As
a Teaching of Mathematics major (Secondary Education), I have constantly come
across the phrase, “Think like a Mathematician.” Up until this point in my academic career, I
never thought much into this being said or what it really meant. I guess you
could say I was not thinking metacognitively when hearing this, but I just took
it in surface level. I am sure that when I am saying this; that other
disciplines have heard this same phrase, but referring to their exact
discipline whether it is science, history, etc. When hearing this phrase, what
do you think? Do you think it has a deeper meaning?
After reading the readings from
this past week, I have come to the conclusion that this phrase means so much
more. It actually shows pre-service teachers and in-service teachers that our
future students do not know how to read through different disciplinary lenses
and that teachers need to remind them that when they are in different classes
that they need to think, read, and write for that discipline. If teachers need
to remind them that they need to do this, then it is apparent that there is a
lack in mentoring and showing students how to be literate across the
disciplines.
Buehl discusses that students
come to classes with different identities whether they are part of our nature,
related to positions we have attained, personal traits, and ones we share with
others through associations. These identities then influence our personal
profiles as readers (Buehl, 2011). These
identities can either empower or undermine academic performance. Learning in a
discipline requires people to enact different identities (Moje, 2011). For
example, I have always heard peers in my classes say that they were not good at
math because they liked another subject better. These things are either reinforced
by themselves or by others and what they say about them. These students will
then be coming into our classrooms with preconceived notions that they may or
may not read, write, or think well in particular subjects. This is where I believe
the phrase, “Think like a ___insert discipline here_______,” comes into play
because we need to remind our students that they need to think, read, and write
differently depending on the course.
As pre-service teachers or
in-service teachers, it is crucial for us to help our students to develop as
readers, thinkers, and writers across all the disciplines in the upper level
classrooms which can be done by using many strategies and practices (I was
surprised that majority of the teachers were not in favor of them based on the
article by Moje). As teachers, we have developed ways of thinking pertaining to
our particular disciplines, and it has now become natural to us. As Buehl said,
“Thinking this way as a reader comes naturally to me now. I just do it” (Buehl,
2011). No matter the discipline, we read for comprehension and understanding. Students
are asked and expected to be many different kinds of readers and writers as
they move on to high school. We have to examine and challenge what it means to
learn in different disciplines or subject areas (Moje, 2008). We want and
expect students to comprehend texts dealing with complex concepts by applying
skills that have been rarely taught. Moje discusses that literacy practice is
an integral part of subject-area learning rather than a set of strategies
engaging with texts (Moje, 2008).
Teachers consider themselves only
responsible for teaching the subject, but they also need to teach the reading
skills along with it. All subjects must challenge students to read and
understand complex texts. We need to apprentice readers, thinkers, and writers
in disciplinary literacy. One way we can do this is by modeling. We can give
access to how we think in order to build their models of thinking in relation
to this discipline. In my future math classroom, I would like to implement this
to help my students understand certain algorithms, equations, word problems,
etc. Teachers modeling their thinking was one of the ways I believe I became
very good at solving equations, word problems, and just math in general. Once I
saw how an expert was thinking about that concept, I began modeling my thinking
after that example. To see how a teacher deconstructs the problems, sentences
in the textbook, and definitions, it is correctly modeling reading through a
mathematics lenses. This can and should be done across all subjects. We also
have to support practice as well by scaffolding which is providing temporary
supports for instructional purposes that guide students in their thinking
(Buehl, 2011). An essential component of scaffolding is fostering classroom
student collaborations. Students will not use what was taught unless it is
practiced. They need to remember to use these practices and modeling whenever
doing work with that specific discipline. Then the student needs to read and
learn independently by applying processes of comprehension. If teachers model and scaffold correctly and if students practice and read/learn independently, they
will also understand the concepts more in depth. Once a student understands the concept
fully, they can then make connections across the entire discipline. Connections
can be made across many different subjects. In particular, math concepts build
off of one another and it is hard to understand them if you do not make
connections. In order for students to make these connections, they need to think,
read, and write like a Mathematician.
