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Thinking About Metacognition

By Cynthia Brame, CFT Assistant Director

 

I’ve been thinking a good bit about metacognition lately, which is kind of funny, if you think about it. Metacognition can be defined very simply as thinking about thinking, or more fully as by developmental psychologist John Flavell:

“Metacognition refers to one’s knowledge concerning one’s own cognitive processes or anything related to them, e.g., the learning-relevant properties of information or data. For example, I am engaging in metacognition if I notice that I am having more trouble learning A than B; if it strikes me that I should double check C before accepting it as fact” (Flavell, 1976, p. 232).

How People Learn, the important work from the National Academies outlining our knowledge about learning, emphasizes the importance of metacognition as one of three major conclusions about learning:

“A ‘metacognitive’ approach to instruction can help students learn to take control of their own learning by defining learning goals and monitoring their progress in achieving them” (Bransford et al., 2000, p. 18).

When confronted with statements like these, most of us recognize how important it is to monitor one’s own understanding while trying to learn. The hard part, of course, is figuring out how to promote such metacognition in our students. I’ve recently been lucky enough to come across several good strategies from different sources.

Teaching students to ask questions about their own learning

Kimberly Tanner from San Francisco State University recently published a feature article about metacognition in which she offers multiple strategies to teach students to monitor their own learning (Tanner, 2012). My favorite strategy is perhaps the simplest: Tanner provides a list of questions that she suggests instructors could give to students as a mechanism for students to plan, monitor, and evaluate their preparation for an exam. An excerpt:

These questions prompt students to engage in the kind of self-reflective processes that will allow them to become self-sustaining learners. In essence, the questions provide students a roadmap for monitoring their own learning—and while we may wish that they had developed such a roadmap prior to entering our classes, most of us have experiences suggesting that not all of them have.

Talking about cognitive levels

My colleague Nancy Chick, CFT assistant director, uses a similar strategy in her writing classes that she has previously described in a Professor P blog post. Here, though, I want to tell you about another powerful strategy for promoting metacognition that I observed Nancy use when I visited her class. Nancy was preparing her students to do a writing assignment. As she was explaining the assignment, she displayed an image illustrating Bloom’s taxonomy of cognitive functions, which she had clearly shared with the students previously. She reminded them about the cognitive functions, and then pointed to the higher levels –analysis, synthesis, and evaluation—and told the students that this was where they needed to focus their efforts.  It was a powerful way to get students to think about the purpose of the paper they were going to write, and by focusing their attention on how they were thinking, I suspect it improved their learning.

The role of metacognition in  mentoring

I’ve recently been participating in beta testing of a Mentor Training for Biomedical Researchers curriculum developed by Chris Pfund and colleagues.  Although they didn’t use this language, several of the sessions suggest strategies designed to promote metacognition in mentees. For example, one of the last sessions focuses on promoting mentees’ professional development. One strategy suggested asks the mentee to establish a formal professional development plan, with short-term goals, long-term goals, and a list of skills needed to accomplish each goal. Furthermore, the mentee is asked to identify a potential mentor for each goal as well as an outcome that moves the mentee toward the goal.  In essence, the strategy proposed as a good mentoring tool is one big metacognitive exercise—which makes sense, as mentors of graduate students and post-docs are ultimately trying to help their mentees become self-sustaining, life-long independent learners.

My new tool for promoting metacognition

This spring, I’ll be teaching a Biology of Cancer course for undergraduates. I’ve taught this course before, and I find that one of the big challenges is getting students to put together all the disparate information we have about carcinogenesis, considering what they do and don’t know. This spring, I’m trying out an exercise that I’m calling a “synthesis map.” In essence, the students are going to develop growing visual models of carcinogenesis, using Prezi as their tool; see also Derek Bruff’s blog post. As they learn about an aspect of carcinogenesis (e.g., an overactive signaling cascade, aerobic glycolysis, or epithelial-mesenchymal transitions), they’ll have to figure out how to fit it into their previous model. Constructing this kind of model is hard mental work, and forces one to think about how pieces fit together—and what it means when the answer is not obvious. Since it is such hard work, I’ll have to be careful to make it valuable to the students in ways that they value in the short term (i.e., points) as well as the long term (i.e., learning). Wish me luck!

So my conclusion to all of this is that there are so many ways to promote metacognition in our students …and so I’ll probably keep thinking about thinking about thinking as long as I’m trying to teach.

 

References

Bransford JD, Brown AL, and Cocking RR (2000). How people learn: Brain, mind, experience, and school. Washington, D.C.: National Academy Press.

Flavell, J. H. (1976). Metacognitive aspects of problem solving. In L. B. Resnick (Ed.), The nature of intelligence (pp.231-236). Hillsdale, NJ: Erlbaum

Tanner KD (2012). Promoting student metacognition. CBE—Life Sciences Education 11, 113-120.

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  • http://twitter.com/polarisdotca Peter Newbury

    Do you fear you might be asking the students to do too much at once? They have to simultaneously 1) learn biology, 2) learn how to create a synthesis map and 3) learn how to use Prezi. nnI designed an #astro101 concept mapping activity and we carefully introduced one task at a time. First, students drew simple concept maps about a topic they all new about. They learned about nodes, connecting lines labeled with verbs and how to layout the concepts on the paper. Only after this practice did we ask them to draw a map about stars. Now they could focus on astronomy. nnMight you consider having them draw a simple map on paper. And then getting them to put that into Prezi. With that practice, they could concentrate on biology.

  • http://www.facebook.com/cynthia.brame.5 Cynthia Brame

    Good question, Peter. It is a concern, but there are some reasons that I’m doing it this way, and some steps that I’m taking to try to make it work. nnFirst, why do it this way? I think that the construction of the map will help them learn the biology. I should point out that the synthesis maps, as I’m envisioning them, don’t have a particular “grammar” in quite the same way that concept maps do. Most of the students (who are juniors and seniors, mostly Molecular and Cellular Biology majors) will probably use structures that mimic a signaling pathway, which is something with which they are pretty familiar, but I’m not creating rules about exactly what the map should look like. The synthesis maps give them a venue to bring together different pathways that go awry during carcinogenesis. I think it’s worth the trouble to do it via Prezi because 1) Prezi’s zooming capabilities are particularly suited to showing spatially related events, allowing students to show what is happening at the plasma membrane and within the nucleus in some detail without creating a giant drawing, and 2) the students are going to modify the synthesis maps over the course of the semester, and I hope that having an electronic map will keep them from having to start again.nnSecond, what am I doing to help them? 1) We’re devoting five class days over the course of the semester to thinking through the synthesis and how one could do a visual display. The students have to create the maps themselves, of course, but we’ll have done some work on it in class before they’re due. 2) The maps are due five times over the course of the semester, but the first four submissions are for comments only (although required for the final grade). I’m hoping that this approach allows the students to get the benefit of creating the map while reducing the stress they may feel about getting it “right.” nnSo you’re right, it’s a lot to ask of them…but I think the potential benefits make it worth it, and I intend to provide help that will maximize the value and minimize the stress. nnThanks for the comment!

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