Sunday, 8 January 2017

Ineffectiveness in Research in Math Education

Author: Kilpatrick
Source: For the Learning of Mathematics, Vol. 2, No. 2, (Nov., 1981) pp. 22-29

In the article, Kilpatrick asks the question, 'Why is research in mathematics education so ineffective?' In short, Kilpatrick asserts that the two main reasons are inattention to theory and the disconnect between researchers in math education and practitioners (teachers).  Kilpatrick offers the ‘lens model’ as a way to show how it is both the researcher’s intended purpose and the lens through which the reader interprets research that determines if research is basic or applied.  The ineffectiveness of basic and applied research is found in the connections (or lack thereof) between research and theory and the connection between research and practice. Such ineffectiveness can be seen in the way that ‘new (the article is published in 1981) academic studies are not grounded in common theoretical frameworks and a therefore a community of researchers in mathematics education is not forming. The effect of research on educational practice is mediated by through theory as it is only with a common theory that research can be applied by the reader. Research needs to be more explicit and coherent in its assumptions, frame of reference and point of view so that readers can use a theoretical frame to judge similarities between research and their own situations. Kilpatrick uses a contrast between mathematics and mathematical educational research to help explain the ineffectiveness of research; according to this analogy, researchers need to develop more precise intellectual tools and the practice the ability to adapt tools to various problems and have a realistic expectation of the types of problems that such tools are able to address. Moreover, distinguishing that research in mathematical education is different than mathematics is key as the latter is technical but the former is social.

STOP: Virus

The article includes an example of how teachers mistakenly assume that studying math improves one’s ability to think logically in other domains. Kilpatrick describes how it is the way that teachers understand a theory that has a profound impact on math education; as theories disseminate through books or talks, “Gradually the idea comes into the culture of mathematics education and is picked up by teachers in practice. Sometimes the ideas I banned from colleges of education but lurks in a culture like a virus to strike down the receptive practitioner.”

Kilpatrick uses the term virus to show how an illness can infiltrate a population. This also reminds me of a ‘computer virus.’ I think a part of the trouble is that teachers are often presented viruses in work emails or district workshops.  Similar to a sales pitch, teachers hear, ‘It is important to teach this new concept or work with this type of learner because_______.’  British Columbia adopted a new curriculum this year and so there are a number of terms that teachers are talking about in the lunchroom. One virus or ‘buzz’ word that is ‘coding’ and all of the amazing things that teaching computer coding is supposed to achieve. I have taken a picture of a poster that was given out in a recent school district workshop (the intention is for it to be widely distributed). Linking to Kilpatrick’s example that teachers mistakenly assume teaching math can be generalized to teaching logic in many domains, generalizing problem-solving (which one often assumes is linked to logical thinking) is one of the supposed benefits. Almost insidiously, the limits of such generalizing or transferring potential are left out of the workshop and the poster. In my work, I hear the experiences of children from many schools. Sometimes the curriculum that teachers are presented with at district workshops/emails is taught as little more than a set of instructions to make one thing on a screen move to another location on a screen. I am currently planning a ‘Girls Who Code’ module that starts in February and so this fear of being ‘susceptible to a virus’ is frightening. If I am not careful, I could be teaching children little more than how to follow a recipe. What does successful teaching look like if I cannot trust that the purposes of such learning are embedded in theory? It makes me ask what am I teaching? And what for?

Questions:

1.     In the contexts where you have taught and researched, have you seen a ‘virus’ or idea about education that started in theory but had negative or unexpected implications?

2.     This article was written in 1981. In your research thus far, does your experience reflect Kilpatrick's claim that many math education studies are not imbedded in theory?




6 comments:

  1. 1.
    About 10 years ago, the Japanese national curriculum dramatically revised to adapt the “current” society – for example, descriptions about pi in elementary level mathematics changed from "pi is calculated as 3.14" to "pi is calculated as 3.14 but it could be replaced to 3 based on teacher’s judgement". This revision intended to allow students can do quick prediction for size of area of circle or circumference. However, the media only treated "it could be replaced to 3" and some teachers prematurely agree with media and acknowledged as they have to teach pi should be operated as 3. This new description impacted on social norms because people started to blame the new curriculum and think sudent were spoiled (people believed they operate multiplication of decimal less times in school). Although I am not sure this can be said as "virus", this misinterpretation lead to the idea that the new curriculum help not to improve students’ academic performance among people. Eventually, this new curriculum was quickly re-revised in 5 years.

    2.
    In teacher training program in Japan, practicing teachers only have the classes about actual practices of teaching. Usually, they do not learn mathematics from theoretical perspectives. As I see the current teachers in Japan, most of them do not theoretically analyze their teaching approach. Moreover, it seems that there is little relationship built between researchers and teachers. I also heard schools/teacher hesitate to corporate with researchers because research might interrupt their students’ classes. Thus, teachers in Japan mainly focus on practical parts.

    Tsubasa

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    1. Interesting, as ideas from Japanese mathematics education (especially Lesson Study) are revered here in North America .

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  2. Thank you for your examples, Tsubasa. I had never heard about these examples from Japan. It makes me wonder how we degrade the mathematics by trying to make it 'easier to learn'; I find the difficult part for my students isn't multiplying by decimals but understanding a concept. I am actually teaching a module called "Piece of Pi" right now; we are going through the development of Pi over the few thousand years and relating it to other disciplines. I have this quote on my wall: "Probably no symbol in mathematics has evoked as much mystery, romanticism, misconception and human interest as the number pi" William Schaaf

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  3. The mistakes made by some governments is introducing foreign curriculum into developing countries without proper consultations, in most cases, its reviewed after causing great harm to the public. Unqualified doctors have released to work in public hospitals resulting to uncalled deaths, children been forced to learn subjects which does not help them in future in some cases confuses the learners eg religious studies, you would find a primary school does not have a particular religious studies teacher, the learner is forced to learn what is not of his or her faith. The second question YES because the classroom teachers are never brought on board when curriculum development institute vets mathematics course books, and end up with books which has mathematics examples given on the frame work so long and complicated for the learner to follow easily, this usually discourages the learners.

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  4. That is very alarming, James -- and an important potential area for your research.

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