Elizabeth,
ReplyDeleteThe ideas you bring up about becoming like/thinking like a mathematician or insert your discipline (here) obviously require adequate and thorough “demystification” of the literacies of disciplines encountered in secondary school and proper supports and scaffolding, as you mention, but it also prompts me to review the article that we read for this week from Shanahan and Shanahan and how this idea has sort of come about in regards to reading skills evolving on their own or the “early reading vaccine”. This idea revolves around the belief that “once the basics of literacy were accomplished, students would be well equipped for literacy-related tasks later in life” (Shanahan & Shanahan, 2008). They argue that “a strong advanced literacy can only come from the rethinking of adolescent literacy instruction” (46). Without a suitable foundation off of which to build their identities and confidence in the disciplines taught in middle school and high school, how can we expect students to become advanced or expert readers and ultimately translate those skills to even more advanced and complex materials in college?
Hello Margaret,
DeleteThank you very much for your reply! I agree that Shanahan and Shanahan brought forth some very insightful ideas. I agree that a "strong advanced literacy can only come from the rethinking of adolescent literacy instruction." A proper foundation would absolutely be the place to start. You are absolutely right. If we do not give them a proper foundation to build their identities and help build their confidence, they will not be able to advance their literacy skills especially in the college level.
Thank you again for your reply! have a great day!
I really like how you use the idea of "thinking like a mathematician". As a teaching of history major, the phrase "Think like a historian" is used frequently in day to day conversations. But I feel as though this kind of thinking has only appeared in my collegiate experience. It is so important to advocate for this kind of learning while students are still in high school.
ReplyDeleteMoje argues that this type of disciplinary literacy builds an understanding of how knowledge is produced in the disciplines, rather than just building knowledge in the disciplines. (Moje, 97). Using this understanding og the making of knowledge helps students comprehend each facet of a certain subject and develops critical learning skills so that they can use different lenses for different subjects.
Hello Amanda,
DeleteThank you very much for your reply! I agree that this phrase is heavily used in one's collegiate experience. It is crucial for students in high school to be taught disciplinary literacy skills, strategies, etc.
Thank you again for your reply! Have a great day!
I also have heard the phrase “Think Like a Scientist” several times through my academic years, and I’ve never thought deeply about it. I understand now that this phrase means that learning science involves more than becoming only knowledgeable about its content. Learning science involves learning how scientist read, write, and think. According to Buehl (2011), our identities influence our reading profiles. I admit that my identity as a second language student has influenced my reading profile as a college student. I received my education up until high school in Jordan and primarily in Arabic. I have attended college in the USA as undeclared major, and in the first year I took only second language classes. In these classes, I learned how to read, write and communicate in English; however, I am still a slow reader and writer in English, and this has influenced my reading profile throughout my academic years in college. I always preferred subject areas that don’t require a lot of reading and writing, so I have started to develop more interest in Math and Science especially, Chemistry.
ReplyDeleteI started to take more Chemistry classes during my first years, but when I took organic chemistry with professor Fraiman, I started to think about majoring in chemistry. Professor Fraiman mentored and guided us as students until we gradually constructed our own knowledge and our own skills to read and think in organic chemistry. Then she enabled us to be more independent and engaged in a collaborative work. The strategies she taught along with the content knowledge helped me to be more competent in organic chemistry, and I was able to excel her class. The next semester she hired me as peer leader for organic chemistry seminar. Based on my experience as peer leader and the feedback I got from the students I taught, I have realized that I am literate and competent in chemistry, and I have the teaching skills to teach and communicate it to others. As a result, I was able to think like a chemist, and then I decided to be a chemistry teacher. I can see now how my identities has influenced my reading profile and driven me away from disciplines that requires a lot of reading and writing in English, and led me to major in teaching of chemistry.
I agree with you that teachers not only responsible to teach the content of the subject, but also are responsible to teach reading strategies along with it. I will also model my thinking while I am teaching students how to solve chemistry problems. I will provide my students with the necessary scaffolding to help them to construct their own knowledge. I will guide my students to find an answer for their questions by thinking and acting like a scientist and through inquiry-based experiments.
