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The contribution of online mathematics games to algebra understanding in Grade 8 网络数学游戏对八年级代数理解的贡献
IF 1.2 Q3 Mathematics Pub Date : 2021-07-29 DOI: 10.4102/pythagoras.v42i1.586
T. Marange, S. Adendorff
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引用次数: 2
Table of Contents Vol 41, No 1 (2020) 目录41卷第1期(2020)
IF 1.2 Q3 Mathematics Pub Date : 2020-12-23 DOI: 10.4102/pythagoras.v41i1.597
Editorial Office
No abstract available.
没有摘要。
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引用次数: 0
Relative difficulty of early grade compare type word problems: Learning from the case of isiXhosa 低年级比较型字词问题的相对难度:以isiXhosa为例的学习
IF 1.2 Q3 Mathematics Pub Date : 2020-12-21 DOI: 10.4102/pythagoras.v41i1.538
I. Mostert
Word problems are a central, yet hard-to-teach, aspect of early grade mathematics. For example, in South Africa word problems have been identified as a recurring weakness in the South African Annual National Assessments (ANAs) (Department of Basic Education, 2012, 2014, 2015). Research has shown that the relative difficulty of word problems differs: learners are more likely to solve certain types of word problems than others. For additive relation word problems, in other words any word problems involving addition and subtraction, compare type problems have been shown to be the most difficult for learners to solve. Compare type problems are of the form ‘Sbu has eight bananas and Sive has five bananas. How many more bananas does Sbu have than Sive?’ While there has been some research into early grade word problems in South Africa (e.g. Petersen, McAuliffe, & Vermeulen, 2017), and some research into word problems and African languages in higher grades (e.g. Sepeng, 2013), there has been little research into early grade word problems in African languages. This is problematic as more than 75% of learners are taught mathematics in an indigenous African language in the first four years of formal schooling (Spaull, 2016).
单词问题是早期数学的核心,但很难教授。例如,在南非,单词问题已被确定为南非年度国家评估中反复出现的弱点(基础教育部,201220142015)。研究表明,单词问题的相对难度不同:学习者比其他人更有可能解决某些类型的单词问题。对于加性关系单词问题,换句话说,任何涉及加法和减法的单词问题,比较型问题都被证明是学习者最难解决的。比较型问题的形式是“Sbu有八根香蕉,Sive有五根香蕉”。Sbu的香蕉比Sive多多少?”虽然南非对初年级单词问题进行了一些研究(例如Petersen,McAuliffe,&Vermeulen,2017),对高年级单词问题和非洲语言进行了一些调查(例如Sepeng,2013),但对非洲语言初年级单词问题的研究很少。这是有问题的,因为在正规教育的前四年,超过75%的学习者用非洲土著语言学习数学(Spaull,2016)。
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引用次数: 1
Becoming mathematical: Designing a curriculum for a mathematics club 数学化:为数学俱乐部设计课程
IF 1.2 Q3 Mathematics Pub Date : 2020-12-18 DOI: 10.4102/pythagoras.v41i1.572
Erna Lampen, K. Brodie
becoming mathematical about mathematics, (3) being mathematical and making mathematics, and (4) mathematics. We argue that through such a curriculum, we can develop mathematical reasoning on the basis of learners’ everyday reasoning in ways that support their mathematical proficiency, identities and agency.
