دانلود مقاله ISI انگلیسی شماره 34623
عنوان فارسی مقاله

مدل ساختاری فراشناخت و دانش هندسی

کد مقاله سال انتشار مقاله انگلیسی ترجمه فارسی تعداد کلمات
34623 2010 10 صفحه PDF سفارش دهید 7800 کلمه
خرید مقاله
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عنوان انگلیسی
Structural model of metacognition and knowledge of geometry
منبع

Publisher : Elsevier - Science Direct (الزویر - ساینس دایرکت)

Journal : Learning and Individual Differences, Volume 20, Issue 5, October 2010, Pages 436–445

کلمات کلیدی
- دانش شناخت - مقررات شناخت - دانش اعلانی - دانش شرطی - دانش رویه - هندسه - مدل سازی معادله ساختاری
پیش نمایش مقاله
پیش نمایش مقاله مدل ساختاری فراشناخت و دانش هندسی

چکیده انگلیسی

This structural equation modeling study aimed to investigate both direct and indirect relations between metacognition and geometrical knowledge. The model was tested using data from tenth grade secondary school students (N = 923). It was used to estimate and test the hypothesized effects of two metacognitive constructs (knowledge of cognition and regulation of cognition) on three knowledge constructs (declarative, conditional, and procedural knowledge) together with the interrelationships among these three knowledge constructs. Major findings from the model indicated: (a) a reciprocal relationship existed among declarative, conditional, and procedural knowledge; (b) knowledge of cognition had a positive direct effect on procedural knowledge and a significant but negative direct effect on declarative knowledge; and (c) regulation of cognition had a positive direct effect on declarative knowledge and a significant but negative direct effect on procedural knowledge.

مقدمه انگلیسی

A causal relationship between metacognition and students' mathematical knowledge has long been assumed to exist. Brown (1987) defined metacognition as “one's knowledge and control of own cognitive system”. A considerable body of research has been developed to explore this relationship using correlational analysis (Lucangeli & Cornoldi, 1997, Sperling et al., 2002, Sperling et al., 2004, Swanson, 1990, Tobias & Everson, 2002, Veenman et al., 2004 and Veenman et al., 2005), crosstab analysis (Panaoura, Philippou, & Christou, 2003), latent variable modeling analysis (Panaoura & Philippou, 2005 and Panaoura, 2007) and qualitative methods particularly interviews (Artzt & Armour-Thomas, 1992, Goos & Galbraith, 1996, Maqsud, 1997, Pugalee, 2001, Pugalee, 2004, Stillman & Galbraith, 1998 and Wilson & Clarke, 2004). The effect of metacognitive instruction on mathematical problem solving and reasoning has also been investigated in experimental settings (Schurter, 2002, Slife et al., 1985, Kramarski et al., 2001, Kramarski et al., 2002, Kramarski, 2004, Mevarech & Kramarski, 1997 and Mevarech, 1999). Many of the afore-cited studies provide substantial evidence in favor of the positive unilateral interrelation among components of metacognition and student's mathematical knowledge. This, however, cannot explain to what extent these constructs influence one another, directly or indirectly. Veenman, Van Hout-Wolters, and Afflerbach (2006) suggested the use of PCA and LISREL analyses, which yield the best estimates among latent variables and multiple indicators. Although knowledge of cognition and regulation of cognition were suggested as the two components of metacognition (Brown, 1987), previous research particularly focused on regulation of cognition. Besides that, context of the assessments mainly focused on elementary school mathematics and rarely on secondary school mathematics, particularly concerning procedural knowledge. The relationship between students' knowledge of concepts and procedures has also long been an important issue in the mathematics education. The interrelation among different knowledge types was particularly investigated in the domains of counting (Gelman, Meck, & Merkin, 1986), single-digit addition (Baroody & Gannon, 1984), multi-digit addition (Fuson, 1990 and Hiebert & Wearne, 1996), fractions (Byrnes & Wasik, 1991, Mack, 1990 and Rittle-Johnson et al., 2001), decimal fractions (Moss & Case, 1999 and Resnick et al., 1989), percent (Lembke & Reys, 1994), mathematical equivalence (Knuth et al., 2006, Perry, 1991 and Rittle-Johnson & Alibali, 1999), linear equations (Star et al., 2005), calculus (Engelbrecht, Harding, & Potgieter, 2005), and algebra–geometry–analytic geometry (Webb, 1979). In addressing the relationship, most researchers reported that types of knowledge are learned in tandem rather than independently (Rittle-Johnson & Alibali, 1999). The topics studied in this bulk of studies have been mainly limited to elementary school mathematics, particularly arithmetics. Researchers assessed the conceptual knowledge through tasks that involve “what” and “which” type of questions in the context of primary level of relationships (declarative knowledge), and/or that involve “how” type of questions in the context of abstract level of relationships (conditional knowledge) since conceptual knowledge involves building relationships between existing bits of knowledge that is comprised of primary level of relationships and abstract level of relationships. These particular constructs, however, were not classified as declarative and conditional knowledge rather introduced as conceptual knowledge. Additionally, knowledge of procedures was assessed through tasks that involve the manipulation of algorithms and procedures. Whether researchers are speaking of conceptual knowledge or procedural knowledge, they hold to the same premise that any of these types of knowledge involve declarative, conditional, and procedural knowledge (Alexander et al., 1989 and Ryle, 1949). Having established these facts mentioned above, the present study aimed to test the hypothesized effects of metacognitive constructs (knowledge of cognition and regulation of cognition) on geometrical knowledge constructs (declarative, conditional, and procedural knowledge) together with the interrelationships among these knowledge constructs. We estimated the model using structural equations to assess the direct and indirect effects of the selected knowledge constructs on each other, and metacognitive constructs on knowledge of geometry. The structural relationships among these constructs were interpreted as indices of effects of one construct on the other. Thus, the purpose of this study was twofold: (a) to determine the effects of metacognitive constructs on knowledge of geometry, and (b) to determine the relationships among knowledge of geometry. From a pedagogical point of view using knowledge of cognition and regulation of cognition can effectively inform teaching and learning. A major challenge for mathematics teachers is thus to foster the quality in thinking, assess more purposefully, and to better ends have students engaged in metacognitive processes. Students being aware of what they know can portray their learning as a transition to sense-making. If so, such metacognitive processes may offer teachers much to alleviate the understanding of the reasons underpinning students' geometrical knowledge. It has been widely acknowledged that knowledge of mathematics is energized by declarative, conditional, and procedural knowledge. Students aligned with knowledge of definitions, relational rules, and procedures are more apt to adopt what they know and do not know and use it effectively in mathematics. Similar issues of concern with corresponding inferences in other subject areas can be evident when investigating students who attach an elaborate action on their knowledge of physics, chemistry, etc. In this sense, the metacognition-knowledge model in the present study offers relations specific for mathematics as well as holds parallels and provides directions that can be specified to account for other subject areas in measures of both metacognition and knowledge.

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