Week Two
Problem-Solving, Real-Life, Inclusion, and Collaboration
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| https://pixabay.com/en/school-back-to-school-education-2596090/ "Back to School" by Simisi1 |
Last week my blog post focused on math myths,
misconceptions, stereotypes, and how math contributes to brain growth. This
week’s online module as well as class activities, lesson, and discussions,
included great talk about growth mindset as well, but allowed me to experience
growth mindset. During the first Settler activity we did in class, I was initially anxious as my
“mental” math skills have never been relatively strong. However, it was
stressed that it was more the process of the activity than the final answer
that mattered. I knew that my effort would be celebrated rather than how fast
or how effectively I came to the answer. When taking on this mindset I started
having more fun, became more confident, and actually improved with each new
equation. This really made it clear to me that the strategy is much more
important than the answer. In the classroom it is imperative to initiate
discussions or reflections regarding the process, rather than simply what answer
students have arrived at. By doing so, all students can be successful. The “Mindset”
video watched in the online module supports this idea by explaining that by
taking on this growth mindset in math activities, students will try longer and
harder, see mistakes as learning opportunities, and persist when something
appears to be hard.
This idea is also supported by the “Mathematical
Proficiency” reading we did. It discusses the important concept of Productive Disposition whereby students
see mathematics as sensible, useful, worthwhile, and believe that steady effort
in learning mathematics pays off. These students see themselves as effective
learners and doers of mathematics, rather than if they are or are not a “math
person”. I believe that for students to see mathematics as sensible, useful,
and worthwhile, it is crucial to involve a level of realism within activities
and problem-solving. For example, algebra is an area of mathematics often met
with oversight or lack of care. After reading the article on Algebraic Reasoning
I learned it can be beneficial to relate this area of mathematics to its real-world
uses/purposes such as the careers it is used in (i.e. architects, construction
workers, bankers, software developers, scientists) or its benefits in regular
life activities/events (i.e. learning flexibility, making predictions, making
connections). Explaining these features of algebra to students can help them
see the importance and be more enthusiastic to learning algebra. This also
makes me think of, how during my first placement, students often connected
better with mathematics or exhibited more enthusiasm towards mathematics,
during problem solving activities. I found that was because the problem-solving
activities related to real life and they could see the benefits of the
mathematics as it pertained to real life situations. This relates back to the “Mathematical
Proficiency” article, that discusses how Strategic
Competence means students can formulate mathematical problems, represent
them, and solve them, which in turn helps them with real life problem solving. By
teaching strategic competence or being transparent to students about why they
should improve their strategic competence, could benefit their lifelong
mathematical journey. The curriculum mentions that students learn
mathematics most effectively when they are given opportunities to investigate
ideas and concepts through problem solving and are then guided carefully into
an understanding of the mathematical principles involved. This further shows me
that integrating problem-solving into math lessons may be the most beneficial
avenue to teach mathematics.
Connecting these thoughts on
integrating real life relevance and problem-solving into the classroom, to what
we did in class this past week, I have further come to the conclusion that
problem-solving can be the most effective method of teaching mathematics. We
discussed as a class the importance of developing patient problem solvers. This
can be done through levelling the playing field for all levels of achievement
and different learning styles. It allows students to enter the mathematical
conversation who may previously have felt too intimidated or inadequate. When
introducing a problem to the class, you can highlight simply the observations, potential
different strategies, and ultimately focus on the process over the answer. You
can provide multiple learning tools including manipulatives and visuals. You
can integrate gallery walks that focus on all the different approaches and
tactics students used. You can allow students time to revise their approaches
or choice of tools. Another great way to foster equity and inclusion in
mathematics is using centers or stations, that once again allow all students to
participate, as well as focus on problem-solving, strategizing, and
mathematical processes. Small groups can also foster teamwork in mathematics. I
remember math being a very independent and individualized subject, and that
added a great deal of anxiety and a big fear of the challenge. Through group
work, class discussions, and gallery walks, the fear and anxiety can be taken
away, and comradery can be established. Often mathematics in real life and
future careers involve teamwork and collaboration, so why not start that early
on in education.
To end off this blog, I want include
the video we watched in class where Dan Meyers discusses the importance of
making math meaningful, accessible to all, and realistic. His goal of taking
textbook math questions and showing their relevance in real life, stripping
them down so all students can participate in the conversation, and adding in a
multi-media aspect, was very inspiring and ties together all of my above
thoughts on mathematics.

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