关于数学的数学化,(3)数学化和数学化,以及(4)数学。我们认为,通过这样的课程,我们可以在学习者日常推理的基础上发展数学推理,以支持他们的数学能力、身份和能动性。
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引用次数: 2
Evaluation and orientations to Grade 10 mathematics in schools differentiated by social class 按社会阶层划分的学校对10年级数学的评价和定位
IF 1.2 Q3 Mathematics Pub Date : 2020-12-17 DOI: 10.4102/pythagoras.v41i1.578
S. Jaffer
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引用次数: 0
Investigating the strength of alignment between Senior Phase mathematics content standards and workbook activities on number patterns 调查高年级数学内容标准与数字模式练习册活动之间的一致性
IF 1.2 Q3 Mathematics Pub Date : 2020-12-17 DOI: 10.4102/pythagoras.v41i1.569
Agnes D. Qhibi, Zwelithini Bongani Dhlamini, K. Chuene
The investigation of the strength of alignment ensures synergy between curriculum components’ main content standards, classroom instruction and assessment (Polikoff & Porter, 2014; Porter, 2002). The extent of agreement between these curriculum components is referred to as alignment (Roach, Niebling, & Kurz, 2008). The conceptualisation of alignment begins with common understanding of the educational components used in this discourse, content standards, classroom instruction and assessment. Kurtz, Elliott, Wehby and Smithson (2010) refer to these as follows: (1) the intended curriculum is reflective of the content standards as specified in the Curriculum and Assessment Policy Statement (CAPS) (Department of Basic Education [DBE], 2011); (2) the enacted curriculum refers to the content of instruction taught by teachers in classrooms; (3) the assessed curriculum is depicted by the content measured by the various forms of assessment or tests during the academic year. Hence, the conceptualisation between these three aspects of the curriculum in the alignment discourse is: the intended curriculum specifies content for instruction; the content taught by teachers during instruction portrays the enacted curriculum; the assessed curriculum depicts the assessed content that gauges levels of students’ achievement. The investigation of the strength of alignment normally begins with the determination of the content, the cognitive levels and representations of each of the documents (Porter, 2002; Webb, 1997). Frequent studies on alignment are necessary to improve the agreement of curricula expectations, classroom instruction and assessment (Russell & Moncaleano, 2020). Alignment is both horizontal and vertical. Horizontal is between curricula (intended and assessed) and assessments while vertical is between learning materials, classroom instruction, professional development and learner outcomes (enacted curriculum) (Webb, 1997). Hence, alignment has the potential to strengthen the connections between what is taught, what is tested and what is intended by the curriculum (Martone & Sireci, 2009).
对对齐强度的调查确保了课程组成部分的主要内容标准、课堂教学和评估之间的协同作用(Polikoff & Porter, 2014;波特,2002)。这些课程组成部分之间的一致程度被称为对齐(Roach, Niebling, & Kurz, 2008)。一致性的概念化始于对这一论述中使用的教育组成部分、内容标准、课堂教学和评估的共同理解。Kurtz, Elliott, Wehby和Smithson(2010)认为:(1)预期课程反映了课程和评估政策声明(CAPS)中规定的内容标准(基础教育部[DBE], 2011);(二)制定课程是指教师在课堂上讲授的教学内容;(3)经评估的课程由学年期间各种形式的评估或考试所衡量的内容来描述。因此,在一致性话语中,课程的这三个方面之间的概念化是:预期课程指定教学内容;教师在教学过程中讲授的内容描绘了制定的课程;评估课程描述了衡量学生成就水平的评估内容。对对齐强度的调查通常从确定每个文件的内容、认知水平和表示开始(Porter, 2002;韦伯,1997)。为了提高课程期望、课堂教学和评估的一致性,有必要频繁地研究一致性(Russell & Moncaleano, 2020)。对齐是水平和垂直的。横向是指课程(目标和评估)和评估之间的关系,而纵向是指学习材料、课堂教学、专业发展和学习者成果(制定的课程)之间的关系(Webb, 1997)。因此,一致性有可能加强教学内容、测试内容和课程意图之间的联系(Martone & Sireci, 2009)。
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引用次数: 1
University students’ mental construction when learning the Convergence of a Series concept 大学生在学习级数收敛概念时的心理建构
IF 1.2 Q3 Mathematics Pub Date : 2020-12-15 DOI: 10.4102/pythagoras.v41i1.567
Conilius J. Chagwia, Aneshkumar Maharaj, D. Brijlall
Many mathematical concepts in calculus and other courses depend heavily on the limit concept, like the definite integral as the limit of Riemann sums, Taylor series and the differential in multivariate calculus. Convergent partial sums of a sequence may be used to define the limit of an infinite series. The limit of an infinite series can be defined as the limit (as n → ∞) of the sequence of partial sums. Infinite series development was motivated by the approximation of unknown areas and for the approximation of the value of π (Hartman, 2008). In about 1350, Suiseth indicated
微积分和其他课程中的许多数学概念在很大程度上依赖于极限概念,如作为黎曼和极限的定积分、泰勒级数和多元微积分中的微分。序列的收敛部分和可以用来定义无穷级数的极限。无穷级数的极限可以定义为极限(如n→ ∞) 部分和序列的。无穷级数的发展是由未知区域的近似和π值的近似推动的(Hartman,2008)。大约在1350年,Suiseth指出
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引用次数: 1
Peer tutors’ views on their role in motivating learners to learn mathematics 同伴导师对他们在激励学习者学习数学中的作用的看法
IF 1.2 Q3 Mathematics Pub Date : 2020-09-28 DOI: 10.4102/PYTHAGORAS.V41I1.520
Abigail Roberts, E. Spangenberg
. This qualitative article utilised pre-and post-interviews as data collection instruments. Ten of the best-performing Grade 12 learners at an ex-model C school in Gauteng province in South Africa were purposively selected to participate in the research. The findings revealed that peer tutors view their role to motivate learners to learn mathematics peculiar to seven positions, which can inform future research on intervention strategies to improve mathematics performance. This article introduces research on an adapted use of the ARCS model of motivation in motivating learners to learn mathematics, which is a novel way of bringing new perspectives to research on motivation in mathematics at secondary school level.
