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2013 Conference Proceedings - University of Nevada, Las Vegas

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connections are connections or relationships <strong>of</strong> mathematical ideas and representations fromtasks within and across mathematical domains and curricular areas. Moreover, makingconnections is the core <strong>of</strong> mathematical understanding. As Hiebert and Carpenter explained:The mathematics is understood if its mental representation is part <strong>of</strong> a network <strong>of</strong>representations. The degree <strong>of</strong> understanding is determined by the number andstrength <strong>of</strong> its connections. A mathematical idea, procedure, or fact is understoodthoroughly if it is linked to existing networks with stronger or more numerousconnections (p. 67).While potential benefits <strong>of</strong> early algebra and mathematical connections are widely reportedin literature, there is scarcity <strong>of</strong> research on classroom activities that show how teachers mayrealize these benefits and on how early algebra is a tool for mathematical connections. Thepurpose <strong>of</strong> this study is to contribute to research on creating classroom contexts for supportingstudents’ development <strong>of</strong> mathematical reasoning as recommended by Proulx and Berdnaz(2009). This paper addresses this research gap by reporting how elementary school teachersmade mathematical connections in their early algebra classes, thereby supporting students’beginning understanding <strong>of</strong> algebra, and understanding <strong>of</strong> other mathematical domains.Theoretical PerspectiveGreeno’s (1998) situative learning perspective informs this study. This perspective viewslearning as individuals’ construction <strong>of</strong> knowledge as they participate in communities <strong>of</strong>practice. Individuals’ constructed knowledge is a tool for and a product <strong>of</strong> participation incommunities. Since “individual mental structures certainly change as part <strong>of</strong> this learning”(Sawyer & Greeno, 2009; p.364), knowledge is transferrable from one community <strong>of</strong> practice toanother. That is, students’ impoverished understanding <strong>of</strong> algebraic ideas may reflect aspects <strong>of</strong>the communities in which they participated. “Situative approaches provide analyses focused oncoordination <strong>of</strong> actions <strong>of</strong> individuals with each other and with material and informationalsystems” (Anderson, Greeno, Reder & Simon, 2000; p.12). A more specific methodologicalimplication from this perspective is a focus on constraints and affordances <strong>of</strong> activity systems(Greeno, 2003). Affordances are aspects <strong>of</strong> an activity system that participants may use to reachtheir goals. Constraints structure the interaction between participants <strong>of</strong> a community andaffordances. Based on this framework, the situative research question for the current study is:What are the affordances and constraints for supporting understanding <strong>of</strong> mathematical<strong>Proceedings</strong> <strong>of</strong> the 40 th Annual Meeting <strong>of</strong> the Research Council on Mathematics Learning <strong>2013</strong> 180

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