect the big ideas to what they had
learnt. (See Annex C for results of survey)
Qns in Survey: -
Select the Big Ideas that you have come across this year (you
may select more than one) -
Select one topic learnt this year and describe how the Big
Idea(s) in that topic has helped you better understand or appreciate the
concepts in that topic. -
Can you connect this Big Idea to another topic that you have
learnt this year or previously? If
yes, describe briefly the connection.
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Recommendations/ Conclusion |
Moving forward, the
department will look at how concept-based can be used to support the infusion of these big ideas
further. The department will
also look at how the Big Ideas of “Invariance” and “Models” can be infused
into the classroom as these were the two ideas that were generally least
recalled, remembered or mentioned.
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Annex A
Annex B
Level
Reflection on Reading
We have read MOE 2020
Secondary Mathematics Syllabus. We shall pen down our reflections as a level
using the given table.
What is already implemented in our department
current practice for good teaching and learning of Mathematics? |
What is new? What strikes you? |
Is there anything that you are not sure of? |
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Sec 1 |
We have already
infused the teaching of big ideas into the sec 1 lesson notes. E.g. Notations
and equivalence in Basic algebra. Students become more aware. We have planned for
PISCA. Though not all sec 1 classes have done it. Use of lesson notes
checklist. Problems in
real-world contexts e.g. 62.2 million passengers in changi airport vs exact
number in EA. Reasoning. We use questioning
techniques, exit cards and topical quizzes for assessment for learning. AFL (skills/do): exit
cards, short quizzes, error analysis (knowledge):
recalling facts with Kahoot!, match making worksheet for definition of BA. (understanding): cognitive closure |
All must put in
conscious and conscientious effort to read through and check the 2020 doc for
big ideas and learning experiences infusion. There are many
examples of infusion of big ideas and learning experiences in the 2020
doc. Are there other AfL
strategies besides exit cards, quizzes, diagnostic test? We also need to
strengthen our data analysis and interpretation of assessment results which
is also at times, limited by the mode of assessment. Eg Exit cards are a good
way to diagnose students’ fundamental understanding and check students’
presentation. However, it does not give us a holistic view of the students’
understanding Eg: Key understanding (besides skills and knowledge). This
leads to the crafting of essential questions and guiding questions for the
unit. Getting students become aware of the Pentagon
framework. Introduce the Pentagon to them or let them experience the
different aspects of the Pentagon? |
When we teach some
topics in future we may have questions about what is the difference between
Invariance and Equivalence, Models and Diagrams. How to put in big
ideas in activity-based tasks e.g. alternative tasks? How to use big ideas
across topics to bring about coherence and connections? The next time we talk about Notations and
Equivalence we can ask students to recall what previous topic they have
learnt about those Big Ideas before. How else can we bring about these
besides recall? |
Sec 2 |
Linear graph - use
of ipad graph app to explore gradient and y-intercept of a line. Introductory problem at the start of the chapter
for students to appreciate the application of math discipline. |
the conscious effort to link what we are teaching,
to the terms of 8 Big Ideas. |
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Sec 3 |
We have included the
use of Desmos and Geometer Sketchpad apps for inductive learning Learning Math as a
tool - using Math as problem solving using contextual problems + alternative
tasks PISCA - for
metacognition Main Themes of math
such as functions, operations, equivalence, abstractions are frequently
mentioned in class and in our notes. Engagement -
Teachers pose questions and follow-up questions in engaging the
students Extended learning in
class - still working on how to make this a regular feature in our classes Formative assessment
- Exit Cards, Quizzes, Nearpod, Kahoot, Reflections and Review, etc. Real World Context -
examples show how math concepts are visible in real world situations, and how
the math explains the reality |
Questions which
require students to formulate equations for a contextual problem (see A.Math
paper 2018) |
Lesson Preparation:
Having standardized notes can be rigid and makes it harder to customize for
different abilities. Student Profiling -
At the start of the year, we can get a sense of the attitude of students
towards Math Motivation - provide
contextual problems which are interesting to them. Teaching Math as a discipline, not merely as a
tool |
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