The Secondary-Tertiary Transition in Mathematics: What High School Teachers Do to Prepare Students for Future Success in College-Level Calculus

Carol H. Wade, Sandra K. Cimbricz, G. Sonnert, Meagan Gruver, P. Sadler
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引用次数: 1

Abstract

Quantitative analysis of the Factors Influencing College Success in Mathematics (FICSMath) Survey data indicates that high school mathematics teachers’ abilities to teach for conceptual understanding is a significant and positive predictor of student performance in single- variable college calculus. To explore these findings further, we gathered and analyzed interview data gained from a representative sample of high school precalculus teachers from across the U.S., identified by their students as requiring high levels of conceptual understanding (n = 13). Seventeen themes were identified and then combined into five overarching phenomenological themes. These overarching themes suggest that teachers who teach for high conceptual understanding (a) support relational understanding during problem solving, (b) require students to learn how to study to build on prior knowledge and learn from mistakes, (c) use mathematical language and ask critical questions to support learning, (d) focus on content knowledge necessary to make connections, and (e) use technology to support learning concepts but limit calculator use. Comparison of these results to quantitative findings further illuminate that intentional development of disciplinary knowledge, cognition, and language are noteworthy points of intersection for teachers and researchers alike.
数学的中学到大学的过渡:高中教师如何为学生在大学水平的微积分方面的未来成功做好准备
大学数学成绩影响因素的定量分析(FICSMath)调查数据表明,高中数学教师的概念理解教学能力是学生单变量大学微积分成绩的显著正向预测因子。为了进一步探索这些发现,我们收集并分析了来自美国各地高中微积分预科教师的代表性样本的访谈数据,他们的学生认为他们需要高水平的概念理解(n = 13)。十七个主题被确定,然后合并为五个总体现象学主题。这些总体主题表明,教授高概念理解的教师(a)在解决问题时支持关系理解,(b)要求学生学习如何在先前的知识基础上学习并从错误中学习,(c)使用数学语言并提出关键问题来支持学习,(d)关注建立联系所必需的内容知识,以及(e)使用技术来支持学习概念,但限制计算器的使用。将这些结果与定量研究结果进行比较,进一步说明学科知识、认知和语言的有意发展是教师和研究人员都值得注意的交叉点。
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