这篇定性文章使用了访谈前后的数据收集工具。南非豪登省一所前C模式学校的10名表现最好的12年级学生被有意选择参加这项研究。研究结果表明,同伴导师认为他们的作用是激励学习者学习七个职位特有的数学,这可以为未来关于提高数学成绩的干预策略的研究提供信息。本文介绍了将ARCS动机模型应用于激励学习者学习数学的研究,这是一种为中学数学动机研究带来新视角的新方法。
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引用次数: 3
Pedagogical narratives in mathematics education in South Africa 南非数学教育中的教学叙事
IF 1.2 Q3 Mathematics Pub Date : 2020-09-25 DOI: 10.4102/pythagoras.v41i1.573
Charles R. Smith
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引用次数: 0
Postgraduate mathematics education students’ experiences of using digital platforms for learning within the COVID-19 pandemic era 新冠肺炎疫情下研究生数学教育学生使用数字平台学习的体验
IF 1.2 Q3 Mathematics Pub Date : 2020-08-31 DOI: 10.4102/pythagoras.v41i1.568
Jayaluxmi Naidoo
Within the digital era, as global society embraces the fourth industrial revolution, technology is being integrated swiftly within teaching and learning Within the Coronavirus disease (COVID-19) pandemic era, education institutions are preparing robustly for digital pedagogy This article reports on a study focusing on 31 postgraduate mathematics education students' experiences of using digital platforms for learning during the COVID-19 pandemic era The study was located at one teacher education institution in KwaZulu-Natal, South Africa The research process encompassed three interactive online workshops and two online discussion forums, which were conducted via different digital platforms (Zoom, Moodle and WhatsApp) The study was framed using the theory of Communities of Practice, which denotes a group of people who share an interest which is enhanced as group members support and interact with each other Qualitative data generated during the interactive online workshops and discussion forums were analysed thematically The results exhibit challenges and strengths of using digital platforms as experienced by the participants The results of this study suggest that before using digital platforms for mathematics learning, it is important for students to be encouraged to practise and engage collaboratively within digital platforms The study adds to the developing knowledge in the field concerning using digital platforms for learning mathematics within the COVID-19 pandemic era
在数字时代,随着全球社会迎来第四次工业革命,技术正在迅速融入教学和学习。本文报告了一项研究,重点关注31名研究生数学教育学生在COVID-19大流行时期使用数字平台进行学习的经历,该研究位于南非夸祖鲁-纳塔尔省的一所教师教育机构,研究过程包括三个互动在线研讨会和两个在线讨论论坛,通过不同的数字平台(Zoom,Moodle和WhatsApp)这项研究的框架是使用实践社区理论,通过对在线互动式研讨会和讨论论坛中产生的定性数据进行主题分析,结果显示了参与者所经历的使用数字平台的挑战和优势。本研究的结果表明,在使用数字平台进行数学学习之前,鼓励学生在数字平台上进行实践和协作是很重要的。这项研究增加了在2019冠状病毒病大流行时期使用数字平台学习数学这一领域不断发展的知识
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引用次数: 30
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Pythagoras
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