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Applying the Knowledge Quartet to student teachers’ lesson plans: An intervention

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HAL Id: hal-02430474

https://hal.archives-ouvertes.fr/hal-02430474

Submitted on 7 Jan 2020

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Applying the Knowledge Quartet to student teachers’

lesson plans: An intervention

Lena Karlsson

To cite this version:

Lena Karlsson. Applying the Knowledge Quartet to student teachers’ lesson plans: An interven- tion. Eleventh Congress of the European Society for Research in Mathematics Education, Utrecht University, Feb 2019, Utrecht, Netherlands. �hal-02430474�

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Applying the Knowledge Quartet to student teachers’ lesson plans:

An intervention

Lena Karlsson

Linnaeus University, Sweden [email protected]

The Knowledge Quartet

The Knowledge Quartet is a theoretical framework for analysing and developing mathematics teaching developed by Rowland, Turner, Thwaites, and Huckstep (2009) and elaborated on by Rowland (2014). The framework comprises four categories – Foundation, Transformation, Contingency, and Connection – that together constitute the mathematical knowledge needed by teachers. Within each of these four categories, several codes have been developed with which to identify and evaluate the knowledge of student teachers based on observations of classroom teaching. This poster presents and discusses an intervention addressing whether and how the Knowledge Quartet can also be used to evaluate the knowledge of student teachers based on their lesson plans. In teacher education, there are often few occasions to observe student teachers’

teaching, which is why it is of interest to explore whether some of the knowledge to be revealed (or revealed to be missing) by using the Knowledge Quartet can also be revealed in reflections of lesson plans.

The intervention

The intervention was conducted within a mathematics education course in lower primary school teacher education. In this course, the student teachers were to produce lesson plans for a series of lessons, implement one to two of these lessons, and then reflect on the series of lessons and on their implementation. The lesson implementation, however, was not observed by the teacher educators.

The task was conducted in two groups of student teachers. In one group, the students were to write their reflections, and in the other group, the students were to record their reflections orally in video.

For this poster, five reflections were randomly selected from each group.

In the written reflections, Foundation and Connection were the two dominant categories that were evident. In Foundation, a huge variety of codes was evident, the two most common ones being reflections on student beliefs (code A1) and reflections on the course (code A6). Connection was the second-largest category, and here the most common code was the student teacher’s expectations about classroom complexity (code C1). In Transformation, the most common code was representations used in lessons (code B2). Contingency was only evident in one written reflection, in which one student teacher wrote about how she responded to and acted on her pupils’ answers in the lesson (code D2).

In the oral reflections, Foundation and Connection were also the two dominant categories. In Foundation, several reflections addressed how assessment was to be carried out in the classroom (code A8), and another common code was the importance of using correct mathematical terminology and mathematical language even in lower primary school (code A7). Connection was the second largest category, and here the most common code was student teacher expectations about complexity in the classroom (code C1). The classroom setting was also common in the oral

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reflections code (code C6). In Transformation, the recordings of oral reflections featured how the student teachers chose examples and questions to be able to reveal student knowledge and understanding (code B1). Contingency was the least common category in the oral reflections, though it was more common here than in the written reflections. The most common codes were how students could deviate from the lesson plan (code D3) as well as how the student teachers responded to their pupils’ questions and answers (code D2). Even code D1, which deals with how the student teachers handle and act with pupils during instructions occurred.

New codes and sub-codes detected during analysis of the students’ lesson plans

In Foundation, a new code was added concerning students’ thoughts about assessment. Among other things, the students reflected on complexity in assessment and teaching, and on the difficulty of finding the right teaching level and of fairly judging pupil knowledge. In Connection, two new sub-codes of code C1 (expectations of classroom complexity) were defined. One sub-code focused on pupils needing special support, in which the student teachers reflected on and discussed how to teach mathematics so as to include all pupils. This was obvious in both the written and oral reflections. The second sub-code connected to C1 was self-reflections on teaching, in which the student teachers reflected on the lesson structure and outcome, though this sub-code was only evident in the oral reflections. Another common sub-code, of code C6, in both the written and oral reflections was classroom framing. Socio-mathematical norms as well as ability grouping versus inclusion were important elements of this code; how pupils’ language abilities influence their mathematics learning was also included as a sub-heading.

Reflection

The Knowledge Quartet is a theoretical framework designed to be applied to observations of student teachers in the classroom. In this study the framework has been applied to two different forms of examination in a teacher program which generated new codes and sub codes not visible in the original framework. These codes and sub-codes might be specific to observe students’ reflections on teaching. Through the new codes and sub-codes, it is visible that there is a tendency that the student teachers´ reflections become clearer and broader examined through the film than through the text assignment. Hence, based on the intervention, I would argue that the refined framework of the Knowledge Quartet can be used to analyse students´ reflections in lesson plans. However, the analysis of lesson plans differs from that of teaching as performed, as it indicates only whether the student teachers have the theoretical knowledge needed to teach a lesson, not whether they have the practical skills. Though, there are often few occasions to observe student teachers’ teaching in teacher education, which is why it is of interest to explore knowledge to be revealed in reflections of lesson plans.

References

Rowland, T. (2014). The Knowledge Quartet: The genesis and application of a framework for analysing mathematics teaching and deepening teachers’ mathematics knowledge. SISYPHUS Journal of Education, 1(3), 15–43.

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Rowland, T., Huckstep, P., Turner, F., & Thwaites, E. A. (2009). Developing primary mathematics teaching: Reflecting on practice with the Knowledge Quartet. London: Sage Publications Ltd.

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