为残疾高发中学生开设通识教育数学课程

P. Maccini, Tricia K. Strickland, Joseph Calvin Gagnon, K. Malmgren
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引用次数: 10

摘要

使用与数学相关的数字、变量和符号。图11具体的半具体的抽象教学序列和更具排他性的环境,包括JC学校(Cass,Cates,Smith,&Jackson,2003;Maccini等人,2006年;Maccini&Hughes,2000年;Maccini&Ruhl,2000年)。在实证研究中,学生达到了标准表现,随着时间的推移保持了技能,并推广到更难的问题类型。例如,研究人员(Maccini&Hughes,2000;Maccini&Ruhl,2000)发现CSA序列有助于学生表示和解决涉及整数和问题解决的单词问题。学生们使用具体水平的代数瓦片来构建概念知识,并使用助记策略(STAR)来帮助他们掌握程序知识。图9概述了CSA战略在STAR战略中的实施方式。在一项改变CSA进展的研究中,Cass及其同事(2003)指出,地理板帮助患有LD的中学生建立了对周长和面积的概念理解,可以转化为现实世界中的问题解决。学生们只使用CSA策略的混凝土(土工板)和抽象组件接受指导,并通过测量玩具屋的房间和窗户尺寸,然后将这些测量值从缩放尺寸转换为实际尺寸,以确定所需的地板和窗户处理量,展示了这些技能的通用性。尽管研究表明,一些人支持将进展限制在具体和抽象阶段,但更多的人支持使用整个CSA序列。每天或每周使用CSA序列有助于不同环境的学生在进入更抽象的任务之前,通过多感官方法理解数学概念(Cass等人,2003;Hudson和Miller,2006;Maccini和Hughes,2000年;Maccini&Ruhl,2000年)。然而,如图12所示,JC学校超过一半的教师报告称,如果有的话,他们每月都会使用这一策略。JC学校很少使用整个CSA序列,这与其他对公立学校教师的研究一致(Gagnon&Maccini,2007)。JC学校的教师主要指出,他们需要更多的培训以及额外的材料和资源来有效和频繁地使用CSA序列。与包容性更强的学校的某些教师一样,一些青少年管教所的教师指出,他们对教学的看法与CSA的方法不匹配。教师的教学观和CSA之间的脱节可能跨越各种课堂环境,并可能与教师的观点有关,即基于概念、规则的方法更适合中学生。JC学校环境中固有的另一个复杂因素是,安全问题可能会限制教师的数学教学方法。操纵可能是一个严重的安全问题。然而,可以也应该对操纵器的使用进行具体的调整(Maccini等人,2006年)。下面提到的对实践的影响
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Accessing the General Education Math Curriculum for Secondary Students With High-Incidence Disabilities
Use of numbers, variables, and symbols associated with mathematics. FIGURE 11 The concrete-semi-concrete-abstract instructional sequence and more exclusionary settings, including JC schools (Cass, Cates, Smith, & Jackson, 2003; Maccini et al., 2006; Maccini & Hughes, 2000; Maccini & Ruhl, 2000). Within the empirical studies, students reached criterion performance, maintained the skills over time, and generalized to more difficult problem types. For example, researchers (Maccini & Hughes, 2000; Maccini & Ruhl, 2000) found that the CSA sequence helped students to represent and solve word problems involving integer numbers and problem solving. The students used algebra tiles at the concrete level to build conceptual knowledge and a mnemonic strategy (STAR) to assist them with the procedural knowledge. Figure 9 provides an overview of the way in which the CSA strategy was implemented within the STAR strategy. In a study that varied the CSA progression, Cass and colleagues (2003) noted that geoboards helped secondary students with LD establish a conceptual understanding of perimeter and area that could transfer to real-world problem solving. Students received instruction using only the concrete (geoboard) and the abstract components of the CSA strategy and demonstrated generalization of these skills by measuring the room and window sizes of a dollhouse and then converting these measurements from scaled size to actual size to determine the needed amount of flooring and window treatments. Although studies show some support for limiting the progression to the concrete and abstract stages, more support exists for using the entire CSA sequence. Use of the CSA sequence on a daily or weekly basis helps students across settings understand math concepts via a multisensorial approach prior to advancing to more abstract tasks (Cass et al., 2003; Hudson & Miller, 2006; Maccini & Hughes, 2000; Maccini & Ruhl, 2000). However, as Figure 12 shows, over half of the teachers in JC schools reported using this strategy only monthly, if at all. The infrequent use of the entire CSA sequence in JC schools is consistent with other studies of teachers in public schools (Gagnon & Maccini, 2007). Teachers in JC schools primarily noted that they needed more training and additional materials and resources to effectively and frequently use the CSA sequence. Like certain teachers in more inclusionary schools, some teachers in juvenile corrections noted that their views of teaching do not match the CSA approach. This disconnection between teachers' views of instruction and CSA may span a variety of classroom settings and could be related to teachers' views that a conceptual, rulebased approach is more appropriate for secondary students. One additional complication inherent in JC school settings is that security concerns may limit a teacher's approach to mathematics instruction. Manipulatives can be a serious security issue. However, specific adaptations to the use of manipulatives can and should be made (Maccini et al., 2006). The implications for practice noted next consider the
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