Hello Hadeel,
DeleteThank you very much for the reply!I completely agree that learning a subject is more complex than just being knowledgeable about the content. Thank you very much for sharing your personal experience. I am glad that you found the subject that you loved and found a mentor to guide you on that path! :)
I agree that modeling your thinking will be beneficial to students.
Thank you again for your reply! Have a great day!
Hello Elizabeth,
ReplyDeleteThere's a lot to respond to and there was a lot to negotiate, for sure. One thing that you said that I want to respond to in particular is that you were surprised that according to Moje, the majority of teachers did not seem to use the "disciplinary literacy practices" Moje calls for. I thought it was kind of interesting and perplexing that Moje indicated most teachers do not teach literacy in the way she prescribes, and yet she states generally that "Ms. Landy ... as well as other middle school science teachers [her] colleagues and [she] observed" do in fact implement the practices. This leads me to believe that many teachers, in fact, do implement the prescribed literacy tactics. I need more clarification about what her point is in this passage.
As far as thinking like a mathematician goes, I think I prefer the approach of "thinking mathematically." On the one hand, people have their own identities and asking students to adopt many different scholarly identities as part of their own seems daunting and perhaps confusing to the students. I never would have considered myself a scientist or a mathematician when I was in school, or a literary scholar, so I instead of loved the idea in the "Habits of Practice" article that said we should encourage students to concentrate on the practice as opposed to the person. That way their identity does not need to change suits but instead grow in the way that "I am a person who can think mathematically/historically/scientifically/literarily/kinesthetically" expands one's identity. As a learner.
It was interesting to read an article written by Physical Education teachers regarding literacy as it provides a very, very fresh take on what literacy means and applies to. I agree with them that thinking like the expert can be problematic especially in the context of P.E. where thinking like "an expert" of the physical realm quickly implies thinking like an athlete. This seems rather problematic in a social climate such as a middle or high school where jocks often hold such a crucial and powerful position in the hierarchy.
Last thing I need to respond to you about is how we can implement literacy in classrooms. From my own personal experience, I think that teachers have not been concerned enough with making sure every student understands the written language of mathematics. Now this may be somewhat against what the article was saying, but then again, they also call for different disciplines to implement literacy in different ways. I remember being in Algebra II and thinking the whole year that my teacher was saying "ace of zero" when he wrote "a_0" on the board. And I did not feel comfortable with sigma notation for a long time. Logarithms too. Just last week in 590, we had to go over what logarithms mean and what part of a logarithm corresponds to which part of an exponential notation. But that is cool! It is cool to have our own language to work with that is written in non-English but also can be spoken out loud in English. I just think that making sure every student feels comfortable reading and writing with math symbols in turn is crucial to thinking and practicing mathematical literacy.
I agree with Max: the concept of thinking "mathematically," as opposed to "thinking like a mathematician," as is proposed by Wickens et al., is useful for making apparent the portability of literacy skills beyond their original discipline. Students who ask "why do I need to learn this, anyway?" will not be sated by answers like "so you can go to college," or "because math is important." Seeing how mathematical thinking can be deployed within the realm of their own interests, though, is paramount. As Moje explained, students are usually already navigating an array of "disciplines," outside of school, but it is often difficult to see the connection between those outside interests - which are replete with new media and textual complexity - and the disciplinary modes found within the school.
DeleteBut, say, we have a student who loves writing creatively and hates math. Maybe if we are able to foster the collaborative approach to disciplinary literacy that Moje espouses, an English teacher implements an exercise in charting and mapping sentences within that students' favorite short stories. So, now this student is thinking "mathematically" about how these sentences in the stories she loves are constructed - what makes them so meaningful and powerful? Then, if the teacher calls attention to this "mathematical" approach, it becomes a little easier for the student to feel capable during Algebra next period.
I think the real benefit of the disciplinary literacy approach comes when the disciplines are allowed to intertwine. Students don't build their knowledge in isolated silos; everything is connected. It is our job as educators to help them make those connections, I think.
Hello Max,
DeleteThank you very much for your reply.
You are right; the teachers most likely implement these strategies. I really like the idea you brought forth about thinking mathematically. I think you are absolutely right.
