How much is just maths? Investigating problem solving in chemical kinetics at the interface of chemistry and mathematics through the development of an extended mathematical modelling cycle

IF 2.6 2区 教育学 Q1 EDUCATION & EDUCATIONAL RESEARCH Chemistry Education Research and Practice Pub Date : 2023-10-10 DOI:10.1039/D3RP00168G
Sofie Ye, Maja Elmgren, Magnus Jacobsson and Felix M. Ho
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Abstract

Problem solving in chemical kinetics poses substantial challenges for university students since it often involves significant use of mathematics as a tool and language, with challenging translations and transitions between chemical phenomena and mathematical representations. In this paper, we present key findings from a study investigating chemistry students solving tasks centred around the steady-state approximation. Building upon the mathematical modelling cycle (MMC), qualitative analysis of the data collected using a think-aloud protocol led to the development of the extended MMC. This empirically derived extended MMC offers a more detailed account of the processes involved in mathematical modelling of chemical phenomena, highlighting aspects such as the occurrence of deliberation and evaluation throughout the modelling cycle, as well as the varying characteristics, points of activation and roles of extra-mathematical resources during problem solving. We further introduce and use problem-solving trajectories as a tool for visualising and analysing the complex and diverse approaches used by students in their attempts at reaching a solution. Overall, the extended MMC provides a finer-grained model of the cognitive and metacognitive activities that students engage in, offering further insights for research and practice.

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有多少只是数学?通过开发一个扩展的数学建模循环,在化学与数学的交界处研究化学动力学的问题解决方法
化学动力学问题的解决给大学生带来了巨大的挑战,因为它往往需要大量使用数学作 为工具和语言,而且化学现象和数学表征之间的转换和过渡也极具挑战性。在本文中,我们将介绍一项研究的主要发现,该研究调查了化学专业学生围绕稳态近似解 决任务的情况。在数学建模循环(MMC)的基础上,通过对使用 "思考-大声说 "协议收集到的数据进行定性分析,我们开发出了扩展的数学建模循环。这个根据经验得出的扩展数学建模周期对化学现象的数学建模过程进行了更详细的说明,突出了在整个建模周期中出现的审议和评估等方面,以及在解决问题过程中数学外资源的不同特点、激活点和作用。我们进一步引入并使用问题解决轨迹作为工具,对学生在尝试解决问题的过程中所使用的复杂多样的方法进行可视化分析。总之,扩展的多变量模型为学生的认知和元认知活动提供了一个更精细的模型,为研究和实践提供了更多的启示。
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来源期刊
CiteScore
4.80
自引率
26.70%
发文量
64
审稿时长
6-12 weeks
期刊介绍: The journal for teachers, researchers and other practitioners in chemistry education.
期刊最新文献
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