Abstract

Specialized content knowledge (SCK) is a type of mathematical content knowledge specifically needed for teaching. This type of knowledge, although serving as a critical component for preservice teacher education, is often challenging to develop with preservice elementary teachers (PTs). The purpose of this study is to investigate PTs’ development of SCK for teaching fundamental mathematical ideas in a university methods course. Focusing on the case of the associative property (AP) of multiplication, the author as the course instructor identified three instructional opportunities (a formal introduction and two delayed revisits) to stress two SCK components, representations, and explanations. PTs’ learning progresses were assessed through three diagnostic tests (a pretest, a mid-term exam, and a final exam) and two prompts, which informed the upcoming lesson design. Meanwhile, the course instructor conducted ongoing reflections on PTs’ learning, which also informed the corresponding lessons. It was found that PTs initially generated abstract number sentences without reasoning about the contexts of word problems. This representational sequence indicates a symbol precedence view. When prompted for explanations, PTs focused on individual numbers rather than quantitative relationships, and they could not consistently apply the basic meaning of multiplication for reasoning. The methods course, when designed to address these issues, promoted PTs’ SCK development. At the end of the course, the majority of PTs were able to generate number sentences based on the word problem structures and provided reasonable explanations; however, the methods course also faced dilemmas due to PTs’ robust symbol precedence view and the tension between PTs’ learning and children’s learning. Very few studies have explored ways to support PTs’ knowledge growth in SCK, especially for teaching fundamental mathematical ideas. This study, by carefully documenting the successes and challenges in developing PTs’ SCK, contributes to the existing literature. Based on our findings, this study highlights the importance of stressing basic meanings so as to develop PTs’ explanation skills. Meanwhile, to develop PTs’ representation skills, university instructors should be aware of the tension between PTs’ and children’s learning as manifested by PTs’ symbol precedence view. Finally, to support PTs’ SCK growth, it is also important to emphasize the role of elementary textbooks.

Highlights

  • Specialized content knowledge (SCK) is a type of mathematical content knowledge needed for teaching

  • Mathematics education programs should support preservice elementary teachers’ (PTs) learning of specialized content knowledge (SCK), which is a type of mathematical content knowledge needed for teaching (Ball et al 2008)

  • Even though Ball et al (2008) provided a list of SCK tasks that are unique for teaching mathematics (e.g., “explaining mathematical goals and purposes to parents,” “inspecting equivalencies,” p. 400), this study focused mostly on teachers’ representations and explanations, which are the core to unpacking a concept to make it visible and meaningful for students

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Summary

Introduction

Specialized content knowledge (SCK) is a type of mathematical content knowledge needed for teaching. Mathematics education programs should support preservice elementary teachers’ (PTs) learning of specialized content knowledge (SCK), which is a type of mathematical content knowledge needed for teaching (Ball et al 2008). The acquisition of SCK demands PTs’ well-connected mathematical knowledge and the awareness of children’s learning, which is often found to be lacking in PT’s existing conception (Borko et al 1992; Ding et al 2013; Morris and Hiebert 2009; Simon and Blume 1994) Such deficiency may be more problematic when developing PTs’ SCK for teaching fundamental mathematical ideas (e.g., basic properties of operations) that are the core principles of mathematics but too abstract for children. By documenting PTs’ knowledge growth and the successes and challenges in learning to teach AP of multiplication, this study aims to contribute a small but vital piece to the knowledge base of teacher education (Morris et al 2009), in the area of teaching fundamental mathematical ideas

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