I have personal experience as well regarding seeing teachers not focusing on written mathematics. This needs to be focused on more in depth. Great point.
Thank you for your post! Have a great day!
While reading your post and the readings I was constantly thinking of a story a professor once told me. He used to teach a high school chemistry class, and when it came to units such as working with moles, he would have to reteach students how to multiply fractions. That is, when it came to converting and canceling units he had to go through the property of cancelation. Now, in a math class students are normally well aware of reducing fractions, which is a notion of canceling common factors of the numerator and denominator. These concepts of cancelation are almost identical, yet since students are looking at it through different academic lenses they freeze. You touched on how students should be taught to look through these different academic lenses. To build on that, I feel students should be taught the bridges between academic courses, similar to the situation above, to aid in their ability to look through the different academic lenses. However, I do understand reading a math textbook is much different than reading a novel. You also touched on how math teachers should take the time to teach students how to read their math text. I completely agree with this. Making time for this though may be tricky. Most math courses have a strict schedule of things that need to be covered, so time to teach this technique may be limited.
ReplyDeleteI can agree, that in most of my math class we were often told to think like a mathematician. For example, a simple simplification of equations, my teachers in high school often would tell us if a mathematician were in our shoes what would be the first step they take. I often heard the phrase and took it literally like I mentioned I often put myself in the shoes of others and took the role of trying to solve the problem. To me, it helped with my thinking process as I was able to think first of all the steps I needed in order to achieve a solution. I agree that student needs to think, read, and write differently depending on their course but it would be easier if students were first taught how to approach it. It also surprised me that many teachers don’t agree with the strategies imposed, I believe it’s important to have those resources available as they will be able to use them in whatever class they are in. In the article of Habits of Practice “disciplinary literacy instruction uses scaffolds and supports for disciplinary practice, it invites students to participate in the discipline and communicates”. So, if we can make Math approachable for students then other classes will be easier for them to approach as well.
ReplyDeleteAs a future secondary math teacher, similarly to yourself, when reading this piece I had nothing but agreement with your words. I do believe that modeling is a perfect way to explain mathematics. as a current student I love the insights I get when the professor not only solves the problem but explains his thoughts and how he got the answer. it shows you what to look for and what connections should be made. so I do believe this is a great tool when teaching younger students because it allows them to understand the material but also establishes skills that can be applicable in the future and other subject areas they have.
ReplyDeleteNot only that, since math is a subject with many different symbols, learning to read math is vital. it makes everything easier once you know how to read symbols and such, so literacy is key in many subjects, not just those with words.
I agree that it is important for students to 'think like mathematicians' when doing work related to mathematics. Specifically, it is ideal that students view and work through the lens of an expert in whichever subject is being considered. However, problems can arise when students are not particularly comfortable with a certain subject. For example, one that reads very often through the lens of a historian might have trouble switching over to the lens of a mathematician. As Buehl (2011) points out in Developing Readers in the Academic Disciplines, it is crucial to employ a "supported practice phase [that] engages students in test-driving this thinking as they confront tasks of a discipline" (p. 28). This is to say that, through scaffolding, educators can work to help every student learn to take the approach of an expert in their field, and this requires a deep understanding of literacy within the discipline. However, how can one teacher to about 30 children successfully do this?
ReplyDeleteI do not recall hearing the phrase "Think like a Mathematician" during my earlier school days but I would imagine that I would have been confused if that was the only advice given to me. After the readings I can definitely see how that advice, once understood, would help a student grow in different subjects when applied to each. I believe that in most of my education I approached my classes with an intermediate literacy mindset. Depending on how much I wanted to invest in that subject would determine if I utilized disciplinary literacy and "viewed it through the lenses" of that subject. Reading, talking and listening in a specific language of an area being taught can bring about a membership mindset and maybe encourage a student to want to learn a little bit more than before. The readings this week makes me reevaluate my mindset of wanting teachers to "dumb it down" for me. I think in the beginning that may be acceptable but there should be a transition to press the student to know the language and thought patterns of the experts of that field. I see this helping me to help others to help themselves "want" to learn math as we talk about it in terms that only us math minded people (the students and I), eventually, can understand.
ReplyDelete